FoxArrayBase.Mod 337 KB

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  1. MODULE FoxArrayBase; (* stubs for array base runtime - can only be compiled by oc compiler *)
  2. (* (c) fof, fn, ETH Zürich, 2008 *)
  3. (*! do do: MAX(array,scalar) and MAX(array,array) for all datatypes*)
  4. IMPORT SYSTEM, KernelLog, Heaps, Math, MathL;
  5. TYPE
  6. Address = LONGINT;
  7. GenericUnaryAALoopS = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: SHORTINT): SHORTINT );
  8. GenericUnaryAALoopI = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: INTEGER): INTEGER );
  9. GenericUnaryAALoopL = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: LONGINT): LONGINT );
  10. GenericUnaryAALoopH = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: HUGEINT): HUGEINT );
  11. GenericUnaryAALoopR = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: REAL): REAL );
  12. GenericUnaryAALoopX = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: LONGREAL): LONGREAL );
  13. GenericUnaryAALoopZ = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: COMPLEX): COMPLEX );
  14. GenericUnaryAALoopLZ = PROCEDURE ( ladr, dadr, linc, dinc, len: Address; op: PROCEDURE(x: LONGCOMPLEX): LONGCOMPLEX );
  15. UnaryAALoop = PROCEDURE ( ladr, dadr, linc, dinc, len: Address );
  16. UnaryASLoop = PROCEDURE ( ladr, dadr, linc, len: Address );
  17. UnarySALoop = PROCEDURE ( ladr, dadr, dinc, len: Address );
  18. BinaryAAALoop = PROCEDURE ( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  19. BinaryASALoop = PROCEDURE ( ladr, radr, dadr, linc, dinc, len: Address );
  20. BinaryAASLoop = PROCEDURE ( ladr, radr, dadr, linc, rinc, len: Address );
  21. BinaryAABLoop = PROCEDURE ( ladr, radr, linc, rinc, len: Address ): BOOLEAN;
  22. BinaryASBLoop = PROCEDURE ( ladr, radr, linc, len: Address ): BOOLEAN;
  23. CONST
  24. debug = FALSE; (* warning: debug=true -> a lot of output is generated -> traps are not displayed in Oberon (Kernel overflow) *)
  25. statistics= FALSE;
  26. conservative=TRUE;
  27. ArrDataArrayOffset=16; (* offset of data in array with pointers *)
  28. AddressSize=SIZEOF(Address);
  29. MathPtrOffset=0*AddressSize;
  30. MathAdrOffset=1*AddressSize;
  31. MathFlagsOffset=2*AddressSize;
  32. MathDimOffset=3*AddressSize;
  33. MathElementSizeOffset=4*AddressSize;
  34. MathLenOffset=5*AddressSize;
  35. MathIncrOffset=6*AddressSize;
  36. GeometryMismatch = 400;
  37. DimensionMismatch=401;
  38. AllocationForbidden=402;
  39. TensorFlag = 0; RangeFlag = 1; TemporaryFlag = 2;
  40. down = 0; up = 1; (* memory copy modes *)
  41. (* flags for optimizations with small matricies and vectors (Alexey Morozov) *)
  42. SmallMatrixFlag = 3; (* flag for identification of a small matrix *)
  43. SmallVectorFlag = 3; (* flag for identification of a small vector *)
  44. Size2Flag = 4; (* size = 2 *)
  45. Size3Flag = 5; (* size = 3 *)
  46. Size4Flag = 6; (* size = 4 *)
  47. Size5Flag = 7; (* size = 5 *)
  48. Size6Flag = 8; (* size = 6 *)
  49. Size7Flag = 9; (* size = 7 *)
  50. Size8Flag = 10; (* size = 8 *)
  51. Mat2x2 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,Size2Flag});
  52. Mat3x3 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,Size3Flag});
  53. Mat4x4 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,Size4Flag});
  54. Mat5x5 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,Size5Flag});
  55. Mat6x6 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,Size6Flag});
  56. Mat7x7 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,Size7Flag});
  57. Mat8x8 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,Size8Flag});
  58. Vec2 = SYSTEM.VAL(LONGINT,{SmallVectorFlag,Size2Flag});
  59. Vec3 = SYSTEM.VAL(LONGINT,{SmallVectorFlag,Size3Flag});
  60. Vec4 = SYSTEM.VAL(LONGINT,{SmallVectorFlag,Size4Flag});
  61. Vec5 = SYSTEM.VAL(LONGINT,{SmallVectorFlag,Size5Flag});
  62. Vec6 = SYSTEM.VAL(LONGINT,{SmallVectorFlag,Size6Flag});
  63. Vec7 = SYSTEM.VAL(LONGINT,{SmallVectorFlag,Size7Flag});
  64. Vec8 = SYSTEM.VAL(LONGINT,{SmallVectorFlag,Size8Flag});
  65. MatVec2x2 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,SmallVectorFlag,Size2Flag});
  66. MatVec3x3 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,SmallVectorFlag,Size3Flag});
  67. MatVec4x4 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,SmallVectorFlag,Size4Flag});
  68. MatVec5x5 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,SmallVectorFlag,Size5Flag});
  69. MatVec6x6 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,SmallVectorFlag,Size6Flag});
  70. MatVec7x7 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,SmallVectorFlag,Size7Flag});
  71. MatVec8x8 = SYSTEM.VAL(LONGINT,{SmallMatrixFlag,SmallVectorFlag,Size8Flag});
  72. SmallArrayMask = {SmallMatrixFlag,SmallVectorFlag,Size2Flag,Size3Flag,Size4Flag,Size5Flag,Size6Flag,Size7Flag,Size8Flag};
  73. TYPE
  74. FastMatMul* = PROCEDURE ( matrixA, matrixB, matrixC, IncA, StrideA, IncB, StrideB, IncC, StrideC, RowsA, ColsA, RowsB, ColsB: LONGINT ): BOOLEAN;
  75. TransposeP* = PROCEDURE ( ladr, dadr, lstride, linc, dstride, dinc, rows, cols: LONGINT );
  76. LenInc = RECORD
  77. len: SIZE;
  78. inc: SIZE
  79. END;
  80. ArrayDescriptor*= RECORD
  81. ptr*: ANY;
  82. adr*: ADDRESS;
  83. flags*: SET;
  84. dim*: SIZE;
  85. elementSize*: SIZE;
  86. END;
  87. Tensor = POINTER TO ArrayDescriptor;
  88. UnsafeArray*= POINTER {UNSAFE} TO RECORD(ArrayDescriptor)
  89. lens*: ARRAY 8 OF LenInc;
  90. END;
  91. A0 = RECORD(ArrayDescriptor) END;
  92. A1 = RECORD(ArrayDescriptor) lens : ARRAY 1 OF LenInc; END;
  93. A2 = RECORD(ArrayDescriptor) lens : ARRAY 2 OF LenInc; END;
  94. A3 = RECORD(ArrayDescriptor) lens : ARRAY 3 OF LenInc; END;
  95. A4 = RECORD(ArrayDescriptor) lens : ARRAY 4 OF LenInc; END;
  96. A5 = RECORD(ArrayDescriptor) lens : ARRAY 5 OF LenInc; END;
  97. A6 = RECORD(ArrayDescriptor) lens : ARRAY 6 OF LenInc; END;
  98. A7 = RECORD(ArrayDescriptor) lens : ARRAY 7 OF LenInc; END;
  99. A8 = RECORD(ArrayDescriptor) lens : ARRAY 8 OF LenInc; END;
  100. T0 = POINTER TO A0;
  101. T1 = POINTER TO A1;
  102. T2 = POINTER TO A2;
  103. T3 = POINTER TO A3;
  104. T4 = POINTER TO A4;
  105. T5 = POINTER TO A5;
  106. T6 = POINTER TO A6;
  107. T7 = POINTER TO A7;
  108. T8 = POINTER TO A8;
  109. (* used for optimizations of MatMul with small sizes (Alexey Morozov) *)
  110. SmallMatMul* = PROCEDURE(dadr, ladr, radr: LONGINT);
  111. VAR
  112. alloc*: LONGINT; (* statistics *)
  113. allocTemp*: LONGINT; (* statistics *)
  114. (* procedures that might be replaced by ASM methods *)
  115. loopSPAXAX*, loopSPARAR*: BinaryAASLoop;
  116. loopSPAZAZ, loopSPALZALZ: BinaryAASLoop;
  117. loopAddAXAX*, loopAddARAR*, loopAddAZAZ*, loopAddALZALZ*: BinaryAAALoop;
  118. loopMatMulAXAX*, loopMatMulARAR*: BinaryAASLoop;
  119. loopMatMulIncAXAX*, loopMatMulIncARAR*: BinaryAASLoop;
  120. loopMulAXSX*, loopMulARSR*, loopMulAZSZ*, loopMulALZSLZ*: BinaryASALoop;
  121. loopIncMulAXSX*, loopIncMulARSR*: BinaryASALoop;
  122. matMulX*, matMulR*: FastMatMul; matMulIncX*, matMulIncR*: FastMatMul;
  123. transpose4*: TransposeP; transpose8*: TransposeP;
  124. (* optimizations for small arrays (Alexey Morozov) *)
  125. matMulR2x2*: SmallMatMul;
  126. matMulR3x3*: SmallMatMul;
  127. matMulR4x4*: SmallMatMul;
  128. matVecMulR2x2*: SmallMatMul;
  129. matVecMulR3x3*: SmallMatMul;
  130. matVecMulR4x4*: SmallMatMul;
  131. matMulLR2x2*: SmallMatMul;
  132. matMulLR3x3*: SmallMatMul;
  133. matMulLR4x4*: SmallMatMul;
  134. matVecMulLR2x2*: SmallMatMul;
  135. matVecMulLR3x3*: SmallMatMul;
  136. matVecMulLR4x4*: SmallMatMul;
  137. (*
  138. TensorTypePool: ARRAY 32 OF TensorType;
  139. *)
  140. PROCEDURE SetDefaults*; (* set standard procedures *)
  141. BEGIN
  142. KernelLog.String( "ArrayBase XXXXXXX: setting runtime library (semi-optimized) default methods." ); KernelLog.Ln; loopSPAXAX := SPAXAXLoop;
  143. loopSPARAR := SPARARLoop; loopAddAXAX := AddAXAXLoop;
  144. loopSPAZAZ := SPAZAZLoop; loopSPALZALZ := SPALZALZLoop;
  145. loopAddARAR := AddARARLoop; loopMatMulAXAX := MatMulAXAXLoop;
  146. loopAddAZAZ := AddAZAZLoop; loopAddALZALZ := AddALZALZLoop;
  147. loopMatMulIncAXAX := MatMulIncAXAXLoop;
  148. loopMatMulARAR := MatMulARARLoop; loopMulAXSX := MulAXSXLoop;
  149. loopIncMulAXSX := IncMulAXSXLoop;
  150. loopMatMulIncARAR := MatMulIncARARLoop;
  151. loopMulARSR := MulARSRLoop; loopIncMulARSR := IncMulARSRLoop;
  152. matMulX := NIL; matMulR := NIL; matMulIncX := NIL; matMulIncR := NIL;
  153. loopMulAZSZ := MulAZSZLoop;
  154. loopMulALZSLZ := MulALZSLZLoop;
  155. END SetDefaults;
  156. PROCEDURE Err(CONST s: ARRAY OF CHAR );
  157. BEGIN
  158. KernelLog.String( "Runtime Error: " ); KernelLog.String( s ); KernelLog.Ln; HALT( 100 );
  159. END Err;
  160. (* get increment of dimension dim *)
  161. PROCEDURE GetIncr(base,dim: Address): LONGINT;
  162. VAR result: LONGINT;
  163. BEGIN
  164. SYSTEM.GET(base+MathIncrOffset+8*dim,result);
  165. RETURN result
  166. END GetIncr;
  167. (* set increment of dimension dim *)
  168. PROCEDURE PutInc(base,dim,val: Address);
  169. BEGIN
  170. SYSTEM.PUT(base+MathIncrOffset+8*dim,val)
  171. END PutInc;
  172. (* get length of dimension dim *)
  173. PROCEDURE GetLen(base,dim: Address): LONGINT;
  174. VAR result: LONGINT;
  175. BEGIN
  176. SYSTEM.GET(base+MathLenOffset+8*dim,result);
  177. RETURN result
  178. END GetLen;
  179. (* set length of dimension dim *)
  180. PROCEDURE PutLen(base,dim,val: Address);
  181. BEGIN
  182. SYSTEM.PUT(base+MathLenOffset+8*dim,val)
  183. END PutLen;
  184. (* get data address *)
  185. PROCEDURE GetAdr(base: Address): Address;
  186. VAR result: LONGINT;
  187. BEGIN
  188. SYSTEM.GET(base+MathAdrOffset,result);
  189. RETURN result
  190. END GetAdr;
  191. (* set data address *)
  192. PROCEDURE PutAdr(base,value: Address);
  193. BEGIN
  194. SYSTEM.PUT(base+MathAdrOffset,value)
  195. END PutAdr;
  196. (* get data base pointer (GC protection) *)
  197. PROCEDURE GetPtr(base: Address): Address;
  198. VAR result: LONGINT;
  199. BEGIN
  200. SYSTEM.GET(base+MathPtrOffset,result);
  201. RETURN result
  202. END GetPtr;
  203. (* set data base pointer (GC protection) *)
  204. PROCEDURE PutPtr(base,value: Address);
  205. BEGIN
  206. SYSTEM.PUT(base+MathPtrOffset,value)
  207. END PutPtr;
  208. PROCEDURE GetSize( base: Address ): LONGINT;
  209. VAR dim: LONGINT;
  210. BEGIN
  211. IF base = 0 THEN RETURN 0 ELSE SYSTEM.GET( base + MathElementSizeOffset, dim ); RETURN dim; END;
  212. END GetSize;
  213. PROCEDURE PutSize( base: Address; dim: LONGINT );
  214. BEGIN
  215. SYSTEM.PUT( base + MathElementSizeOffset, dim );
  216. END PutSize;
  217. PROCEDURE GetDim( base: Address ): LONGINT;
  218. VAR dim: LONGINT;
  219. BEGIN
  220. IF base = 0 THEN RETURN 0 ELSE SYSTEM.GET( base + MathDimOffset, dim ); RETURN dim; END;
  221. END GetDim;
  222. PROCEDURE GetFlags( base: Address ): SET;
  223. VAR set: SET;
  224. BEGIN
  225. SYSTEM.GET( base + MathFlagsOffset, set );
  226. RETURN set;
  227. END GetFlags;
  228. PROCEDURE PutDim( base: Address; dim: LONGINT );
  229. BEGIN
  230. SYSTEM.PUT( base + MathDimOffset, dim );
  231. END PutDim;
  232. PROCEDURE PutFlags( base: Address; flags: SET );
  233. BEGIN
  234. SYSTEM.PUT( base + MathFlagsOffset, flags );
  235. END PutFlags;
  236. (* report geometry of array passed via address s *)
  237. PROCEDURE Report(CONST name: ARRAY OF CHAR; s: LONGINT );
  238. VAR i: LONGINT; dim: LONGINT;
  239. PROCEDURE Set( s: SET );
  240. VAR i: LONGINT; first: BOOLEAN;
  241. BEGIN
  242. KernelLog.String( "{" ); first := TRUE;
  243. FOR i := 31 TO 0 BY -1 DO
  244. IF i IN s THEN
  245. IF ~first THEN KernelLog.String( "," ); ELSE first := FALSE END;
  246. KernelLog.Int( i, 1 );
  247. END;
  248. END;
  249. KernelLog.String( "}" );
  250. END Set;
  251. BEGIN
  252. KernelLog.String( name );
  253. IF s = 0 THEN KernelLog.String( " : NIL " ); KernelLog.Ln;
  254. ELSE
  255. KernelLog.String( " at adr " ); KernelLog.Int( s, 1 ); KernelLog.String( "; ptr= " );
  256. KernelLog.Int( GetPtr( s ), 1 ); KernelLog.String( "; adr= " );
  257. KernelLog.Int( GetAdr( s ), 1 ); KernelLog.String( "; dim=" );
  258. KernelLog.Int( GetDim( s ), 1 ); KernelLog.String( "; flags=" ); Set( GetFlags( s ) );
  259. KernelLog.Ln; dim := GetDim( s );
  260. IF dim > 32 THEN dim := 0 END;
  261. FOR i := 0 TO dim - 1 DO
  262. KernelLog.String( "dim (rev)=" ); KernelLog.Int( i, 1 ); KernelLog.String( ", len=" );
  263. KernelLog.Int( GetLen( s, i ), 1 ); KernelLog.String( ", inc=" );
  264. KernelLog.Int( GetIncr( s, i ), 1 ); KernelLog.Ln;
  265. END;
  266. (*
  267. FindPattern1( s, dim, ldim, len, inc ); KernelLog.String( "increment: " );
  268. KernelLog.Int( inc, 10 ); KernelLog.Ln; KernelLog.String( "longest dim:" ); KernelLog.Int( ldim, 10 );
  269. KernelLog.Ln; KernelLog.String( "len:" ); KernelLog.Int( len, 10 ); KernelLog.Ln;
  270. *)
  271. END;
  272. END Report;
  273. PROCEDURE GetArrayDesc( dim: LONGINT ): ANY;
  274. VAR (* t: TensorType; *) ptr: Tensor;
  275. p0: T0;
  276. p1: T1; p2: T2; p3: T3; p4: T4; p5: T5; p6: T6; p7: T7; p8: T8;
  277. BEGIN
  278. (*
  279. IF dim < LEN( TensorTypePool ) THEN t := TensorTypePool[dim]
  280. ELSE NewTensorType( dim, t );
  281. END;
  282. Heaps.NewRec( ptr, t.tag );
  283. *)
  284. CASE dim OF
  285. |0: NEW(p0); ptr := p0;
  286. |1:NEW(p1); ptr := p1;
  287. |2:NEW(p2); ptr := p2;
  288. |3:NEW(p3); ptr := p3;
  289. |4:NEW(p4); ptr := p4;
  290. |5:NEW(p5); ptr := p5;
  291. |6:NEW(p6); ptr := p6;
  292. |7:NEW(p7); ptr := p7;
  293. |8:NEW(p8); ptr := p8;
  294. ELSE
  295. HALT(200)
  296. END;
  297. ptr.dim := dim;
  298. ptr.flags := {TensorFlag};
  299. RETURN ptr;
  300. END GetArrayDesc;
  301. PROCEDURE Halt( code: LONGINT; left, right, dest: LONGINT );
  302. VAR reason: ARRAY 64 OF CHAR;
  303. BEGIN
  304. IF left # 0 THEN Report( "Source operand ", left ) END;
  305. IF right # 0 THEN Report( "Source operand 2 ", right ) END;
  306. IF dest # 0 THEN Report( "Dest operand ", dest ) END;
  307. IF code = GeometryMismatch THEN reason := "Geometry mismatch";
  308. ELSIF code = DimensionMismatch THEN reason := "Dimension mismatch";
  309. ELSIF code = AllocationForbidden THEN reason := "Allocation forbidden for dest";
  310. ELSE reason := "unknown";
  311. END;
  312. KernelLog.String( "ArrayBase Halt. Reason= " ); KernelLog.String( reason ); KernelLog.Ln;
  313. HALT( 400 );
  314. END Halt;
  315. (** patterns ********************************************************************)
  316. (* find the largest block with a regular pattern of the form offset+{i*li: 0<=i<len}. d is dimension applying to the resulting loop *)
  317. PROCEDURE FindPattern1( left, dim: Address; VAR d, len, linc: LONGINT );
  318. BEGIN
  319. d := dim - 1; len := GetLen( left, d );
  320. WHILE (len = 1) & (d > 0) DO DEC( d ); len := GetLen( left, d );
  321. END; (* skip lower dimensions with len=1, in most cases d=0 *)
  322. linc := GetIncr( left, d ); DEC( d );
  323. WHILE (d >= 0) & (GetIncr( left, d ) = len * linc) DO
  324. len := len * GetLen( left, d ); DEC( d );
  325. END; (* find dimension where pattern does not work any more *)
  326. INC( d );
  327. IF debug THEN
  328. KernelLog.String( "FindPattern1: " ); KernelLog.Int( len, 10 ); KernelLog.Int( linc, 10 );
  329. KernelLog.Ln;
  330. END;
  331. END FindPattern1;
  332. (* find the largest block with a regular pattern of the form offset+{i*linc: 0<=i<len} for two arrays simultaneously. d is dimension applying to the resulting loop *)
  333. PROCEDURE FindPattern2( left, right: Address; dim: LONGINT;
  334. VAR d, len, linc, ri: LONGINT );
  335. (* geometric precondition: lengths must coincide *)
  336. BEGIN
  337. d := dim - 1; len := GetLen( left, d ); ASSERT( len = GetLen( right, d ) );
  338. WHILE (len = 1) & (d > 0) DO DEC( d ); len := GetLen( left, d ); END;
  339. linc := GetIncr( left, d ); ri := GetIncr( right, d ); DEC( d );
  340. WHILE (d >= 0) & (GetIncr( left, d ) = len * linc) & (GetIncr( right, d ) = len * ri) DO
  341. len := len * GetLen( left, d ); DEC( d );
  342. END;
  343. INC( d );
  344. IF debug THEN
  345. KernelLog.String( "FindPattern2: " ); KernelLog.Int( d, 10 ); KernelLog.Int( len, 10 );
  346. KernelLog.Int( linc, 10 ); KernelLog.Int( ri, 10 ); KernelLog.Ln;
  347. END;
  348. END FindPattern2;
  349. (* find the largest block with a regular pattern of the form offset+{i*linc: 0<=i<len} for three arrays simultaneously. d is dimension applying to the resulting loop *)
  350. PROCEDURE FindPattern3( left, right, dest: Address; dim: LONGINT;
  351. VAR d, len, linc, ri, di: LONGINT );
  352. (* geometric precondition: lengths must coincide *)
  353. BEGIN
  354. d := dim - 1; len := GetLen( left, d );
  355. WHILE (len = 1) & (d > 0) DO DEC( d ); len := GetLen( left, d );
  356. END;
  357. linc := GetIncr( left, d ); ri := GetIncr( right, d ); di := GetIncr( dest, d );
  358. DEC( d );
  359. WHILE (d >= 0) & (GetIncr( left, d ) = len * linc) &
  360. (GetIncr( right, d ) = len * ri) & (GetIncr( dest, d ) = len * di) DO
  361. len := len * GetLen( left, d ); DEC( d );
  362. END;
  363. INC( d );
  364. IF debug THEN
  365. KernelLog.String( "FindPattern3: " ); KernelLog.Int( len, 10 ); KernelLog.Int( linc, 10 );
  366. KernelLog.Int( ri, 10 ); KernelLog.Int( di, 10 ); KernelLog.Ln;
  367. END;
  368. END FindPattern3;
  369. PROCEDURE Reverse( src: Address; dim: LONGINT );
  370. VAR d, sl, sr: LONGINT;
  371. BEGIN
  372. d := 0; sl := GetAdr( src );
  373. WHILE (d < dim) DO
  374. INC( sr, GetIncr( src, d ) * (GetLen( src, d ) - 1) );
  375. PutInc( src, d, -GetIncr( src, d ) ); INC( d );
  376. END;
  377. PutAdr( src, sl + sr );
  378. END Reverse;
  379. (* check if forward copy may be performed *)
  380. PROCEDURE CopyUpCompatible( dest, src: Address; VAR modes: SET );
  381. VAR d, sl, sr, dl, dr: LONGINT; dim: LONGINT;
  382. (* precondition: len(src,i)=len(dest,i) *)
  383. (* for forward src -> dest copy compatibility src must not be overwritten before src is copied.
  384. Sufficient (but not necessary) conditions:
  385. 1.) no overlap: src right < dest left or src left > dest right or
  386. 2.) same geometry and src left >= dest left
  387. same geometry if ginc(s)=ginc(d) with
  388. ginc(s)=inc(s,0)*len(s,0)+inc(s,1)*len(s,1)+...
  389. ginc(d)=inc(d,0)*len(d,0)+inc(d,1)*len(d,1)+...
  390. *)
  391. BEGIN
  392. d := 0; sl := GetAdr( src ); sr := sl; dl := GetAdr( dest ); dr := dl;
  393. dim := GetDim( src );
  394. WHILE (d < dim) DO
  395. INC( sr, GetIncr( src, d ) * (GetLen( src, d ) - 1) );
  396. INC( dr, GetIncr( dest, d ) * (GetLen( dest, d ) - 1) ); INC( d );
  397. END;
  398. IF (sr < dl) OR (sl > dr) THEN (* no overlap, both directions possible *)
  399. ELSIF ((sr - sl) = (dr - dl)) THEN
  400. IF (sl = dl) THEN (* same memory region, both directions possible *)
  401. ELSIF (sl > dl) THEN
  402. EXCL( modes, down ) (* only copy up possible *)
  403. ELSE (*sl < dl*)
  404. EXCL( modes, up ) (* only copy down possible *)
  405. END;
  406. ELSE
  407. modes := modes - {down, up}; (* neither nor *)
  408. END;
  409. END CopyUpCompatible;
  410. PROCEDURE AllocateTemp( VAR dest: Address; src: Address;
  411. Size: LONGINT ): ANY;
  412. (* allocate a temporary block containing both descriptor and data *)
  413. VAR d, len, i: LONGINT; p: ANY; dim: LONGINT;
  414. BEGIN
  415. IF statistics THEN INC( allocTemp ) END;
  416. d := 0; len := Size; dim := GetDim( src );
  417. WHILE (d < dim) DO len := len * GetLen( src, d ); INC( d ); END;
  418. INC( len, 2 * dim * SIZEOF( LONGINT ) + MathLenOffset ); SYSTEM.NEW( p, len );
  419. dest := SYSTEM.VAL( LONGINT, p );
  420. PutAdr( dest, dest + dim * 2 * SIZEOF( LONGINT ) + MathLenOffset );
  421. PutPtr( dest, dest ); PutDim( dest, dim ); len := Size;
  422. FOR i := 0 TO dim - 1 DO
  423. PutInc( dest, i, len ); PutLen( dest, i, GetLen( src, i ) );
  424. len := len * GetLen( src, i );
  425. END;
  426. (* Report("allocdest",dest,dim); *)
  427. RETURN p;
  428. END AllocateTemp;
  429. (*** procedures to traverse arrays and apply operators *)
  430. (** apply unary operator to array: array SHORTINT -> array SHORTINT *)
  431. PROCEDURE ApplyGenericUnaryAAOpS( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopS; op: PROCEDURE(x: SHORTINT): SHORTINT );
  432. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  433. origdest: LONGINT; modes: SET;
  434. dest, left, dim: LONGINT;
  435. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  436. VAR len: LONGINT; linc, dinc: LONGINT;
  437. BEGIN
  438. IF dim = loopd THEN
  439. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  440. IF conservative THEN INC( glen, looplen ) END;
  441. ELSE
  442. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  443. dinc := GetIncr( dest, dim ); INC( dim );
  444. WHILE (len > 0) DO
  445. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  446. END;
  447. END;
  448. END Traverse;
  449. BEGIN
  450. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  451. origdest := 0; modes := {up, down};
  452. (* allocate destination, if necessary *)
  453. p := AllocateSame( dest, left, elementSize );
  454. IF p = NIL THEN
  455. CopyUpCompatible( dest, left, modes );
  456. IF up IN modes THEN (* nothing to be done *)
  457. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  458. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  459. END;
  460. END;
  461. (* allocate destination, if necessary *)
  462. (*IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  463. ELSIF CheckGeometry( left, dest, dim )
  464. END; *)
  465. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  466. (* check pattern: longest piece that can be done with a loop *)
  467. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  468. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  469. IF up IN modes THEN (* nothing to be done *)
  470. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  471. ELSE CopyContent( origdest, dest, elementSize );
  472. END;
  473. SYSTEM.PUT( d, dest );
  474. END ApplyGenericUnaryAAOpS;
  475. (** apply unary operator to array: array INTEGER -> array INTEGER *)
  476. PROCEDURE ApplyGenericUnaryAAOpI( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopI; op: PROCEDURE(x: INTEGER): INTEGER );
  477. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  478. origdest: LONGINT; modes: SET;
  479. dest, left, dim: LONGINT;
  480. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  481. VAR len: LONGINT; linc, dinc: LONGINT;
  482. BEGIN
  483. IF dim = loopd THEN
  484. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  485. IF conservative THEN INC( glen, looplen ) END;
  486. ELSE
  487. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  488. dinc := GetIncr( dest, dim ); INC( dim );
  489. WHILE (len > 0) DO
  490. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  491. END;
  492. END;
  493. END Traverse;
  494. BEGIN
  495. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  496. origdest := 0; modes := {up, down};
  497. (* allocate destination, if necessary *)
  498. p := AllocateSame( dest, left, elementSize );
  499. IF p = NIL THEN
  500. CopyUpCompatible( dest, left, modes );
  501. IF up IN modes THEN (* nothing to be done *)
  502. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  503. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  504. END;
  505. END;
  506. (* allocate destination, if necessary *)
  507. (*IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  508. ELSIF CheckGeometry( left, dest, dim )
  509. END; *)
  510. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  511. (* check pattern: longest piece that can be done with a loop *)
  512. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  513. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  514. IF up IN modes THEN (* nothing to be done *)
  515. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  516. ELSE CopyContent( origdest, dest, elementSize );
  517. END;
  518. SYSTEM.PUT( d, dest );
  519. END ApplyGenericUnaryAAOpI;
  520. (** apply unary operator to array: array LONGINT -> array LONGINT *)
  521. PROCEDURE ApplyGenericUnaryAAOpL( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopL; op: PROCEDURE(x: LONGINT): LONGINT );
  522. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  523. origdest: LONGINT; modes: SET;
  524. dest, left, dim: LONGINT;
  525. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  526. VAR len: LONGINT; linc, dinc: LONGINT;
  527. BEGIN
  528. IF dim = loopd THEN
  529. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  530. IF conservative THEN INC( glen, looplen ) END;
  531. ELSE
  532. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  533. dinc := GetIncr( dest, dim ); INC( dim );
  534. WHILE (len > 0) DO
  535. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  536. END;
  537. END;
  538. END Traverse;
  539. BEGIN
  540. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  541. origdest := 0; modes := {up, down};
  542. (* allocate destination, if necessary *)
  543. p := AllocateSame( dest, left, elementSize );
  544. IF p = NIL THEN
  545. CopyUpCompatible( dest, left, modes );
  546. IF up IN modes THEN (* nothing to be done *)
  547. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  548. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  549. END;
  550. END;
  551. (* allocate destination, if necessary *)
  552. (*IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  553. ELSIF CheckGeometry( left, dest, dim )
  554. END; *)
  555. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  556. (* check pattern: longest piece that can be done with a loop *)
  557. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  558. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  559. IF up IN modes THEN (* nothing to be done *)
  560. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  561. ELSE CopyContent( origdest, dest, elementSize );
  562. END;
  563. SYSTEM.PUT( d, dest );
  564. END ApplyGenericUnaryAAOpL;
  565. (** apply unary operator to array: array HUGEINT -> array HUGEINT *)
  566. PROCEDURE ApplyGenericUnaryAAOpH( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopH; op: PROCEDURE(x: HUGEINT): HUGEINT );
  567. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  568. origdest: LONGINT; modes: SET;
  569. VAR dest, left, dim: LONGINT;
  570. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  571. VAR len: LONGINT; linc, dinc: LONGINT;
  572. BEGIN
  573. IF dim = loopd THEN
  574. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  575. IF conservative THEN INC( glen, looplen ) END;
  576. ELSE
  577. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  578. dinc := GetIncr( dest, dim ); INC( dim );
  579. WHILE (len > 0) DO
  580. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc );
  581. DEC( len );
  582. END;
  583. END;
  584. END Traverse;
  585. BEGIN
  586. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  587. origdest := 0; modes := {up, down};
  588. (* allocate destination, if necessary *)
  589. p := AllocateSame( dest, left, elementSize );
  590. IF p = NIL THEN
  591. CopyUpCompatible( dest, left, modes );
  592. IF up IN modes THEN (* nothing to be done *)
  593. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  594. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  595. END;
  596. END;
  597. (*
  598. (* allocate destination, if necessary *)
  599. IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  600. ELSIF CheckGeometry( left, dest, dim )
  601. END;
  602. *)
  603. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  604. (* check pattern: longest piece that can be done with a loop *)
  605. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  606. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  607. IF up IN modes THEN (* nothing to be done *)
  608. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  609. ELSE CopyContent( origdest, dest, elementSize );
  610. END;
  611. SYSTEM.PUT( d, dest );
  612. END ApplyGenericUnaryAAOpH;
  613. (** apply unary operator to array: array REAL -> array REAL *)
  614. PROCEDURE ApplyGenericUnaryAAOpR( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopR; op: PROCEDURE(x: REAL): REAL );
  615. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  616. origdest: LONGINT; modes: SET;
  617. dest, left, dim: LONGINT;
  618. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  619. VAR len: LONGINT; linc, dinc: LONGINT;
  620. BEGIN
  621. IF dim = loopd THEN
  622. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  623. IF conservative THEN INC( glen, looplen ) END;
  624. ELSE
  625. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  626. dinc := GetIncr( dest, dim ); INC( dim );
  627. WHILE (len > 0) DO
  628. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  629. END;
  630. END;
  631. END Traverse;
  632. BEGIN
  633. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  634. origdest := 0; modes := {up, down};
  635. (* allocate destination, if necessary *)
  636. p := AllocateSame( dest, left, elementSize );
  637. IF p = NIL THEN
  638. CopyUpCompatible( dest, left, modes );
  639. IF up IN modes THEN (* nothing to be done *)
  640. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  641. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  642. END;
  643. END;
  644. (* allocate destination, if necessary *)
  645. (*IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  646. ELSIF CheckGeometry( left, dest, dim )
  647. END; *)
  648. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  649. (* check pattern: longest piece that can be done with a loop *)
  650. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  651. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  652. IF up IN modes THEN (* nothing to be done *)
  653. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  654. ELSE CopyContent( origdest, dest, elementSize );
  655. END;
  656. SYSTEM.PUT( d, dest );
  657. END ApplyGenericUnaryAAOpR;
  658. (** apply unary operator to array: array LONGREAL -> array LONGREAL *)
  659. PROCEDURE ApplyGenericUnaryAAOpX( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopX; op: PROCEDURE(x: LONGREAL): LONGREAL );
  660. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  661. origdest: LONGINT; modes: SET;
  662. VAR dest, left, dim: LONGINT;
  663. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  664. VAR len: LONGINT; linc, dinc: LONGINT;
  665. BEGIN
  666. IF dim = loopd THEN
  667. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  668. IF conservative THEN INC( glen, looplen ) END;
  669. ELSE
  670. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  671. dinc := GetIncr( dest, dim ); INC( dim );
  672. WHILE (len > 0) DO
  673. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc );
  674. DEC( len );
  675. END;
  676. END;
  677. END Traverse;
  678. BEGIN
  679. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  680. origdest := 0; modes := {up, down};
  681. (* allocate destination, if necessary *)
  682. p := AllocateSame( dest, left, elementSize );
  683. IF p = NIL THEN
  684. CopyUpCompatible( dest, left, modes );
  685. IF up IN modes THEN (* nothing to be done *)
  686. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  687. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  688. END;
  689. END;
  690. (*
  691. (* allocate destination, if necessary *)
  692. IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  693. ELSIF CheckGeometry( left, dest, dim )
  694. END;
  695. *)
  696. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  697. (* check pattern: longest piece that can be done with a loop *)
  698. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  699. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  700. IF up IN modes THEN (* nothing to be done *)
  701. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  702. ELSE CopyContent( origdest, dest, elementSize );
  703. END;
  704. SYSTEM.PUT( d, dest );
  705. END ApplyGenericUnaryAAOpX;
  706. (** apply unary operator to array: array COMPLEX -> array COMPLEX *)
  707. PROCEDURE ApplyGenericUnaryAAOpZ( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopZ; op: PROCEDURE(x: COMPLEX): COMPLEX );
  708. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  709. origdest: LONGINT; modes: SET;
  710. VAR dest, left, dim: LONGINT;
  711. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  712. VAR len: LONGINT; linc, dinc: LONGINT;
  713. BEGIN
  714. IF dim = loopd THEN
  715. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  716. IF conservative THEN INC( glen, looplen ) END;
  717. ELSE
  718. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  719. dinc := GetIncr( dest, dim ); INC( dim );
  720. WHILE (len > 0) DO
  721. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc );
  722. DEC( len );
  723. END;
  724. END;
  725. END Traverse;
  726. BEGIN
  727. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  728. origdest := 0; modes := {up, down};
  729. (* allocate destination, if necessary *)
  730. p := AllocateSame( dest, left, elementSize );
  731. IF p = NIL THEN
  732. CopyUpCompatible( dest, left, modes );
  733. IF up IN modes THEN (* nothing to be done *)
  734. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  735. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  736. END;
  737. END;
  738. (*
  739. (* allocate destination, if necessary *)
  740. IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  741. ELSIF CheckGeometry( left, dest, dim )
  742. END;
  743. *)
  744. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  745. (* check pattern: longest piece that can be done with a loop *)
  746. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  747. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  748. IF up IN modes THEN (* nothing to be done *)
  749. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  750. ELSE CopyContent( origdest, dest, elementSize );
  751. END;
  752. SYSTEM.PUT( d, dest );
  753. END ApplyGenericUnaryAAOpZ;
  754. (** apply unary operator to array: array LONGCOMPLEX -> array LONGCOMPLEX *)
  755. PROCEDURE ApplyGenericUnaryAAOpLZ( d, l: Address; elementSize: LONGINT; Loop: GenericUnaryAALoopLZ; op: PROCEDURE(x: LONGCOMPLEX): LONGCOMPLEX );
  756. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  757. origdest: LONGINT; modes: SET;
  758. VAR dest, left, dim: LONGINT;
  759. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  760. VAR len: LONGINT; linc, dinc: LONGINT;
  761. BEGIN
  762. IF dim = loopd THEN
  763. Loop( ladr, dadr, loopli, loopdi, looplen, op );
  764. IF conservative THEN INC( glen, looplen ) END;
  765. ELSE
  766. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  767. dinc := GetIncr( dest, dim ); INC( dim );
  768. WHILE (len > 0) DO
  769. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc );
  770. DEC( len );
  771. END;
  772. END;
  773. END Traverse;
  774. BEGIN
  775. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  776. origdest := 0; modes := {up, down};
  777. (* allocate destination, if necessary *)
  778. p := AllocateSame( dest, left, elementSize );
  779. IF p = NIL THEN
  780. CopyUpCompatible( dest, left, modes );
  781. IF up IN modes THEN (* nothing to be done *)
  782. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  783. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  784. END;
  785. END;
  786. (*
  787. (* allocate destination, if necessary *)
  788. IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  789. ELSIF CheckGeometry( left, dest, dim )
  790. END;
  791. *)
  792. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  793. (* check pattern: longest piece that can be done with a loop *)
  794. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  795. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  796. IF up IN modes THEN (* nothing to be done *)
  797. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  798. ELSE CopyContent( origdest, dest, elementSize );
  799. END;
  800. SYSTEM.PUT( d, dest );
  801. END ApplyGenericUnaryAAOpLZ;
  802. (** apply unary operator to array: array -> array *)
  803. PROCEDURE ApplyUnaryAAOp( d, l: Address; elementSize: LONGINT;
  804. Loop: UnaryAALoop );
  805. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  806. origdest: LONGINT; modes: SET;
  807. VAR dest, left, dim: LONGINT;
  808. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  809. VAR len: LONGINT; linc, dinc: LONGINT;
  810. BEGIN
  811. IF dim = loopd THEN
  812. Loop( ladr, dadr, loopli, loopdi, looplen );
  813. IF conservative THEN INC( glen, looplen ) END;
  814. ELSE
  815. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  816. dinc := GetIncr( dest, dim ); INC( dim );
  817. WHILE (len > 0) DO
  818. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc );
  819. DEC( len );
  820. END;
  821. END;
  822. END Traverse;
  823. BEGIN
  824. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  825. origdest := 0; modes := {up, down};
  826. (* allocate destination, if necessary *)
  827. p := AllocateSame( dest, left, elementSize );
  828. IF p = NIL THEN
  829. CopyUpCompatible( dest, left, modes );
  830. IF up IN modes THEN (* nothing to be done *)
  831. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  832. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  833. END;
  834. END;
  835. (*
  836. (* allocate destination, if necessary *)
  837. IF GetAdr( dest ) = -1 THEN p := Allocate( left, dest, dim, elementSize )
  838. ELSIF CheckGeometry( left, dest, dim )
  839. END;
  840. *)
  841. IF debug THEN Report( "AA: left", left ); Report( "AA: dest", dest ); END;
  842. (* check pattern: longest piece that can be done with a loop *)
  843. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  844. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  845. IF up IN modes THEN (* nothing to be done *)
  846. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  847. ELSE CopyContent( origdest, dest, elementSize );
  848. END;
  849. SYSTEM.PUT( d, dest );
  850. END ApplyUnaryAAOp;
  851. (** apply unary operator to array: array -> scalar *)
  852. PROCEDURE ApplyUnaryASOp( dest, l: Address; Loop: UnaryASLoop );
  853. VAR loopd, looplen, loopli: LONGINT; glen: LONGINT;
  854. VAR left, dim: LONGINT;
  855. PROCEDURE Traverse( dim: LONGINT; ladr: Address );
  856. VAR len: LONGINT; linc: LONGINT;
  857. BEGIN
  858. IF dim = loopd THEN
  859. Loop( ladr, dest, loopli, looplen );
  860. IF conservative THEN INC( glen, looplen ) END;
  861. ELSE
  862. len := GetLen( left, dim ); linc := GetIncr( left, dim ); INC( dim );
  863. WHILE (len > 0) DO Traverse( dim, ladr ); INC( ladr, linc ); DEC( len ); END;
  864. END;
  865. END Traverse;
  866. BEGIN
  867. SYSTEM.GET( l, left ); dim := GetDim( left );
  868. IF debug THEN Report( "AS: left", left ); END;
  869. (* check pattern: longest piece that can be done with a loop *)
  870. IF conservative THEN glen := 0 END;
  871. FindPattern1( left, dim, loopd, looplen, loopli ); Traverse( 0, GetAdr( left ) );
  872. IF conservative THEN
  873. looplen := 1;
  874. WHILE (dim > 0) DO
  875. looplen := looplen * GetLen( left, dim - 1 ); DEC( dim );
  876. END;
  877. ASSERT( looplen = glen );
  878. END;
  879. END ApplyUnaryASOp;
  880. (** apply unary operator to array: scalar -> array *)
  881. PROCEDURE ApplyUnarySAOp( d, right: Address; Loop: UnarySALoop );
  882. VAR loopd, looplen, loopdi: LONGINT; glen: LONGINT;
  883. VAR dest, dim: LONGINT;
  884. PROCEDURE Traverse( dim: LONGINT; dadr: Address );
  885. VAR len: LONGINT; dinc: LONGINT;
  886. BEGIN
  887. IF dim = loopd THEN
  888. Loop( right, dadr, loopdi, looplen );
  889. IF conservative THEN INC( glen, looplen ) END;
  890. ELSE
  891. len := GetLen( dest, dim ); dinc := GetIncr( dest, dim ); INC( dim );
  892. WHILE (len > 0) DO Traverse( dim, dadr ); INC( dadr, dinc ); DEC( len ); END;
  893. END;
  894. END Traverse;
  895. BEGIN
  896. SYSTEM.GET( d, dest ); dim := GetDim( dest );
  897. IF debug THEN Report( "AS: dest", dest ); END;
  898. (* check pattern: longest piece that can be done with a loop *)
  899. IF conservative THEN glen := 0 END;
  900. FindPattern1( dest, dim, loopd, looplen, loopdi ); Traverse( 0, GetAdr( dest ) );
  901. IF conservative THEN
  902. looplen := 1;
  903. WHILE (dim > 0) DO
  904. looplen := looplen * GetLen( dest, dim - 1 ); DEC( dim );
  905. END;
  906. ASSERT( looplen = glen );
  907. END;
  908. END ApplyUnarySAOp;
  909. (** apply binary operator : array x array -> array *)
  910. PROCEDURE ApplyBinaryAAAOp( d, l, r: Address; elementSize: LONGINT;
  911. Loop: BinaryAAALoop );
  912. VAR loopd, looplen, loopli, loopri, loopdi: LONGINT; p: ANY; glen: LONGINT;
  913. origdest: LONGINT; modes: SET; left, right, dest: Address; dim: LONGINT;
  914. PROCEDURE Traverse( dim: LONGINT; ladr, radr, dadr: Address );
  915. VAR len: LONGINT; linc, rinc, dinc: LONGINT;
  916. BEGIN
  917. IF dim = loopd THEN
  918. Loop( ladr, radr, dadr, loopli, loopri, loopdi, looplen );
  919. IF conservative THEN INC( glen, looplen ) END;
  920. ELSE
  921. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  922. rinc := GetIncr( right, dim ); dinc := GetIncr( dest, dim ); INC( dim );
  923. WHILE (len > 0) DO
  924. Traverse( dim, ladr, radr, dadr ); INC( ladr, linc ); INC( radr, rinc );
  925. INC( dadr, dinc ); DEC( len );
  926. END;
  927. END;
  928. END Traverse;
  929. BEGIN
  930. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); SYSTEM.GET( r, right ); dim := GetDim( left );
  931. (* allocate destination, if necessary *)
  932. IF ~SameShape( left, right ) THEN
  933. Halt( GeometryMismatch, left, right, 0 )
  934. END;
  935. origdest := 0; modes := {up, down};
  936. p := AllocateSame( dest, left, elementSize );
  937. IF p = NIL THEN
  938. CopyUpCompatible( dest, left, modes );
  939. CopyUpCompatible( dest, right, modes );
  940. IF up IN modes THEN (* nothing to be done *)
  941. ELSIF down IN modes THEN
  942. Reverse( left, dim ); Reverse( dest, dim ); Reverse( right, dim );
  943. ELSE
  944. origdest := dest; p := AllocateTemp( dest, origdest, elementSize ); (* 1d field ? *)
  945. END;
  946. END;
  947. (* debugging *)
  948. IF debug THEN Report( "AAA:left", left ); Report( "AAA:right", right ); Report( "AAA:dest", dest ); END;
  949. (* check pattern: longest piece that can be done with a loop *)
  950. FindPattern3( left, right, dest, dim, loopd, looplen, loopli, loopri, loopdi );
  951. (* run through dimensions *)
  952. Traverse( 0, GetAdr( left ), GetAdr( right ), GetAdr( dest ) );
  953. IF up IN modes THEN (* nothing to be done *)
  954. ELSIF down IN modes THEN
  955. Reverse( left, dim ); Reverse( dest, dim ); Reverse( right, dim );
  956. ELSE CopyContent( origdest, dest, elementSize );
  957. END;
  958. SYSTEM.PUT( d, dest );
  959. END ApplyBinaryAAAOp;
  960. (** apply binary operator: array x scalar -> array *)
  961. PROCEDURE ApplyBinaryASAOp( d, l, right: Address;
  962. elementSize: LONGINT;
  963. Loop: BinaryASALoop );
  964. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  965. origdest: LONGINT; modes: SET; dest, left, dim: LONGINT;
  966. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  967. VAR len: LONGINT; linc, dinc: LONGINT;
  968. BEGIN
  969. IF dim = loopd THEN
  970. Loop( ladr, right, dadr, loopli, loopdi, looplen );
  971. IF conservative THEN INC( glen, looplen ) END;
  972. ELSE
  973. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  974. dinc := GetIncr( dest, dim ); INC( dim );
  975. WHILE (len > 0) DO
  976. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc );
  977. DEC( len );
  978. END;
  979. END;
  980. END Traverse;
  981. BEGIN
  982. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); dim := GetDim( left );
  983. (* allocate destination, if necessary *)
  984. origdest := 0; modes := {up, down};
  985. p := AllocateSame( dest, left, elementSize );
  986. IF p = NIL THEN
  987. CopyUpCompatible( dest, left, modes );
  988. IF up IN modes THEN (* nothing to be done *)
  989. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  990. ELSE origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  991. END;
  992. END;
  993. (* debugging *)
  994. IF debug THEN Report( "ASA:left", left ); Report( "ASA:dest", dest ); END;
  995. (* check pattern: longest piece that can be done with a loop *)
  996. FindPattern2( left, dest, dim, loopd, looplen, loopli, loopdi );
  997. (* run through dimensions *)
  998. IF conservative THEN glen := 0 END;
  999. Traverse( 0, GetAdr( left ), GetAdr( dest ) );
  1000. IF conservative THEN
  1001. looplen := 1;
  1002. WHILE (dim > 0) DO
  1003. looplen := looplen * GetLen( left, dim - 1 ); DEC( dim );
  1004. END;
  1005. ASSERT( looplen = glen );
  1006. END;
  1007. IF up IN modes THEN (* nothing to be done *)
  1008. ELSIF down IN modes THEN Reverse( left, dim ); Reverse( dest, dim )
  1009. ELSE CopyContent( origdest, dest, elementSize );
  1010. END;
  1011. SYSTEM.PUT( d, dest );
  1012. END ApplyBinaryASAOp;
  1013. (** apply binary operator: array x array -> scalar *)
  1014. PROCEDURE ApplyBinaryAASOp( dest, l, r: Address; Loop: BinaryAASLoop );
  1015. VAR loopd, looplen, loopli, loopri: LONGINT; glen: LONGINT;
  1016. left, right, dim: LONGINT;
  1017. PROCEDURE Traverse( dim: LONGINT; ladr, radr: Address );
  1018. VAR len: LONGINT; linc, rinc: LONGINT;
  1019. BEGIN
  1020. IF dim = loopd THEN
  1021. Loop( ladr, radr, dest, loopli, loopri, looplen );
  1022. IF conservative THEN INC( glen, looplen ) END;
  1023. ELSE
  1024. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  1025. rinc := GetIncr( right, dim ); INC( dim );
  1026. WHILE (len > 0) DO
  1027. Traverse( dim, ladr, radr ); INC( ladr, linc ); INC( radr, rinc );
  1028. DEC( len );
  1029. END;
  1030. END;
  1031. END Traverse;
  1032. BEGIN
  1033. SYSTEM.GET( l, left ); SYSTEM.GET( r, right ); dim := GetDim( left );
  1034. (* check array lengths *)
  1035. IF ~SameShape( left, right ) THEN
  1036. Halt( GeometryMismatch, left, right, 0 )
  1037. END;
  1038. IF debug THEN Report( "AAS:left", left ); Report( "AAS:right", right ); END;
  1039. (* check pattern: longest piece that can be done with a loop *)
  1040. FindPattern2( left, right, dim, loopd, looplen, loopli, loopri );
  1041. (* run through dimensions *)
  1042. IF conservative THEN glen := 0 END;
  1043. Traverse( 0, GetAdr( left ), GetAdr( right ) );
  1044. IF conservative THEN
  1045. looplen := 1;
  1046. WHILE (dim > 0) DO
  1047. looplen := looplen * GetLen( left, dim - 1 ); DEC( dim );
  1048. END;
  1049. ASSERT( looplen = glen );
  1050. END;
  1051. END ApplyBinaryAASOp;
  1052. (** special binary operator: array x array -> boolean *)
  1053. PROCEDURE ApplyBinaryAABOp( l, r: Address;
  1054. Loop: BinaryAABLoop; geometryMismatchDefault: BOOLEAN ): BOOLEAN;
  1055. VAR loopd, looplen, loopli, loopri: LONGINT; left, right, dim: LONGINT;
  1056. PROCEDURE Traverse( dim: LONGINT; ladr, radr: Address ): BOOLEAN;
  1057. VAR len: LONGINT; linc, rinc: LONGINT;
  1058. BEGIN
  1059. IF dim = loopd THEN RETURN Loop( ladr, radr, loopli, loopri, looplen );
  1060. ELSE
  1061. len := GetLen( left, dim ); linc := GetIncr( left, dim );
  1062. rinc := GetIncr( right, dim ); INC( dim );
  1063. WHILE (len > 0) DO
  1064. IF ~Traverse( dim, ladr, radr ) THEN RETURN FALSE END;
  1065. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  1066. END;
  1067. RETURN TRUE;
  1068. END;
  1069. END Traverse;
  1070. BEGIN
  1071. SYSTEM.GET( l, left ); SYSTEM.GET( r, right ); dim := GetDim( left );
  1072. (* check array lengths *)
  1073. IF ~SameShape( left, right ) THEN
  1074. RETURN geometryMismatchDefault
  1075. END;
  1076. (* is destination already allocated? (might be a temporary result) *)
  1077. IF debug THEN Report( "AAB:left", left ); Report( "AAB:right", right ); END;
  1078. (* check pattern: longest piece that can be done with a loop *)
  1079. FindPattern2( left, right, dim, loopd, looplen, loopli, loopri );
  1080. (* run through dimensions *)
  1081. RETURN Traverse( 0, GetAdr( left ), GetAdr( right ) );
  1082. END ApplyBinaryAABOp;
  1083. (** special binary operator: array x scalar -> boolean *)
  1084. PROCEDURE ApplyBinaryASBOp( l, right: Address;
  1085. Loop: BinaryASBLoop ): BOOLEAN;
  1086. VAR loopd, looplen, loopli: LONGINT; left, dim: LONGINT;
  1087. PROCEDURE Traverse( dim: LONGINT; ladr: Address ): BOOLEAN;
  1088. VAR len: LONGINT; linc: LONGINT;
  1089. BEGIN
  1090. IF dim = loopd THEN RETURN Loop( ladr, right, loopli, looplen );
  1091. ELSE
  1092. len := GetLen( left, dim ); linc := GetIncr( left, dim ); INC( dim );
  1093. WHILE (len > 0) DO
  1094. IF ~Traverse( dim, ladr ) THEN RETURN FALSE END;
  1095. INC( ladr, linc ); DEC( len );
  1096. END;
  1097. RETURN TRUE;
  1098. END;
  1099. END Traverse;
  1100. BEGIN
  1101. SYSTEM.GET( l, left ); dim := GetDim( left );
  1102. IF debug THEN Report( "AAB:left", left ); END;
  1103. (* check pattern: longest piece that can be done with a loop *)
  1104. FindPattern1( left, dim, loopd, looplen, loopli );
  1105. (* run through dimensions *)
  1106. RETURN Traverse( 0, GetAdr( left ) );
  1107. END ApplyBinaryASBOp;
  1108. (**** operators *)
  1109. (*** copy *)
  1110. PROCEDURE Copy4( ladr, dadr, linc, dinc, len: LONGINT );
  1111. CODE {SYSTEM.i386}
  1112. MOV ECX, [EBP+ladr] ; ECX := ladr
  1113. MOV EDX, [EBP+dadr] ; EDX := dadr
  1114. MOV EBX, [EBP+len] ; EBX := len
  1115. start:
  1116. CMP EBX, 0 ;
  1117. JLE end ; WHILE EBX > 0 DO
  1118. MOV EAX, [ECX] ; EAX := SYSTEM.GET32(ECX)
  1119. MOV [EDX], EAX ; SYSTEM.PUT32(EDX, EAX))
  1120. ADD ECX, [EBP+linc] ; INC(ECX, linc)
  1121. ADD EDX, [EBP+dinc] ; INC(EDX, rinc)
  1122. DEC EBX ; DEC(EBX)
  1123. JMP start
  1124. end:
  1125. END Copy4;
  1126. PROCEDURE Copy2( ladr, dadr, linc, dinc, len: LONGINT );
  1127. CODE {SYSTEM.i386}
  1128. MOV ECX, [EBP+ladr] ; ECX := ladr
  1129. MOV EDX, [EBP+dadr] ; EDX := dadr
  1130. MOV EBX, [EBP+len] ; EBX := len
  1131. start:
  1132. CMP EBX, 0 ;
  1133. JLE end ; WHILE EBX > 0 DO
  1134. MOV AX, [ECX] ; EAX := SYSTEM.GET32(ECX)
  1135. MOV [EDX], AX ; SYSTEM.PUT32(EDX, EAX))
  1136. ADD ECX, [EBP+linc] ; INC(ECX, linc)
  1137. ADD EDX, [EBP+dinc] ; INC(EDX, rinc)
  1138. DEC EBX ; DEC(EBX)
  1139. JMP start
  1140. end:
  1141. END Copy2;
  1142. PROCEDURE Copy1( ladr, dadr, linc, dinc, len: LONGINT );
  1143. CODE {SYSTEM.i386}
  1144. MOV ECX, [EBP+ladr] ; ECX := ladr
  1145. MOV EDX, [EBP+dadr] ; EDX := dadr
  1146. MOV EBX, [EBP+len] ; EBX := len
  1147. start:
  1148. CMP EBX, 0 ;
  1149. JLE end ; WHILE EBX > 0 DO
  1150. MOV AL, [ECX] ; EAX := SYSTEM.GET32(ECX)
  1151. MOV [EDX], AL ; SYSTEM.PUT32(EDX, EAX))
  1152. ADD ECX, [EBP+linc] ; INC(ECX, linc)
  1153. ADD EDX, [EBP+dinc] ; INC(EDX, rinc)
  1154. DEC EBX ; DEC(EBX)
  1155. JMP start
  1156. end:
  1157. END Copy1;
  1158. PROCEDURE Copy8( ladr, dadr, linc, dinc, len: LONGINT );
  1159. CODE {SYSTEM.i386}
  1160. MOV ECX, [EBP+ladr] ; ECX := ladr
  1161. MOV EDX, [EBP+dadr] ; EDX := dadr
  1162. MOV EBX, [EBP+len] ; EBX := len
  1163. start:
  1164. CMP EBX, 0 ;
  1165. JLE end ; WHILE EBX > 0 DO
  1166. MOV EAX, [ECX] ; EAX := SYSTEM.GET32(ECX)
  1167. MOV [EDX], EAX ; SYSTEM.PUT32(EDX, EAX))
  1168. MOV EAX, [ECX+4] ; EAX := SYSTEM.GET32(ECX+4)
  1169. MOV [EDX+4], EAX ; SYSTEM.PUT32(EDX+4, EAX))
  1170. ADD ECX, [EBP+linc] ; INC(ECX, linc)
  1171. ADD EDX, [EBP+dinc] ; INC(EDX, rinc)
  1172. DEC EBX ; DEC(EBX)
  1173. JMP start
  1174. end:
  1175. END Copy8;
  1176. PROCEDURE -MoveB*( srcadr, destadr, len: LONGINT );
  1177. (** Correct move if overlap, might be important for some array operations,
  1178. do not use SYSTEM.MOVE. *)
  1179. CODE {SYSTEM.i386}
  1180. MOV ECX, [ESP] ; len
  1181. MOV EDI, [ESP+4] ; destadr
  1182. MOV ESI, [ESP+8] ; srcadr
  1183. CMP ESI, EDI
  1184. JAE moveup ; src adr greater then dest adr, no problem with moving up
  1185. MOV EAX, ESI
  1186. ADD EAX, ECX
  1187. CMP EAX, EDI
  1188. JBE moveup ; no overlap, no problem, move up
  1189. MOV ESI, EAX
  1190. ADD EDI, ECX
  1191. DEC ESI
  1192. DEC EDI
  1193. STD ; move down since overlap occured
  1194. REP
  1195. MOVSB
  1196. JMP done
  1197. moveup:
  1198. CLD
  1199. MOV BL, CL
  1200. SHR ECX, 2
  1201. AND BL, 00000003H ; rest to move after 4 byte move
  1202. REP
  1203. MOVSD ; move 4 bytes each step
  1204. MOV CL, BL
  1205. REP
  1206. MOVSB ; move rest in one byte steps
  1207. done:
  1208. ADD ESP, 12 ; adjust stack pointer(inline procedure!)
  1209. END MoveB;
  1210. PROCEDURE CopyContent( dest, src, elementSize: LONGINT ); (**! optimize *)
  1211. VAR loopd, looplen, loopli, loopdi: LONGINT; p: ANY; glen: LONGINT;
  1212. origdest: LONGINT; modes: SET; dim: LONGINT;
  1213. PROCEDURE Loop( ladr, dadr, linc, dinc, len: LONGINT );
  1214. BEGIN
  1215. IF (dinc = elementSize) & (linc = elementSize) THEN
  1216. MoveB( ladr, dadr, len * elementSize );
  1217. (*
  1218. SYSTEM.MOVE( ladr, dadr, elementSize * len );
  1219. *)
  1220. ELSIF (dinc = -elementSize) & (linc = -elementSize) THEN
  1221. len := len * elementSize;
  1222. MoveB( ladr - len + elementSize, dadr - len + elementSize, len );
  1223. ELSIF elementSize = 1 THEN
  1224. Copy1( ladr, dadr, linc, dinc, len );
  1225. (*
  1226. WHILE (len > 0) DO
  1227. SYSTEM.PUT8( dadr, SYSTEM.GET8( ladr ) ); DEC( len ); INC( ladr, linc ); INC( dadr, dinc );
  1228. END;
  1229. *)
  1230. ELSIF elementSize = 2 THEN
  1231. Copy2( ladr, dadr, linc, dinc, len );
  1232. (*
  1233. WHILE (len > 0) DO
  1234. SYSTEM.PUT16( dadr, SYSTEM.GET16( ladr ) ); DEC( len ); INC( ladr, linc ); INC( dadr, dinc );
  1235. END;
  1236. *)
  1237. ELSIF elementSize = 4 THEN
  1238. Copy4( ladr, dadr, linc, dinc, len );
  1239. (*
  1240. WHILE (len > 0) DO
  1241. SYSTEM.PUT32( dadr, SYSTEM.GET32( ladr ) ); DEC( len ); INC( ladr, linc ); INC( dadr, dinc );
  1242. END;
  1243. *)
  1244. ELSIF elementSize = 8 THEN
  1245. Copy8( ladr, dadr, linc, dinc, len );
  1246. (*
  1247. WHILE (len > 0) DO
  1248. SYSTEM.PUT32( dadr, SYSTEM.GET32( ladr ) );
  1249. SYSTEM.PUT32( dadr + 4, SYSTEM.GET32( ladr + 4 ) ); DEC( len ); INC( ladr, linc );
  1250. INC( dadr, dinc );
  1251. END;
  1252. *)
  1253. ELSE (* SYSTEM.MOVE is expensive ! *)
  1254. WHILE (len > 0) DO
  1255. SYSTEM.MOVE( ladr, dadr, elementSize ); DEC( len ); INC( ladr, linc );
  1256. INC( dadr, dinc );
  1257. END;
  1258. END;
  1259. END Loop;
  1260. PROCEDURE Traverse( dim: LONGINT; ladr, dadr: Address );
  1261. VAR len: LONGINT; linc, dinc: LONGINT;
  1262. BEGIN
  1263. IF dim = loopd THEN
  1264. Loop( ladr, dadr, loopli, loopdi, looplen );
  1265. IF conservative THEN INC( glen, looplen ) END;
  1266. ELSE
  1267. len := GetLen( src, dim ); linc := GetIncr( src, dim );
  1268. dinc := GetIncr( dest, dim ); INC( dim );
  1269. WHILE (len > 0) DO
  1270. Traverse( dim, ladr, dadr ); INC( ladr, linc ); INC( dadr, dinc );
  1271. DEC( len );
  1272. END;
  1273. END;
  1274. END Traverse;
  1275. BEGIN
  1276. dim := GetDim( src );
  1277. origdest := 0; modes := {up, down}; (* copy modes *)
  1278. ASSERT( SameShape( src, dest ) ); (* must be ensured by caller *)
  1279. CopyUpCompatible( dest, src, modes );
  1280. IF up IN modes THEN (* nothing to be done *)
  1281. ELSIF down IN modes THEN (* can only copy from top to bottom *)
  1282. Reverse( src, dim ); Reverse( dest, dim )
  1283. ELSE (* can only copy via double buffer *)
  1284. origdest := dest; p := AllocateTemp( dest, origdest, elementSize );
  1285. END;
  1286. IF debug THEN Report( "AA: src", src ); Report( "AA: dest", dest );
  1287. END;
  1288. (* check pattern: longest piece that can be done with a loop *)
  1289. FindPattern2( src, dest, dim, loopd, looplen, loopli, loopdi );
  1290. Traverse( 0, GetAdr( src ), GetAdr( dest ) );
  1291. IF up IN modes THEN (* nothing to be done *)
  1292. ELSIF down IN modes THEN Reverse( src, dim ); Reverse( dest, dim )
  1293. ELSE CopyContent( origdest, dest, elementSize );
  1294. END;
  1295. END CopyContent;
  1296. PROCEDURE AllocateSame( VAR dest: LONGINT; src: LONGINT;
  1297. elementsize: LONGINT ): ANY;
  1298. VAR ptr, data: ANY; Size: LONGINT;
  1299. (* allocate a structure in dest compatible with src, if necessary. returns if allocation has taken place *)
  1300. PROCEDURE UseDescriptor;
  1301. VAR tag: LONGINT;
  1302. BEGIN
  1303. SYSTEM.GET( src - 4, tag );
  1304. Heaps.NewRec( ptr, tag, FALSE );
  1305. dest := SYSTEM.VAL( LONGINT, ptr );
  1306. END UseDescriptor;
  1307. PROCEDURE NewData;
  1308. VAR dim, len, size: LONGINT;
  1309. BEGIN
  1310. dim := GetDim( src ); size := elementsize;
  1311. PutDim( dest, dim );
  1312. PutSize( dest, elementsize );
  1313. WHILE (dim > 0) DO
  1314. DEC( dim ); len := GetLen( src, dim ); PutLen( dest, dim, len );
  1315. PutInc( dest, dim, size ); size := size * len;
  1316. END;
  1317. SYSTEM.NEW( data, size );
  1318. PutAdr( dest, SYSTEM.VAL( LONGINT, data ) );
  1319. PutPtr( dest, SYSTEM.VAL( LONGINT, data ) );
  1320. END NewData;
  1321. BEGIN
  1322. IF dest # 0 THEN Size := GetSize( dest ); ASSERT( Size = elementsize ); END;
  1323. IF debug THEN KernelLog.String( "Allocate same " ); Report( "allocation source", src ); Report( "allocation des", dest ); END;
  1324. IF dest = 0 THEN (* NIL pointer, guaranteed to be tensor *)
  1325. IF TensorFlag IN GetFlags( src ) THEN UseDescriptor();
  1326. ELSE ptr := GetArrayDesc( GetDim( src ) ); dest := SYSTEM.VAL( LONGINT, ptr );
  1327. END;
  1328. PutFlags(dest, {TensorFlag});
  1329. NewData(); RETURN ptr;
  1330. ELSIF GetDim( dest ) # GetDim( src ) THEN (* different dimension *)
  1331. (* check if re-allocation of descriptor is allowed *)
  1332. IF ~(TensorFlag IN GetFlags( dest )) &
  1333. ~(TemporaryFlag IN GetFlags( dest )) THEN (* no, not allowed*)
  1334. HALT( 100 );
  1335. END;
  1336. UseDescriptor();
  1337. PutFlags(dest, {TensorFlag});
  1338. NewData(); RETURN ptr;
  1339. ELSIF (GetAdr( dest ) = 0) OR ~SameShape( dest, src ) THEN
  1340. (* check if re-allocation of array data is allowed *)
  1341. IF RangeFlag IN GetFlags( dest ) THEN (* no! not allowed *)
  1342. HALT( 100 );
  1343. END;
  1344. NewData();
  1345. RETURN data;
  1346. ELSE (* nothing to do *)
  1347. RETURN NIL;
  1348. END;
  1349. END AllocateSame;
  1350. PROCEDURE TempDescCopy( src: Address ): ANY;
  1351. VAR p: ANY; dim: LONGINT;
  1352. BEGIN
  1353. dim := GetDim( src ); SYSTEM.NEW( p, dim * 8 + MathLenOffset );
  1354. SYSTEM.MOVE( src, SYSTEM.VAL( LONGINT, p ), dim * 8 + MathLenOffset ); PutAdr( src, 0 );
  1355. PutPtr( src, 0 ); PutFlags( src, {} ); RETURN p;
  1356. END TempDescCopy;
  1357. PROCEDURE CopyArraySelf*( dest, src: Address; elementsize: LONGINT );
  1358. VAR p: ANY;
  1359. BEGIN
  1360. ASSERT( src = dest ); p := TempDescCopy( src );
  1361. CopyArray( dest, SYSTEM.VAL( LONGINT, p ), elementsize );
  1362. END CopyArraySelf;
  1363. PROCEDURE CopyArray*( dest: Address; src: Address; elementsize: LONGINT );
  1364. VAR p: ANY; srcdim, destdim: LONGINT;
  1365. BEGIN
  1366. ASSERT( dest # 0 ); (* impossible unless compiler error *)
  1367. IF GetDim( src ) # GetDim( dest ) THEN (* not allowed but possible (tensor) *)
  1368. srcdim := GetDim(src);
  1369. destdim := GetDim(dest);
  1370. (*
  1371. Debugging.Stack("copy array");
  1372. *)
  1373. Report( "copy array source", src ); Report( "copy array des", dest );
  1374. HALT(100);
  1375. ELSIF src = dest THEN (* self copy *)
  1376. CopyArraySelf( dest, src, elementsize );
  1377. ELSE
  1378. p := AllocateSame( dest, src, elementsize );
  1379. CopyContent( dest, src, elementsize )
  1380. END;
  1381. END CopyArray;
  1382. PROCEDURE CopyTensorSelf*( VAR dest: Address; src: Address; elementsize: LONGINT );
  1383. BEGIN
  1384. dest := 0; CopyTensor( dest, src, elementsize );
  1385. END CopyTensorSelf;
  1386. PROCEDURE CopyTensor*( VAR dest: Address; src: Address;
  1387. elementsize: LONGINT );
  1388. VAR p: ANY;
  1389. BEGIN
  1390. (* Report("dest",dest); Report("src",src); *)
  1391. IF (dest = 0) OR ~(SameShape( dest, src )) OR (GetAdr( dest ) = 0) THEN
  1392. p := AllocateSame( dest, src, elementsize ); (* includes check if allocation is allowed *)
  1393. CopyContent( dest, src, elementsize );
  1394. ELSIF dest = src THEN CopyTensorSelf( dest, src, elementsize );
  1395. ELSE CopyContent( dest, src, elementsize )
  1396. END;
  1397. END CopyTensor;
  1398. (* copy descriptor of src to that of dest. If not existent then create.*)
  1399. PROCEDURE ShallowCopy*(VAR dest: Address; src: Address);
  1400. VAR ptr: ANY; flags: SET;
  1401. PROCEDURE UseTypeDescriptor;
  1402. VAR tag: LONGINT; ptr: ANY;
  1403. BEGIN
  1404. SYSTEM.GET( src + Heaps.TypeDescOffset, tag ); Heaps.NewRec( ptr, tag, FALSE );
  1405. dest := SYSTEM.VAL( LONGINT, ptr );
  1406. END UseTypeDescriptor;
  1407. PROCEDURE CopyDescriptor;
  1408. BEGIN
  1409. SYSTEM.MOVE( src , dest, MathLenOffset + SIZEOF(Address) * GetDim( src ) *2 );
  1410. END CopyDescriptor;
  1411. BEGIN
  1412. (*
  1413. KernelLog.String("ShallowCopy called with ");
  1414. KernelLog.Int(src,10); KernelLog.Int(dest,10);
  1415. KernelLog.Ln;
  1416. Report( "scopy source", src ); Report( "scopy dest", dest );
  1417. *)
  1418. IF dest = 0 THEN (* NIL pointer, guaranteed to be tensor *)
  1419. IF TensorFlag IN GetFlags( src ) THEN UseTypeDescriptor();
  1420. ELSE
  1421. ptr := GetArrayDesc( GetDim( src ) ); dest := SYSTEM.VAL( LONGINT, ptr ); (* ??? *)
  1422. END;
  1423. CopyDescriptor();
  1424. PutFlags(dest, {TensorFlag});
  1425. ELSIF GetDim( dest ) # GetDim( src ) THEN (* different dimension *)
  1426. flags := GetFlags(dest);
  1427. (* check if re-allocation of descriptor is allowed *)
  1428. IF ~(TensorFlag IN GetFlags( dest )) & ~(TemporaryFlag IN GetFlags( dest )) THEN (* no, not allowed*)
  1429. Halt(DimensionMismatch,src,0,dest);
  1430. END;
  1431. (* create a new descriptor!!! (added by Alexey) *)
  1432. ptr := GetArrayDesc( GetDim( src ) ); dest := SYSTEM.VAL( LONGINT, ptr );
  1433. CopyDescriptor();
  1434. PutFlags(dest, flags);
  1435. ELSE
  1436. flags := GetFlags(dest);
  1437. (* check if re-allocation of array data is allowed *)
  1438. IF RangeFlag IN GetFlags( dest ) THEN (* no! not allowed *)
  1439. Halt(AllocationForbidden,src,0,dest);
  1440. END;
  1441. CopyDescriptor();
  1442. PutFlags(dest, flags);
  1443. END;
  1444. END ShallowCopy;
  1445. PROCEDURE DescriptorCopy( src, dest: LONGINT );
  1446. BEGIN
  1447. IF debug THEN
  1448. KernelLog.String( "DescriptorCopy from " ); KernelLog.Int( src, 1 ); KernelLog.String( " to " );
  1449. KernelLog.Int( dest, 1 ); KernelLog.Ln;
  1450. END;
  1451. SYSTEM.MOVE( src, dest, 2*SIZEOF(Address) ); (* adr and ptr *)
  1452. SYSTEM.MOVE( src + MathLenOffset, dest + MathLenOffset, SIZEOF(Address) * GetDim( src ) *2 ); (* lens and increments *)
  1453. END DescriptorCopy;
  1454. PROCEDURE ZeroCopy*(CONST src: ARRAY [?]; VAR dest: ARRAY [?]);
  1455. VAR s,d: LONGINT;
  1456. BEGIN
  1457. s := SYSTEM.VAL(LONGINT,src); d := SYSTEM.VAL(LONGINT,dest);
  1458. ShallowCopy(d,s);
  1459. SYSTEM.PUT(ADDRESSOF(dest),d);
  1460. END ZeroCopy;
  1461. OPERATOR "ALIAS"*(CONST src: ARRAY [?]): ARRAY[?];
  1462. BEGIN
  1463. ZeroCopy(src, RESULT);
  1464. RETURN RESULT
  1465. END "ALIAS";
  1466. PROCEDURE SameShape( l, r: LONGINT ): BOOLEAN;
  1467. VAR dim: LONGINT;
  1468. BEGIN
  1469. dim := GetDim( l );
  1470. IF dim # GetDim( r ) THEN RETURN FALSE END;
  1471. WHILE (dim > 0) DO
  1472. DEC( dim );
  1473. IF GetLen( l, dim ) # GetLen( r, dim ) THEN RETURN FALSE END;
  1474. END;
  1475. RETURN TRUE;
  1476. END SameShape;
  1477. (*
  1478. PROCEDURE ZeroCopyArray*( dest: Address; src: Address; elementsize: LONGINT );
  1479. (*
  1480. called as ZeroCopy(A,B,Size) with enhanced arrays A,B
  1481. check if deep copy can be avoided and if so then do a shallow copy
  1482. *)
  1483. BEGIN
  1484. ASSERT( dest # 0 ); (* impossible *)
  1485. IF GetDim( src ) # GetDim( dest ) THEN (* not allowed but possible (tensor) *)
  1486. HALT( 100 );
  1487. ELSIF (RangeFlag IN GetFlags( src )) THEN
  1488. (* must copy (and allocate) *)
  1489. CopyArray( dest, src, elementsize );
  1490. ELSIF (RangeFlag IN GetFlags( dest )) THEN (* copy only allowed if shape matches *)
  1491. IF ~SameShape( dest, src ) THEN HALT( 100 );
  1492. ELSE CopyContent( dest, src, elementsize )
  1493. END;
  1494. ELSE DescriptorCopy( src, dest )
  1495. END;
  1496. END ZeroCopyArray;
  1497. PROCEDURE ZeroCopyTensor*( VAR dest: Address; src: Address; elementsize: LONGINT );
  1498. (*
  1499. called as ZeroCopy(A,B,Size) with A,B: ARRAY [?] OF ...
  1500. check if deep copy can be avoided and if so then do a shallow copy
  1501. *)
  1502. BEGIN
  1503. IF debug THEN
  1504. KernelLog.String( "ZeroCopy2: " ); KernelLog.String( "ADDRESSOF(dest) " ); KernelLog.Int( ADDRESSOF( dest ), 10 );
  1505. KernelLog.Ln; KernelLog.String( "ADDRESSOF(src) " ); KernelLog.Int( ADDRESSOF( src ), 10 ); KernelLog.Ln;
  1506. KernelLog.String( "dest " ); KernelLog.Int( dest, 10 ); KernelLog.Ln; KernelLog.String( "src " );
  1507. KernelLog.Int( src, 10 ); KernelLog.Ln; KernelLog.String( "elementsize" );
  1508. KernelLog.Int( elementsize, 10 ); KernelLog.Ln;
  1509. END;
  1510. IF (dest = 0) OR (TensorFlag IN GetFlags( dest )) THEN (* descriptor allocation allowed *)
  1511. IF (TensorFlag IN GetFlags( src )) THEN dest := src;
  1512. ELSE
  1513. CopyTensor( dest, src, elementsize ); (* allocate freshly *)
  1514. END;
  1515. ELSIF (RangeFlag IN GetFlags( src )) THEN
  1516. (* must copy (and allocate) *)
  1517. CopyTensor( dest, src, elementsize );
  1518. ELSIF (RangeFlag IN GetFlags( dest )) THEN (* descriptor copy forbidden *)
  1519. IF SameShape( src, dest ) THEN CopyContent( dest, src, elementsize )
  1520. ELSE
  1521. HALT( 100 ); (* copy forbidden *)
  1522. END;
  1523. ELSIF GetDim( src ) = GetDim( dest ) THEN (* descriptor copy allowed *)
  1524. DescriptorCopy( src, dest );
  1525. ELSE
  1526. HALT( 100 ); (* different shapes: not allowed *)
  1527. END;
  1528. END ZeroCopyTensor;
  1529. PROCEDURE ZeroCopy*( left, elementSize, dest, dim: LONGINT ); (**! optimize *)
  1530. VAR i: LONGINT;
  1531. BEGIN
  1532. IF GetPtr( dest ) = -1 THEN (* zero copy forbidden, try data copy *)
  1533. CopyContent( dest, left, elementSize )
  1534. ELSE
  1535. IF debug THEN
  1536. KernelLog.String( "Zero Copy" ); KernelLog.Int( left, 10 ); KernelLog.Int( dest, 10 );
  1537. KernelLog.Ln;
  1538. END;
  1539. PutPtr( dest, GetPtr( left ) ); PutAdr( dest, GetAdr( left ) );
  1540. FOR i := 0 TO dim - 1 DO
  1541. PutInc( dest, i, GetIncr( left, i ) ); PutLen( dest, i, GetLen( left, i ) );
  1542. END;
  1543. END;
  1544. END ZeroCopy;
  1545. *)
  1546. (*** conversions ****)
  1547. (** SHORTINT -> INTEGER *)
  1548. PROCEDURE ConvertASAILoop( ladr, dadr, linc, dinc, len: LONGINT );
  1549. BEGIN
  1550. WHILE (len > 0) DO (* SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); *)
  1551. SYSTEM.PUT16( dadr, SYSTEM.GET8( ladr ) ); INC( ladr, linc ); INC( dadr, dinc );
  1552. DEC( len );
  1553. END;
  1554. END ConvertASAILoop;
  1555. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF SHORTINT ): ARRAY [?] OF INTEGER;
  1556. BEGIN
  1557. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( INTEGER ),ConvertASAILoop );
  1558. RETURN RESULT
  1559. END "@Convert";
  1560. OPERATOR "LONG"*(CONST src: ARRAY [ ? ] OF SHORTINT ): ARRAY [?] OF INTEGER;
  1561. BEGIN
  1562. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( INTEGER ),ConvertASAILoop );
  1563. RETURN RESULT
  1564. END "LONG";
  1565. (** SHORTINT -> LONGINT *)
  1566. PROCEDURE ConvertLoopSL( ladr, dadr, linc, dinc, len: LONGINT );
  1567. BEGIN
  1568. WHILE (len > 0) DO (* SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); *)
  1569. SYSTEM.PUT32( dadr, SYSTEM.GET8( ladr ) ); INC( ladr, linc ); INC( dadr, dinc );
  1570. DEC( len );
  1571. END;
  1572. END ConvertLoopSL;
  1573. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF SHORTINT ): ARRAY [?] OF LONGINT;
  1574. BEGIN
  1575. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ),ConvertLoopSL );
  1576. RETURN RESULT
  1577. END "@Convert";
  1578. (** SHORTINT -> REAL *)
  1579. PROCEDURE ConvertLoopSR( ladr, dadr, linc, dinc, len: LONGINT );
  1580. VAR lval: SHORTINT; dval: REAL;
  1581. BEGIN
  1582. WHILE (len > 0) DO
  1583. SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  1584. INC( dadr, dinc ); DEC( len );
  1585. END;
  1586. END ConvertLoopSR;
  1587. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF SHORTINT ): ARRAY [?] OF REAL;
  1588. BEGIN
  1589. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), ConvertLoopSR );
  1590. RETURN RESULT
  1591. END "@Convert";
  1592. (** SHORTINT -> LONGREAL *)
  1593. PROCEDURE ConvertLoopSX( ladr, dadr, linc, dinc, len: LONGINT );
  1594. VAR lval: SHORTINT; dval: LONGREAL;
  1595. BEGIN
  1596. WHILE (len > 0) DO
  1597. SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  1598. INC( dadr, dinc ); DEC( len );
  1599. END;
  1600. END ConvertLoopSX;
  1601. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF SHORTINT ): ARRAY [ ? ] OF LONGREAL;
  1602. BEGIN
  1603. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ), ConvertLoopSX );
  1604. RETURN RESULT
  1605. END "@Convert";
  1606. (** INTEGER -> SHORTINT (SHORT) *)
  1607. PROCEDURE ConvertLoopIS( ladr, dadr, linc, dinc, len: LONGINT );
  1608. VAR lval: INTEGER; dval: SHORTINT;
  1609. BEGIN
  1610. WHILE (len > 0) DO
  1611. SYSTEM.GET( ladr, lval ); dval := SHORT( lval ); SYSTEM.PUT( dadr, dval );
  1612. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  1613. END;
  1614. END ConvertLoopIS;
  1615. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF SHORTINT;
  1616. BEGIN
  1617. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( SHORTINT ), ConvertLoopIS );
  1618. RETURN RESULT
  1619. END "@Convert";
  1620. OPERATOR "SHORT"*(CONST src: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF SHORTINT;
  1621. BEGIN
  1622. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( SHORTINT ), ConvertLoopIS );
  1623. RETURN RESULT
  1624. END "SHORT";
  1625. (** INTEGER -> LONGINT *)
  1626. PROCEDURE ConvertLoopIL( ladr, dadr, linc, dinc, len: LONGINT );
  1627. BEGIN
  1628. WHILE (len > 0) DO (* SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); *)
  1629. SYSTEM.PUT32( dadr, SYSTEM.GET16( ladr ) ); INC( ladr, linc ); INC( dadr, dinc );
  1630. DEC( len );
  1631. END;
  1632. END ConvertLoopIL;
  1633. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF LONGINT;
  1634. BEGIN
  1635. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ), ConvertLoopIL );
  1636. RETURN RESULT
  1637. END "@Convert";
  1638. OPERATOR "LONG"*(CONST src: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF LONGINT;
  1639. BEGIN
  1640. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ), ConvertLoopIL );
  1641. RETURN RESULT
  1642. END "LONG";
  1643. (** INTEGER -> REAL *)
  1644. PROCEDURE ConvertLoopIR( ladr, dadr, linc, dinc, len: LONGINT );
  1645. VAR lval: INTEGER; dval: REAL;
  1646. BEGIN
  1647. WHILE (len > 0) DO
  1648. SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  1649. INC( dadr, dinc ); DEC( len );
  1650. END;
  1651. END ConvertLoopIR;
  1652. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF REAL;
  1653. BEGIN
  1654. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), ConvertLoopIR );
  1655. RETURN RESULT
  1656. END "@Convert";
  1657. (** INTEGER -> LONGREAL *)
  1658. PROCEDURE ConvertLoopIX( ladr, dadr, linc, dinc, len: LONGINT );
  1659. VAR lval: INTEGER; dval: LONGREAL;
  1660. BEGIN
  1661. WHILE (len > 0) DO
  1662. SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  1663. INC( dadr, dinc ); DEC( len );
  1664. END;
  1665. END ConvertLoopIX;
  1666. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF LONGREAL;
  1667. BEGIN
  1668. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ), ConvertLoopIX );
  1669. RETURN RESULT
  1670. END "@Convert";
  1671. (** LONGINT -> INTEGER (SHORT) *)
  1672. PROCEDURE ConvertLoopLI( ladr, dadr, linc, dinc, len: LONGINT );
  1673. VAR lval: LONGINT; dval: INTEGER;
  1674. BEGIN
  1675. WHILE (len > 0) DO
  1676. SYSTEM.GET( ladr, lval ); dval := SHORT( lval ); SYSTEM.PUT( dadr, dval );
  1677. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  1678. END;
  1679. END ConvertLoopLI;
  1680. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF INTEGER;
  1681. BEGIN
  1682. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( INTEGER ),ConvertLoopLI );
  1683. RETURN RESULT
  1684. END "@Convert";
  1685. OPERATOR "SHORT"*(CONST src: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF INTEGER;
  1686. BEGIN
  1687. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( INTEGER ),ConvertLoopLI );
  1688. RETURN RESULT
  1689. END "SHORT";
  1690. (** LONGINT -> REAL *)
  1691. PROCEDURE ConvertLoopLR( ladr, dadr, linc, dinc, len: LONGINT );
  1692. VAR lval: LONGINT; dval: REAL;
  1693. BEGIN
  1694. WHILE (len > 0) DO
  1695. SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  1696. INC( dadr, dinc ); DEC( len );
  1697. END;
  1698. END ConvertLoopLR;
  1699. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF REAL;
  1700. BEGIN
  1701. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), ConvertLoopLR );
  1702. RETURN RESULT
  1703. END "@Convert";
  1704. (** LONGINT -> LONGREAL *)
  1705. PROCEDURE ConvertLoopLX( ladr, dadr, linc, dinc, len: LONGINT );
  1706. VAR lval: LONGINT; dval: LONGREAL;
  1707. BEGIN
  1708. WHILE (len > 0) DO
  1709. SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  1710. INC( dadr, dinc ); DEC( len );
  1711. END;
  1712. END ConvertLoopLX;
  1713. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF LONGREAL;
  1714. BEGIN
  1715. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ), ConvertLoopLX );
  1716. RETURN RESULT
  1717. END "@Convert";
  1718. (** REAL -> LONGINT (ENTIER) *)
  1719. PROCEDURE ConvertLoopRL( ladr, dadr, linc, dinc, len: LONGINT );
  1720. VAR lval: REAL; dval: LONGINT;
  1721. BEGIN
  1722. WHILE (len > 0) DO
  1723. SYSTEM.GET( ladr, lval ); dval := ENTIER( lval ); SYSTEM.PUT( dadr, dval );
  1724. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  1725. END;
  1726. END ConvertLoopRL;
  1727. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF LONGINT;
  1728. BEGIN
  1729. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ), ConvertLoopRL );
  1730. RETURN RESULT
  1731. END "@Convert";
  1732. OPERATOR "ENTIER"*(CONST src: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF LONGINT;
  1733. BEGIN
  1734. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ), ConvertLoopRL );
  1735. RETURN RESULT
  1736. END "ENTIER";
  1737. (** REAL -> LONGREAL *)
  1738. PROCEDURE ConvertLoopRX( ladr, dadr, linc, dinc, len: LONGINT );
  1739. VAR lval: REAL; dval: LONGREAL;
  1740. BEGIN
  1741. WHILE (len > 0) DO
  1742. SYSTEM.GET( ladr, lval ); dval := lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  1743. INC( dadr, dinc ); DEC( len );
  1744. END;
  1745. END ConvertLoopRX;
  1746. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF LONGREAL;
  1747. BEGIN
  1748. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ), ConvertLoopRX );
  1749. RETURN RESULT
  1750. END "@Convert";
  1751. OPERATOR "LONG"*(CONST src: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF LONGREAL;
  1752. BEGIN
  1753. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ), ConvertLoopRX );
  1754. RETURN RESULT
  1755. END "LONG";
  1756. (** LONGREAL -> REAL (SHORT) *)
  1757. PROCEDURE ConvertLoopXR( ladr, dadr, linc, dinc, len: LONGINT );
  1758. VAR lval: LONGREAL; dval: REAL;
  1759. BEGIN
  1760. WHILE (len > 0) DO
  1761. SYSTEM.GET( ladr, lval ); dval := SHORT( lval ); SYSTEM.PUT( dadr, dval );
  1762. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  1763. END;
  1764. END ConvertLoopXR;
  1765. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF REAL;
  1766. BEGIN
  1767. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), ConvertLoopXR );
  1768. RETURN RESULT
  1769. END "@Convert";
  1770. OPERATOR "SHORT"*(CONST src: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF REAL;
  1771. BEGIN
  1772. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), ConvertLoopXR );
  1773. RETURN RESULT
  1774. END "SHORT";
  1775. (** LONGREAL -> LONGINT (ENTIER) *)
  1776. PROCEDURE ConvertLoopXL( ladr, dadr, linc, dinc, len: LONGINT );
  1777. VAR lval: LONGREAL; dval: LONGINT;
  1778. BEGIN
  1779. WHILE (len > 0) DO
  1780. SYSTEM.GET( ladr, lval ); dval := ENTIER( lval ); SYSTEM.PUT( dadr, dval );
  1781. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  1782. END;
  1783. END ConvertLoopXL;
  1784. OPERATOR "@Convert"*(CONST src: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF LONGINT;
  1785. BEGIN
  1786. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ),ConvertLoopXL );
  1787. RETURN RESULT
  1788. END "@Convert";
  1789. OPERATOR "ENTIER"*(CONST src: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF LONGINT;
  1790. BEGIN
  1791. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ),ConvertLoopXL );
  1792. RETURN RESULT
  1793. END "ENTIER";
  1794. (*** monadic not A -> ~A ********************************************************************)
  1795. (** BOOLEAN *)
  1796. PROCEDURE NotLoopAB( ladr, dadr, linc, dinc, len: LONGINT );
  1797. VAR lval: BOOLEAN;
  1798. BEGIN
  1799. WHILE (len > 0) DO
  1800. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, ~lval ); INC( ladr, linc ); INC( dadr, dinc );
  1801. DEC( len );
  1802. END;
  1803. END NotLoopAB;
  1804. OPERATOR "~"*(CONST src: ARRAY [ ? ] OF BOOLEAN): ARRAY [ ? ] OF BOOLEAN;
  1805. BEGIN
  1806. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( BOOLEAN ), NotLoopAB );
  1807. RETURN RESULT
  1808. END "~";
  1809. (*** monadic generic (A) -> -A ********************************************************************)
  1810. (** SHORTINT *)
  1811. PROCEDURE GenericLoopS( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: SHORTINT): SHORTINT );
  1812. VAR lval: SHORTINT;
  1813. BEGIN
  1814. WHILE (len > 0) DO
  1815. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, op(lval) ); INC( ladr, linc ); INC( dadr, dinc );
  1816. DEC( len );
  1817. END;
  1818. END GenericLoopS;
  1819. (** INTEGER *)
  1820. PROCEDURE GenericLoopI( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: INTEGER): INTEGER );
  1821. VAR lval: INTEGER;
  1822. BEGIN
  1823. WHILE (len > 0) DO
  1824. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, op(lval) ); INC( ladr, linc ); INC( dadr, dinc );
  1825. DEC( len );
  1826. END;
  1827. END GenericLoopI;
  1828. (** LONGINT *)
  1829. PROCEDURE GenericLoopL( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: LONGINT): LONGINT );
  1830. VAR lval: LONGINT;
  1831. BEGIN
  1832. WHILE (len > 0) DO
  1833. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, op(lval) ); INC( ladr, linc ); INC( dadr, dinc );
  1834. DEC( len );
  1835. END;
  1836. END GenericLoopL;
  1837. (** HUGEINT *)
  1838. PROCEDURE GenericLoopH( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: HUGEINT): HUGEINT );
  1839. VAR lval: HUGEINT;
  1840. BEGIN
  1841. WHILE (len > 0) DO
  1842. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, op(lval) ); INC( ladr, linc ); INC( dadr, dinc );
  1843. DEC( len );
  1844. END;
  1845. END GenericLoopH;
  1846. (** REAL *)
  1847. PROCEDURE GenericLoopR( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: REAL): REAL );
  1848. VAR lval: REAL;
  1849. BEGIN
  1850. WHILE (len > 0) DO
  1851. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, op(lval) ); INC( ladr, linc ); INC( dadr, dinc );
  1852. DEC( len );
  1853. END;
  1854. END GenericLoopR;
  1855. (** LONGREAL *)
  1856. PROCEDURE GenericLoopX( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: LONGREAL): LONGREAL );
  1857. VAR lval: LONGREAL;
  1858. BEGIN
  1859. WHILE (len > 0) DO
  1860. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, op(lval) ); INC( ladr, linc ); INC( dadr, dinc );
  1861. DEC( len );
  1862. END;
  1863. END GenericLoopX;
  1864. (** COMPLEX *)
  1865. PROCEDURE GenericLoopZ( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: COMPLEX): COMPLEX );
  1866. VAR lval,dval: POINTER{UNSAFE} TO RECORD val: COMPLEX END;
  1867. BEGIN
  1868. WHILE (len > 0) DO
  1869. lval := ladr;
  1870. dval := dadr;
  1871. dval.val := op(lval.val);
  1872. INC( ladr, linc ); INC( dadr, dinc );
  1873. DEC( len );
  1874. END;
  1875. END GenericLoopZ;
  1876. (** LONGCOMPLEX *)
  1877. PROCEDURE GenericLoopLZ( ladr, dadr, linc, dinc, len: LONGINT; op: PROCEDURE(x: LONGCOMPLEX): LONGCOMPLEX );
  1878. VAR lval,dval: POINTER{UNSAFE} TO RECORD val: LONGCOMPLEX END;
  1879. BEGIN
  1880. WHILE (len > 0) DO
  1881. lval := ladr;
  1882. dval := dadr;
  1883. dval.val := op (lval.val);
  1884. INC( ladr, linc ); INC( dadr, dinc );
  1885. DEC( len );
  1886. END;
  1887. END GenericLoopLZ;
  1888. (*** monadic minus A -> -A ********************************************************************)
  1889. (** SHORTINT *)
  1890. PROCEDURE MinusLoopS( ladr, dadr, linc, dinc, len: LONGINT );
  1891. VAR lval: SHORTINT;
  1892. BEGIN
  1893. WHILE (len > 0) DO
  1894. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, -lval ); INC( ladr, linc ); INC( dadr, dinc );
  1895. DEC( len );
  1896. END;
  1897. END MinusLoopS;
  1898. OPERATOR "-"*(CONST src: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  1899. BEGIN
  1900. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( SHORTINT ), MinusLoopS );
  1901. RETURN RESULT
  1902. END "-";
  1903. (** INTEGER *)
  1904. PROCEDURE MinusLoopI( ladr, dadr, linc, dinc, len: LONGINT );
  1905. VAR lval: INTEGER;
  1906. BEGIN
  1907. WHILE (len > 0) DO
  1908. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, -lval ); INC( ladr, linc ); INC( dadr, dinc );
  1909. DEC( len );
  1910. END;
  1911. END MinusLoopI;
  1912. OPERATOR "-"*(CONST src: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  1913. BEGIN
  1914. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( INTEGER ), MinusLoopI );
  1915. RETURN RESULT
  1916. END "-";
  1917. (** LONGINT *)
  1918. PROCEDURE MinusLoopL( ladr, dadr, linc, dinc, len: LONGINT );
  1919. VAR lval: LONGINT;
  1920. BEGIN
  1921. WHILE (len > 0) DO
  1922. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, -lval ); INC( ladr, linc ); INC( dadr, dinc );
  1923. DEC( len );
  1924. END;
  1925. END MinusLoopL;
  1926. OPERATOR "-"*(CONST src: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  1927. BEGIN
  1928. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ), MinusLoopL );
  1929. RETURN RESULT
  1930. END "-";
  1931. (** REAL *)
  1932. PROCEDURE MinusLoopR( ladr, dadr, linc, dinc, len: LONGINT );
  1933. VAR lval: REAL;
  1934. BEGIN
  1935. WHILE (len > 0) DO
  1936. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, -lval ); INC( ladr, linc ); INC( dadr, dinc );
  1937. DEC( len );
  1938. END;
  1939. END MinusLoopR;
  1940. OPERATOR "-"*(CONST src: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  1941. BEGIN
  1942. IF debug THEN KernelLog.String( "MinusAR" ); KernelLog.Ln; END;
  1943. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), MinusLoopR );
  1944. RETURN RESULT
  1945. END "-";
  1946. (** LONGREAL *)
  1947. PROCEDURE MinusLoopX( ladr, dadr, linc, dinc, len: LONGINT );
  1948. VAR lval: LONGREAL;
  1949. BEGIN
  1950. WHILE (len > 0) DO
  1951. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, -lval ); INC( ladr, linc ); INC( dadr, dinc );
  1952. DEC( len );
  1953. END;
  1954. END MinusLoopX;
  1955. OPERATOR "-"*(CONST src: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  1956. BEGIN
  1957. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ),
  1958. MinusLoopX );
  1959. RETURN RESULT
  1960. END "-";
  1961. (*** add array + array -> array ********************************************************************)
  1962. (** SHORTINT *)
  1963. PROCEDURE AddASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  1964. VAR lval, rval: SHORTINT;
  1965. BEGIN
  1966. WHILE (len > 0) DO
  1967. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval + rval );
  1968. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  1969. END;
  1970. END AddASASLoop;
  1971. OPERATOR "+"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  1972. BEGIN
  1973. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  1974. SIZEOF( SHORTINT ), AddASASLoop );
  1975. RETURN RESULT
  1976. END "+";
  1977. (** INTEGER *)
  1978. PROCEDURE AddAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  1979. VAR lval, rval: INTEGER;
  1980. BEGIN
  1981. WHILE (len > 0) DO
  1982. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval + rval );
  1983. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  1984. END;
  1985. END AddAIAILoop;
  1986. OPERATOR "+"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  1987. BEGIN
  1988. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  1989. SIZEOF( INTEGER ), AddAIAILoop );
  1990. RETURN RESULT
  1991. END "+";
  1992. (** LONGINT *)
  1993. PROCEDURE AddALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  1994. VAR lval, rval: LONGINT;
  1995. BEGIN
  1996. WHILE (len > 0) DO
  1997. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval + rval );
  1998. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  1999. END;
  2000. END AddALALLoop;
  2001. OPERATOR "+"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT;
  2002. BEGIN
  2003. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2004. SIZEOF( LONGINT ), AddALALLoop );
  2005. RETURN RESULT
  2006. END "+";
  2007. (** REAL *)
  2008. PROCEDURE AddARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2009. VAR lval, rval: REAL;
  2010. BEGIN
  2011. WHILE (len > 0) DO
  2012. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval + rval );
  2013. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2014. END;
  2015. END AddARARLoop;
  2016. OPERATOR "+"*(CONST left,right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  2017. BEGIN
  2018. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2019. loopAddARAR );
  2020. RETURN RESULT
  2021. END "+";
  2022. (** LONGREAL *)
  2023. PROCEDURE AddAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2024. VAR lval, rval: LONGREAL;
  2025. BEGIN
  2026. WHILE (len > 0) DO
  2027. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval + rval );
  2028. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2029. END;
  2030. END AddAXAXLoop;
  2031. OPERATOR "+"*(CONST left,right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  2032. BEGIN
  2033. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2034. SIZEOF( LONGREAL ), loopAddAXAX );
  2035. RETURN RESULT
  2036. END "+";
  2037. (** COMPLEX *)
  2038. PROCEDURE AddAZAZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2039. VAR lval, rval: COMPLEX;
  2040. BEGIN
  2041. WHILE (len > 0) DO
  2042. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval + rval );
  2043. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2044. END;
  2045. END AddAZAZLoop;
  2046. OPERATOR "+"*(CONST left,right: ARRAY [?] OF COMPLEX): ARRAY [?] OF COMPLEX;
  2047. BEGIN
  2048. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2049. SIZEOF( COMPLEX ), loopAddAZAZ );
  2050. RETURN RESULT
  2051. END "+";
  2052. (** LONGCOMPLEX *)
  2053. PROCEDURE AddALZALZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2054. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL;
  2055. BEGIN
  2056. WHILE (len > 0) DO
  2057. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  2058. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  2059. SYSTEM.PUT( dadr, lvalRe+rvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), lvalIm+rvalIm );
  2060. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  2061. DEC( len );
  2062. END;
  2063. END AddALZALZLoop;
  2064. OPERATOR "+"*(CONST left,right: ARRAY [?] OF LONGCOMPLEX): ARRAY [?] OF LONGCOMPLEX;
  2065. BEGIN
  2066. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2067. SIZEOF( LONGCOMPLEX ), loopAddALZALZ );
  2068. RETURN RESULT
  2069. END "+";
  2070. (*** add array + scalar -> array and scalar + array -> array ********************************************************************)
  2071. (** SHORTINT *)
  2072. PROCEDURE AddASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2073. VAR lval, rval: SHORTINT;
  2074. BEGIN
  2075. SYSTEM.GET( radr, rval );
  2076. WHILE (len > 0) DO
  2077. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval + rval ); INC( ladr, linc );
  2078. INC( dadr, dinc ); DEC( len );
  2079. END;
  2080. END AddASSSLoop;
  2081. OPERATOR "+"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF SHORTINT;
  2082. BEGIN
  2083. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2084. SIZEOF( SHORTINT ), AddASSSLoop );
  2085. RETURN RESULT
  2086. END "+";
  2087. OPERATOR "+"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  2088. BEGIN
  2089. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2090. SIZEOF( SHORTINT ), AddASSSLoop );
  2091. RETURN RESULT
  2092. END "+";
  2093. (** INTEGER *)
  2094. PROCEDURE AddAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2095. VAR lval, rval: INTEGER;
  2096. BEGIN
  2097. SYSTEM.GET( radr, rval );
  2098. WHILE (len > 0) DO
  2099. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval + rval ); INC( ladr, linc );
  2100. INC( dadr, dinc ); DEC( len );
  2101. END;
  2102. END AddAISILoop;
  2103. OPERATOR "+"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF INTEGER;
  2104. BEGIN
  2105. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2106. SIZEOF( INTEGER ), AddAISILoop );
  2107. RETURN RESULT
  2108. END "+";
  2109. OPERATOR "+"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  2110. BEGIN
  2111. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2112. SIZEOF( INTEGER ), AddAISILoop );
  2113. RETURN RESULT
  2114. END "+";
  2115. (** LONGINT *)
  2116. PROCEDURE AddALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2117. VAR lval, rval: LONGINT;
  2118. BEGIN
  2119. SYSTEM.GET( radr, rval );
  2120. WHILE (len > 0) DO
  2121. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval + rval ); INC( ladr, linc );
  2122. INC( dadr, dinc ); DEC( len );
  2123. END;
  2124. END AddALSLLoop;
  2125. OPERATOR "+"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF LONGINT;
  2126. BEGIN
  2127. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2128. SIZEOF( LONGINT ), AddALSLLoop );
  2129. RETURN RESULT
  2130. END "+";
  2131. OPERATOR "+"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  2132. BEGIN
  2133. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2134. SIZEOF( LONGINT ), AddALSLLoop );
  2135. RETURN RESULT
  2136. END "+";
  2137. (** REAL *)
  2138. PROCEDURE AddARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2139. VAR lval, rval: REAL;
  2140. BEGIN
  2141. SYSTEM.GET( radr, rval );
  2142. WHILE (len > 0) DO
  2143. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval + rval ); INC( ladr, linc );
  2144. INC( dadr, dinc ); DEC( len );
  2145. END;
  2146. END AddARSRLoop;
  2147. OPERATOR "+"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF REAL;
  2148. BEGIN
  2149. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2150. AddARSRLoop );
  2151. RETURN RESULT
  2152. END "+";
  2153. OPERATOR "+"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  2154. BEGIN
  2155. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  2156. AddARSRLoop );
  2157. RETURN RESULT
  2158. END "+";
  2159. (** LONGREAL *)
  2160. PROCEDURE AddAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2161. VAR lval, rval: LONGREAL;
  2162. BEGIN
  2163. SYSTEM.GET( radr, rval );
  2164. WHILE (len > 0) DO
  2165. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval + rval ); INC( ladr, linc );
  2166. INC( dadr, dinc ); DEC( len );
  2167. END;
  2168. END AddAXSXLoop;
  2169. OPERATOR "+"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF LONGREAL;
  2170. BEGIN
  2171. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2172. SIZEOF( LONGREAL ), AddAXSXLoop );
  2173. RETURN RESULT
  2174. END "+";
  2175. OPERATOR "+"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  2176. BEGIN
  2177. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2178. SIZEOF( LONGREAL ), AddAXSXLoop );
  2179. RETURN RESULT
  2180. END "+";
  2181. (** COMPLEX *)
  2182. PROCEDURE AddAZSZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2183. VAR lval, rval: COMPLEX;
  2184. BEGIN
  2185. SYSTEM.GET( radr, rval );
  2186. WHILE (len > 0) DO
  2187. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval + rval ); INC( ladr, linc );
  2188. INC( dadr, dinc ); DEC( len );
  2189. END;
  2190. END AddAZSZLoop;
  2191. OPERATOR "+"*(CONST left: ARRAY [ ? ] OF COMPLEX; right: COMPLEX ): ARRAY [ ? ] OF COMPLEX;
  2192. BEGIN
  2193. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( COMPLEX ),
  2194. AddAZSZLoop );
  2195. RETURN RESULT
  2196. END "+";
  2197. OPERATOR "+"*(left: COMPLEX; CONST right: ARRAY [ ? ] OF COMPLEX): ARRAY [ ? ] OF COMPLEX;
  2198. BEGIN
  2199. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( COMPLEX ),
  2200. AddAZSZLoop );
  2201. RETURN RESULT
  2202. END "+";
  2203. (** LONGCOMPLEX *)
  2204. PROCEDURE AddALZSLZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2205. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL;
  2206. BEGIN
  2207. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  2208. WHILE (len > 0) DO
  2209. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  2210. SYSTEM.PUT( dadr, lvalRe + rvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), lvalIm + rvalIm );
  2211. INC( ladr, linc );
  2212. INC( dadr, dinc ); DEC( len );
  2213. END;
  2214. END AddALZSLZLoop;
  2215. OPERATOR "+"*(CONST left: ARRAY [ ? ] OF LONGCOMPLEX; right: LONGCOMPLEX ): ARRAY [ ? ] OF LONGCOMPLEX;
  2216. BEGIN
  2217. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGCOMPLEX ),
  2218. AddALZSLZLoop );
  2219. RETURN RESULT
  2220. END "+";
  2221. OPERATOR "+"*(left: LONGCOMPLEX; CONST right: ARRAY [ ? ] OF LONGCOMPLEX): ARRAY [ ? ] OF LONGCOMPLEX;
  2222. BEGIN
  2223. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( LONGCOMPLEX ),
  2224. AddALZSLZLoop );
  2225. RETURN RESULT
  2226. END "+";
  2227. (*** subtraction array - array -> array ********************************************************************)
  2228. (** SHORTINT *)
  2229. PROCEDURE SubASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2230. VAR lval, rval: SHORTINT;
  2231. BEGIN
  2232. WHILE (len > 0) DO
  2233. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval - rval );
  2234. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2235. END;
  2236. END SubASASLoop;
  2237. OPERATOR "-"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  2238. BEGIN
  2239. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2240. SIZEOF( SHORTINT ), SubASASLoop );
  2241. RETURN RESULT
  2242. END "-";
  2243. (** INTEGER *)
  2244. PROCEDURE SubAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2245. VAR lval, rval: INTEGER;
  2246. BEGIN
  2247. WHILE (len > 0) DO
  2248. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval - rval );
  2249. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2250. END;
  2251. END SubAIAILoop;
  2252. OPERATOR "-"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  2253. BEGIN
  2254. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2255. SIZEOF( INTEGER ), SubAIAILoop );
  2256. RETURN RESULT
  2257. END "-";
  2258. (** LONGINT *)
  2259. PROCEDURE SubALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2260. VAR lval, rval: LONGINT;
  2261. BEGIN
  2262. WHILE (len > 0) DO
  2263. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval - rval );
  2264. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2265. END;
  2266. END SubALALLoop;
  2267. OPERATOR "-"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT;
  2268. BEGIN
  2269. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2270. SIZEOF( LONGINT ), SubALALLoop );
  2271. RETURN RESULT
  2272. END "-";
  2273. (** REAL *)
  2274. PROCEDURE SubARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2275. VAR lval, rval: REAL;
  2276. BEGIN
  2277. WHILE (len > 0) DO
  2278. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval - rval );
  2279. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2280. END;
  2281. END SubARARLoop;
  2282. OPERATOR "-"*(CONST left,right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  2283. BEGIN
  2284. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2285. SubARARLoop );
  2286. RETURN RESULT
  2287. END "-";
  2288. (** LONGREAL *)
  2289. PROCEDURE SubAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2290. VAR lval, rval: LONGREAL;
  2291. BEGIN
  2292. WHILE (len > 0) DO
  2293. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval - rval );
  2294. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2295. END;
  2296. END SubAXAXLoop;
  2297. OPERATOR "-"*(CONST left,right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  2298. BEGIN
  2299. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2300. SIZEOF( LONGREAL ), SubAXAXLoop );
  2301. RETURN RESULT
  2302. END "-";
  2303. (** COMPLEX *)
  2304. PROCEDURE SubAZAZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2305. VAR lval, rval: COMPLEX;
  2306. BEGIN
  2307. WHILE (len > 0) DO
  2308. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval - rval );
  2309. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2310. END;
  2311. END SubAZAZLoop;
  2312. OPERATOR "-"*(CONST left,right: ARRAY [?] OF COMPLEX): ARRAY [?] OF COMPLEX;
  2313. BEGIN
  2314. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2315. SIZEOF( COMPLEX ), SubAZAZLoop );
  2316. RETURN RESULT
  2317. END "-";
  2318. (** LONGCOMPLEX *)
  2319. PROCEDURE SubALZALZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2320. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL;
  2321. BEGIN
  2322. WHILE (len > 0) DO
  2323. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  2324. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  2325. SYSTEM.PUT( dadr, lvalRe-rvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), lvalIm-rvalIm );
  2326. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  2327. DEC( len );
  2328. END;
  2329. END SubALZALZLoop;
  2330. OPERATOR "-"*(CONST left,right: ARRAY [?] OF LONGCOMPLEX): ARRAY [?] OF LONGCOMPLEX;
  2331. BEGIN
  2332. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2333. SIZEOF( LONGCOMPLEX ), SubALZALZLoop );
  2334. RETURN RESULT
  2335. END "-";
  2336. (*** subtraction array-scalar -> array ********************************************************************)
  2337. (** SHORTINT *)
  2338. OPERATOR "-"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF SHORTINT; (* a: left, b: right, c: dest *)
  2339. BEGIN
  2340. RESULT := left + (-right);
  2341. RETURN RESULT
  2342. END "-";
  2343. (** INTEGER *)
  2344. OPERATOR "-"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF INTEGER;
  2345. BEGIN
  2346. RESULT := left + (-right);
  2347. RETURN RESULT
  2348. END "-";
  2349. (** LONGINT *)
  2350. OPERATOR "-"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF LONGINT;
  2351. BEGIN
  2352. RESULT := left + (-right);
  2353. RETURN RESULT
  2354. END "-";
  2355. (** REAL *)
  2356. OPERATOR "-"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF REAL;
  2357. BEGIN
  2358. RESULT := left + (-right);
  2359. RETURN RESULT
  2360. END "-";
  2361. (** LONGREAL *)
  2362. OPERATOR "-"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF LONGREAL;
  2363. BEGIN
  2364. RESULT := left + (-right);
  2365. RETURN RESULT
  2366. END "-";
  2367. (** COMPLEX *)
  2368. OPERATOR "-"*(CONST left: ARRAY [ ? ] OF COMPLEX; right: COMPLEX ): ARRAY [ ? ] OF COMPLEX;
  2369. BEGIN
  2370. RESULT := left + (-right);
  2371. RETURN RESULT
  2372. END "-";
  2373. (** LONGCOMPLEX *)
  2374. OPERATOR "-"*(CONST left: ARRAY [ ? ] OF LONGCOMPLEX; right: LONGCOMPLEX ): ARRAY [ ? ] OF LONGCOMPLEX;
  2375. BEGIN
  2376. RESULT := left + (-right);
  2377. RETURN RESULT
  2378. END "-";
  2379. (*** subtraction scalar-array -> array ********************************************************************)
  2380. (** SHORTINT *)
  2381. PROCEDURE SubSSASLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2382. VAR lval, rval, dval: SHORTINT;
  2383. BEGIN
  2384. SYSTEM.GET( radr, rval );
  2385. WHILE (len > 0) DO
  2386. SYSTEM.GET( ladr, lval ); dval := rval - lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  2387. INC( dadr, dinc ); DEC( len );
  2388. END;
  2389. END SubSSASLoop;
  2390. OPERATOR "-"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  2391. BEGIN
  2392. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2393. SIZEOF( SHORTINT ), SubSSASLoop );
  2394. RETURN RESULT
  2395. END "-";
  2396. (** INTEGER *)
  2397. PROCEDURE SubSIAILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2398. VAR lval, rval, dval: INTEGER;
  2399. BEGIN
  2400. SYSTEM.GET( radr, rval );
  2401. WHILE (len > 0) DO
  2402. SYSTEM.GET( ladr, lval ); dval := rval - lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  2403. INC( dadr, dinc ); DEC( len );
  2404. END;
  2405. END SubSIAILoop;
  2406. OPERATOR "-"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  2407. BEGIN
  2408. ApplyBinaryASAOp( ADDRESSOF( RESULT), ADDRESSOF( right ), ADDRESSOF( left ),
  2409. SIZEOF( INTEGER ), SubSIAILoop );
  2410. RETURN RESULT
  2411. END "-";
  2412. (** LONGINT *)
  2413. PROCEDURE SubSLALLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2414. VAR lval, rval, dval: LONGINT;
  2415. BEGIN
  2416. SYSTEM.GET( radr, rval );
  2417. WHILE (len > 0) DO
  2418. SYSTEM.GET( ladr, lval ); dval := rval - lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  2419. INC( dadr, dinc ); DEC( len );
  2420. END;
  2421. END SubSLALLoop;
  2422. OPERATOR "-"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  2423. BEGIN
  2424. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2425. SIZEOF( LONGINT ), SubSLALLoop );
  2426. RETURN RESULT
  2427. END "-";
  2428. (** REAL *)
  2429. PROCEDURE SubSRARLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2430. VAR lval, rval, dval: REAL;
  2431. BEGIN
  2432. SYSTEM.GET( radr, rval );
  2433. WHILE (len > 0) DO
  2434. SYSTEM.GET( ladr, lval ); dval := rval - lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  2435. INC( dadr, dinc ); DEC( len );
  2436. END;
  2437. END SubSRARLoop;
  2438. OPERATOR "-"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  2439. BEGIN
  2440. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  2441. SubSRARLoop );
  2442. RETURN RESULT
  2443. END "-";
  2444. (** LONGREAL *)
  2445. PROCEDURE SubSXAXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2446. VAR lval, rval, dval: LONGREAL;
  2447. BEGIN
  2448. SYSTEM.GET( radr, rval );
  2449. WHILE (len > 0) DO
  2450. SYSTEM.GET( ladr, lval ); dval := rval - lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  2451. INC( dadr, dinc ); DEC( len );
  2452. END;
  2453. END SubSXAXLoop;
  2454. OPERATOR "-"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  2455. BEGIN
  2456. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2457. SIZEOF( LONGREAL ), SubSXAXLoop );
  2458. RETURN RESULT
  2459. END "-";
  2460. (** COMPLEX *)
  2461. PROCEDURE SubSZAZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2462. VAR lval, rval, dval: COMPLEX;
  2463. BEGIN
  2464. SYSTEM.GET( radr, rval );
  2465. WHILE (len > 0) DO
  2466. SYSTEM.GET( ladr, lval ); dval := rval - lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  2467. INC( dadr, dinc ); DEC( len );
  2468. END;
  2469. END SubSZAZLoop;
  2470. OPERATOR "-"*(left: COMPLEX; CONST right: ARRAY [ ? ] OF COMPLEX): ARRAY [ ? ] OF COMPLEX;
  2471. BEGIN
  2472. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2473. SIZEOF( COMPLEX ), SubSZAZLoop );
  2474. RETURN RESULT
  2475. END "-";
  2476. (** LONGCOMPLEX *)
  2477. PROCEDURE SubSLZALZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2478. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL;
  2479. BEGIN
  2480. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  2481. WHILE (len > 0) DO
  2482. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  2483. SYSTEM.PUT( dadr, rvalRe-lvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), rvalIm-lvalIm );
  2484. INC( ladr, linc );
  2485. INC( dadr, dinc ); DEC( len );
  2486. END;
  2487. END SubSLZALZLoop;
  2488. OPERATOR "-"*(left: LONGCOMPLEX; CONST right: ARRAY [ ? ] OF LONGCOMPLEX): ARRAY [ ? ] OF LONGCOMPLEX;
  2489. BEGIN
  2490. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2491. SIZEOF( LONGCOMPLEX ), SubSLZALZLoop );
  2492. RETURN RESULT
  2493. END "-";
  2494. (*** element-wise multiply array x array -> array ********************************************************************)
  2495. (** SHORTINT *)
  2496. PROCEDURE EMulASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2497. VAR lval, rval: SHORTINT;
  2498. BEGIN
  2499. WHILE (len > 0) DO
  2500. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval * rval );
  2501. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2502. END;
  2503. END EMulASASLoop;
  2504. OPERATOR ".*"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  2505. BEGIN
  2506. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2507. SIZEOF( SHORTINT ), EMulASASLoop );
  2508. RETURN RESULT
  2509. END ".*";
  2510. (** INTEGER *)
  2511. PROCEDURE EMulAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2512. VAR lval, rval: INTEGER; dval: INTEGER;
  2513. BEGIN
  2514. WHILE (len > 0) DO
  2515. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval * rval;
  2516. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  2517. DEC( len );
  2518. END;
  2519. END EMulAIAILoop;
  2520. OPERATOR ".*"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  2521. BEGIN
  2522. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2523. SIZEOF( INTEGER ), EMulAIAILoop );
  2524. RETURN RESULT
  2525. END ".*";
  2526. (** LONGINT *)
  2527. PROCEDURE EMulALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2528. VAR lval, rval: LONGINT;
  2529. BEGIN
  2530. WHILE (len > 0) DO
  2531. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval * rval );
  2532. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2533. END;
  2534. END EMulALALLoop;
  2535. OPERATOR ".*"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT;
  2536. BEGIN
  2537. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2538. SIZEOF( LONGINT ), EMulALALLoop );
  2539. RETURN RESULT
  2540. END ".*";
  2541. (** REAL *)
  2542. PROCEDURE EMulARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2543. VAR lval, rval: REAL;
  2544. BEGIN
  2545. WHILE (len > 0) DO
  2546. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval * rval );
  2547. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2548. END;
  2549. END EMulARARLoop;
  2550. OPERATOR ".*"*(CONST left,right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  2551. BEGIN
  2552. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2553. EMulARARLoop );
  2554. RETURN RESULT
  2555. END ".*";
  2556. (** LONGREAL *)
  2557. PROCEDURE EMulAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2558. VAR lval, rval: LONGREAL;
  2559. BEGIN
  2560. WHILE (len > 0) DO
  2561. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval * rval );
  2562. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2563. END;
  2564. END EMulAXAXLoop;
  2565. OPERATOR ".*"*(CONST left,right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  2566. BEGIN
  2567. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2568. SIZEOF( LONGREAL ), EMulAXAXLoop );
  2569. RETURN RESULT
  2570. END ".*";
  2571. (** COMPLEX *)
  2572. PROCEDURE EMulAZAZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2573. VAR lval, rval: COMPLEX;
  2574. BEGIN
  2575. WHILE (len > 0) DO
  2576. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval * rval );
  2577. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2578. END;
  2579. END EMulAZAZLoop;
  2580. OPERATOR ".*"*(CONST left,right: ARRAY [?] OF COMPLEX): ARRAY [?] OF COMPLEX;
  2581. BEGIN
  2582. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2583. SIZEOF( COMPLEX ), EMulAZAZLoop );
  2584. RETURN RESULT
  2585. END ".*";
  2586. (** LONGCOMPLEX *)
  2587. PROCEDURE EMulALZALZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2588. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL;
  2589. BEGIN
  2590. WHILE (len > 0) DO
  2591. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  2592. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  2593. SYSTEM.PUT( dadr, lvalRe*rvalRe - lvalIm*rvalIm ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), lvalRe*rvalIm + lvalIm*rvalRe );
  2594. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  2595. DEC( len );
  2596. END;
  2597. END EMulALZALZLoop;
  2598. OPERATOR ".*"*(CONST left,right: ARRAY [?] OF LONGCOMPLEX): ARRAY [?] OF LONGCOMPLEX;
  2599. BEGIN
  2600. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2601. SIZEOF( LONGCOMPLEX ), EMulALZALZLoop );
  2602. RETURN RESULT
  2603. END ".*";
  2604. (*** element-wise multiply and add array x array -> array ********************************************************************)
  2605. (** SHORTINT *)
  2606. PROCEDURE EMulIncASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2607. VAR lval, rval,dval: SHORTINT;
  2608. BEGIN
  2609. WHILE (len > 0) DO
  2610. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.GET(dadr,dval); SYSTEM.PUT( dadr, dval + lval * rval );
  2611. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2612. END;
  2613. END EMulIncASASLoop;
  2614. OPERATOR ".*+"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  2615. BEGIN
  2616. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2617. SIZEOF( SHORTINT ), EMulIncASASLoop );
  2618. END ".*+";
  2619. (** INTEGER *)
  2620. PROCEDURE EMulIncAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2621. VAR lval, rval,dval: INTEGER;
  2622. BEGIN
  2623. WHILE (len > 0) DO
  2624. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );SYSTEM.GET(dadr,dval); dval := dval + lval * rval;
  2625. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  2626. DEC( len );
  2627. END;
  2628. END EMulIncAIAILoop;
  2629. OPERATOR ".*+"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  2630. BEGIN
  2631. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2632. SIZEOF( INTEGER ), EMulIncAIAILoop );
  2633. END ".*+";
  2634. (** LONGINT *)
  2635. PROCEDURE EMulIncALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2636. VAR lval, rval,dval: LONGINT;
  2637. BEGIN
  2638. WHILE (len > 0) DO
  2639. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.GET(dadr,dval); SYSTEM.PUT( dadr, dval+ lval * rval );
  2640. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2641. END;
  2642. END EMulIncALALLoop;
  2643. OPERATOR ".*+"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT;
  2644. BEGIN
  2645. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2646. SIZEOF( LONGINT ), EMulIncALALLoop );
  2647. END ".*+";
  2648. (** REAL *)
  2649. PROCEDURE EMulIncARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2650. VAR lval, rval,dval: REAL;
  2651. BEGIN
  2652. WHILE (len > 0) DO
  2653. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.GET(dadr,dval); SYSTEM.PUT( dadr, dval+ lval * rval );
  2654. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2655. END;
  2656. END EMulIncARARLoop;
  2657. OPERATOR ".*+"*(CONST left,right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  2658. BEGIN
  2659. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2660. EMulIncARARLoop );
  2661. END ".*+";
  2662. (** LONGREAL *)
  2663. PROCEDURE EMulIncAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  2664. VAR lval, rval,dval: LONGREAL;
  2665. BEGIN
  2666. WHILE (len > 0) DO
  2667. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.GET(dadr,dval); SYSTEM.PUT( dadr,dval+ lval * rval );
  2668. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  2669. END;
  2670. END EMulIncAXAXLoop;
  2671. OPERATOR ".*+"*(CONST left,right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  2672. BEGIN
  2673. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2674. SIZEOF( LONGREAL ), EMulIncAXAXLoop );
  2675. END ".*+";
  2676. (*** multiply array x scalar -> array and scalar + array -> array ********************************************************************)
  2677. (** SHORTINT *)
  2678. PROCEDURE MulASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2679. VAR lval, rval: SHORTINT;
  2680. BEGIN
  2681. SYSTEM.GET( radr, rval );
  2682. WHILE (len > 0) DO
  2683. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval * rval ); INC( ladr, linc );
  2684. INC( dadr, dinc ); DEC( len );
  2685. END;
  2686. END MulASSSLoop;
  2687. OPERATOR "*"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF SHORTINT;
  2688. BEGIN
  2689. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2690. SIZEOF( SHORTINT ), MulASSSLoop );
  2691. RETURN RESULT
  2692. END "*";
  2693. OPERATOR "*"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  2694. BEGIN
  2695. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2696. SIZEOF( SHORTINT ), MulASSSLoop );
  2697. RETURN RESULT
  2698. END "*";
  2699. (** INTEGER *)
  2700. PROCEDURE MulAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2701. VAR lval, rval: INTEGER;
  2702. BEGIN
  2703. SYSTEM.GET( radr, rval );
  2704. WHILE (len > 0) DO
  2705. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval * rval ); INC( ladr, linc );
  2706. INC( dadr, dinc ); DEC( len );
  2707. END;
  2708. END MulAISILoop;
  2709. OPERATOR "*"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF INTEGER;
  2710. BEGIN
  2711. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2712. SIZEOF( INTEGER ), MulAISILoop );
  2713. RETURN RESULT
  2714. END "*";
  2715. OPERATOR "*"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  2716. BEGIN
  2717. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2718. SIZEOF( INTEGER ), MulAISILoop );
  2719. RETURN RESULT
  2720. END "*";
  2721. (** LONGINT *)
  2722. PROCEDURE MulALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2723. VAR lval, rval: LONGINT;
  2724. BEGIN
  2725. SYSTEM.GET( radr, rval );
  2726. WHILE (len > 0) DO
  2727. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval * rval ); INC( ladr, linc );
  2728. INC( dadr, dinc ); DEC( len );
  2729. END;
  2730. END MulALSLLoop;
  2731. OPERATOR "*"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF LONGINT;
  2732. BEGIN
  2733. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2734. SIZEOF( LONGINT ), MulALSLLoop );
  2735. RETURN RESULT
  2736. END "*";
  2737. OPERATOR "*"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  2738. BEGIN
  2739. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2740. SIZEOF( LONGINT ), MulALSLLoop );
  2741. RETURN RESULT
  2742. END "*";
  2743. (** REAL *)
  2744. PROCEDURE MulARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2745. VAR lval, rval: REAL;
  2746. BEGIN
  2747. SYSTEM.GET( radr, rval );
  2748. WHILE (len > 0) DO
  2749. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval * rval ); INC( ladr, linc );
  2750. INC( dadr, dinc ); DEC( len );
  2751. END;
  2752. END MulARSRLoop;
  2753. OPERATOR "*"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF REAL;
  2754. BEGIN
  2755. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2756. loopMulARSR );
  2757. RETURN RESULT
  2758. END "*";
  2759. OPERATOR "*"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  2760. BEGIN
  2761. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  2762. loopMulARSR );
  2763. RETURN RESULT
  2764. END "*";
  2765. (** LONGREAL *)
  2766. PROCEDURE MulAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2767. VAR lval, rval: LONGREAL;
  2768. BEGIN
  2769. IF debug THEN
  2770. KernelLog.String( "MulAXSXLoop, ladr,radr,dadr,linc,dinc,len= " ); KernelLog.Int( ladr, 10 ); KernelLog.Int( radr, 10 );
  2771. KernelLog.Int( dadr, 10 ); KernelLog.Int( linc, 10 ); KernelLog.Int( dinc, 10 );
  2772. KernelLog.Int( len, 10 ); KernelLog.Ln;
  2773. END;
  2774. SYSTEM.GET( radr, rval );
  2775. WHILE (len > 0) DO
  2776. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval * rval ); INC( ladr, linc );
  2777. INC( dadr, dinc ); DEC( len );
  2778. END;
  2779. END MulAXSXLoop;
  2780. OPERATOR "*"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF LONGREAL;
  2781. BEGIN
  2782. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2783. SIZEOF( LONGREAL ), loopMulAXSX );
  2784. RETURN RESULT
  2785. END "*";
  2786. OPERATOR "*"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  2787. BEGIN
  2788. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2789. SIZEOF( LONGREAL ), loopMulAXSX );
  2790. RETURN RESULT
  2791. END "*";
  2792. (** COMPLEX *)
  2793. PROCEDURE MulAZSZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2794. VAR lval, rval: COMPLEX;
  2795. BEGIN
  2796. SYSTEM.GET( radr, rval );
  2797. WHILE (len > 0) DO
  2798. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval * rval ); INC( ladr, linc );
  2799. INC( dadr, dinc ); DEC( len );
  2800. END;
  2801. END MulAZSZLoop;
  2802. OPERATOR "*"*(CONST left: ARRAY [ ? ] OF COMPLEX; right: COMPLEX ): ARRAY [ ? ] OF COMPLEX;
  2803. BEGIN
  2804. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( COMPLEX ),
  2805. loopMulAZSZ );
  2806. RETURN RESULT
  2807. END "*";
  2808. OPERATOR "*"*(left: COMPLEX; CONST right: ARRAY [ ? ] OF COMPLEX): ARRAY [ ? ] OF COMPLEX;
  2809. BEGIN
  2810. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( COMPLEX ),
  2811. loopMulAZSZ );
  2812. RETURN RESULT
  2813. END "*";
  2814. (** LONGCOMPLEX *)
  2815. PROCEDURE MulALZSLZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2816. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL;
  2817. BEGIN
  2818. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  2819. WHILE (len > 0) DO
  2820. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  2821. SYSTEM.PUT( dadr, lvalRe * rvalRe - lvalIm*rvalIm ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), lvalRe * rvalIm + lvalIm*rvalRe );
  2822. INC( ladr, linc );
  2823. INC( dadr, dinc ); DEC( len );
  2824. END;
  2825. END MulALZSLZLoop;
  2826. OPERATOR "*"*(CONST left: ARRAY [ ? ] OF LONGCOMPLEX; right: LONGCOMPLEX ): ARRAY [ ? ] OF LONGCOMPLEX;
  2827. BEGIN
  2828. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGCOMPLEX ),
  2829. loopMulALZSLZ );
  2830. RETURN RESULT
  2831. END "*";
  2832. OPERATOR "*"*(left: LONGCOMPLEX; CONST right: ARRAY [ ? ] OF LONGCOMPLEX): ARRAY [ ? ] OF LONGCOMPLEX;
  2833. BEGIN
  2834. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( LONGCOMPLEX ),
  2835. loopMulALZSLZ );
  2836. RETURN RESULT
  2837. END "*";
  2838. (*** multiply and add array * scalar -> array and scalar * array -> array ********************************************************************)
  2839. (** SHORTINT *)
  2840. PROCEDURE IncMulASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2841. VAR lval, rval, dval: SHORTINT;
  2842. BEGIN
  2843. SYSTEM.GET( radr, rval );
  2844. WHILE (len > 0) DO
  2845. SYSTEM.GET( ladr, lval ); SYSTEM.GET( dadr, dval ); SYSTEM.PUT( dadr, dval + lval * rval );
  2846. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  2847. END;
  2848. END IncMulASSSLoop;
  2849. OPERATOR "IncMul"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF SHORTINT;
  2850. BEGIN
  2851. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2852. SIZEOF( SHORTINT ), IncMulASSSLoop );
  2853. END "IncMul";
  2854. OPERATOR "IncMul"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  2855. BEGIN
  2856. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2857. SIZEOF( SHORTINT ), IncMulASSSLoop );
  2858. RETURN RESULT
  2859. END "IncMul";
  2860. OPERATOR "DecMul"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF SHORTINT;
  2861. BEGIN
  2862. RESULT := -RESULT;
  2863. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2864. SIZEOF( SHORTINT ), IncMulASSSLoop );
  2865. RESULT := -RESULT;
  2866. RETURN RESULT
  2867. END "DecMul";
  2868. OPERATOR "DecMul"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  2869. BEGIN
  2870. RESULT := -RESULT;
  2871. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2872. SIZEOF( SHORTINT ), IncMulASSSLoop );
  2873. RESULT := -RESULT;
  2874. RETURN RESULT
  2875. END "DecMul";
  2876. (** INTEGER *)
  2877. PROCEDURE IncMulAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2878. VAR lval, rval, dval: INTEGER;
  2879. BEGIN
  2880. SYSTEM.GET( radr, rval );
  2881. WHILE (len > 0) DO
  2882. SYSTEM.GET( ladr, lval ); SYSTEM.GET( dadr, dval ); SYSTEM.PUT( dadr, dval + lval * rval );
  2883. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  2884. END;
  2885. END IncMulAISILoop;
  2886. OPERATOR "IncMul"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF INTEGER;
  2887. BEGIN
  2888. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2889. SIZEOF( INTEGER ), IncMulAISILoop );
  2890. RETURN RESULT
  2891. END "IncMul";
  2892. OPERATOR "IncMul"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  2893. BEGIN
  2894. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2895. SIZEOF( INTEGER ), IncMulAISILoop );
  2896. RETURN RESULT
  2897. END "IncMul";
  2898. OPERATOR "DecMul"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF INTEGER;
  2899. BEGIN
  2900. RESULT := -RESULT;
  2901. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2902. SIZEOF( INTEGER ), IncMulAISILoop );
  2903. RESULT := -RESULT;
  2904. RETURN RESULT
  2905. END "DecMul";
  2906. OPERATOR "DecMul"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  2907. BEGIN
  2908. RESULT := -RESULT;
  2909. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2910. SIZEOF( INTEGER ), IncMulAISILoop );
  2911. RESULT := -RESULT;
  2912. RETURN RESULT
  2913. END "DecMul";
  2914. (** LONGINT *)
  2915. PROCEDURE IncMulALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2916. VAR lval, rval, dval: LONGINT;
  2917. BEGIN
  2918. SYSTEM.GET( radr, rval );
  2919. WHILE (len > 0) DO
  2920. SYSTEM.GET( ladr, lval ); SYSTEM.GET( dadr, dval ); SYSTEM.PUT( dadr, dval + lval * rval );
  2921. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  2922. END;
  2923. END IncMulALSLLoop;
  2924. OPERATOR "IncMul"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF LONGINT;
  2925. BEGIN
  2926. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2927. SIZEOF( LONGINT ), IncMulALSLLoop );
  2928. RETURN RESULT
  2929. END "IncMul";
  2930. OPERATOR "IncMul"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  2931. BEGIN
  2932. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2933. SIZEOF( LONGINT ), IncMulALSLLoop );
  2934. RETURN RESULT
  2935. END "IncMul";
  2936. OPERATOR "DecMul"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF LONGINT;
  2937. BEGIN
  2938. RESULT := -RESULT;
  2939. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  2940. SIZEOF( LONGINT ), IncMulALSLLoop );
  2941. RESULT := -RESULT;
  2942. RETURN RESULT
  2943. END "DecMul";
  2944. OPERATOR "DecMul"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  2945. BEGIN
  2946. RESULT := -RESULT;
  2947. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  2948. SIZEOF( LONGINT ), IncMulALSLLoop );
  2949. RESULT := -RESULT;
  2950. RETURN RESULT
  2951. END "DecMul";
  2952. (** REAL *)
  2953. PROCEDURE IncMulARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2954. VAR lval, rval, dval: REAL;
  2955. BEGIN
  2956. SYSTEM.GET( radr, rval );
  2957. WHILE (len > 0) DO
  2958. SYSTEM.GET( ladr, lval ); SYSTEM.GET( dadr, dval ); SYSTEM.PUT( dadr, dval + lval * rval );
  2959. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  2960. END;
  2961. END IncMulARSRLoop;
  2962. OPERATOR "IncMul"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF REAL;
  2963. BEGIN
  2964. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2965. loopIncMulARSR );
  2966. RETURN RESULT
  2967. END "IncMul";
  2968. OPERATOR "IncMul"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  2969. BEGIN
  2970. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  2971. loopIncMulARSR );
  2972. RETURN RESULT
  2973. END "IncMul";
  2974. OPERATOR "DecMul"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF REAL;
  2975. BEGIN
  2976. RESULT := -RESULT;
  2977. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  2978. loopIncMulARSR );
  2979. RESULT := -RESULT;
  2980. RETURN RESULT
  2981. END "DecMul";
  2982. OPERATOR "DecMul"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  2983. BEGIN
  2984. RESULT := -RESULT;
  2985. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  2986. loopIncMulARSR );
  2987. RESULT := -RESULT;
  2988. RETURN RESULT
  2989. END "DecMul";
  2990. (** LONGREAL *)
  2991. PROCEDURE IncMulAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  2992. VAR lval, rval, dval: LONGREAL;
  2993. BEGIN
  2994. IF debug THEN
  2995. KernelLog.String( "IncMulAXSXLoop, ladr,radr,dadr,linc,dinc,len= " ); KernelLog.Int( ladr, 10 ); KernelLog.Int( radr, 10 );
  2996. KernelLog.Int( dadr, 10 ); KernelLog.Int( linc, 10 ); KernelLog.Int( dinc, 10 );
  2997. KernelLog.Int( len, 10 ); KernelLog.Ln;
  2998. END;
  2999. SYSTEM.GET( radr, rval );
  3000. WHILE (len > 0) DO
  3001. SYSTEM.GET( ladr, lval ); SYSTEM.GET( dadr, dval ); SYSTEM.PUT( dadr, dval + lval * rval );
  3002. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3003. END;
  3004. END IncMulAXSXLoop;
  3005. OPERATOR "IncMul"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF LONGREAL;
  3006. BEGIN
  3007. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3008. SIZEOF( LONGREAL ), loopIncMulAXSX );
  3009. RETURN RESULT
  3010. END "IncMul";
  3011. OPERATOR "IncMul"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  3012. BEGIN
  3013. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3014. SIZEOF( LONGREAL ), loopIncMulAXSX );
  3015. RETURN RESULT
  3016. END "IncMul";
  3017. OPERATOR "DecMul"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF LONGREAL;
  3018. BEGIN
  3019. RESULT := -RESULT;
  3020. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3021. SIZEOF( LONGREAL ), loopIncMulAXSX );
  3022. RESULT := -RESULT;
  3023. RETURN RESULT
  3024. END "DecMul";
  3025. OPERATOR "DecMul"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  3026. BEGIN
  3027. RESULT := -RESULT;
  3028. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3029. SIZEOF( LONGREAL ), loopIncMulAXSX );
  3030. RESULT := -RESULT;
  3031. RETURN RESULT
  3032. END "DecMul";
  3033. (*** element-wise division array / array -> array ********************************************************************)
  3034. (** SHORTINT *)
  3035. PROCEDURE EDivideASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3036. VAR lval, rval: SHORTINT; dval: REAL;
  3037. BEGIN
  3038. WHILE (len > 0) DO
  3039. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval / rval;
  3040. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3041. DEC( len );
  3042. END;
  3043. END EDivideASASLoop;
  3044. OPERATOR "./"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF REAL;
  3045. BEGIN
  3046. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3047. EDivideASASLoop );
  3048. RETURN RESULT
  3049. END "./";
  3050. (** INTEGER *)
  3051. PROCEDURE EDivideAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3052. VAR lval, rval: INTEGER; dval: REAL;
  3053. BEGIN
  3054. WHILE (len > 0) DO
  3055. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval / rval;
  3056. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3057. DEC( len );
  3058. END;
  3059. END EDivideAIAILoop;
  3060. OPERATOR "./"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF REAL;
  3061. BEGIN
  3062. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3063. EDivideAIAILoop );
  3064. RETURN RESULT
  3065. END "./";
  3066. (** LONGINT *)
  3067. PROCEDURE EDivideALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3068. VAR lval, rval: LONGINT; dval: REAL;
  3069. BEGIN
  3070. WHILE (len > 0) DO
  3071. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval / rval;
  3072. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3073. DEC( len );
  3074. END;
  3075. END EDivideALALLoop;
  3076. OPERATOR "./"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF REAL;
  3077. BEGIN
  3078. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3079. EDivideALALLoop );
  3080. RETURN RESULT
  3081. END "./";
  3082. (** REAL *)
  3083. PROCEDURE EDivideARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3084. VAR lval, rval: REAL; dval: REAL;
  3085. BEGIN
  3086. WHILE (len > 0) DO
  3087. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval / rval;
  3088. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3089. DEC( len );
  3090. END;
  3091. END EDivideARARLoop;
  3092. OPERATOR "./"*(CONST left,right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  3093. BEGIN
  3094. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3095. EDivideARARLoop );
  3096. RETURN RESULT
  3097. END "./";
  3098. (** LONGREAL *)
  3099. PROCEDURE EDivideAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3100. VAR lval, rval: LONGREAL; dval: LONGREAL;
  3101. BEGIN
  3102. WHILE (len > 0) DO
  3103. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval / rval;
  3104. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3105. DEC( len );
  3106. END;
  3107. END EDivideAXAXLoop;
  3108. OPERATOR "./"*(CONST left,right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  3109. BEGIN
  3110. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3111. SIZEOF( LONGREAL ), EDivideAXAXLoop );
  3112. RETURN RESULT
  3113. END "./";
  3114. (** COMPLEX *)
  3115. PROCEDURE EDivideAZAZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3116. VAR lval, rval: COMPLEX; dval: COMPLEX;
  3117. BEGIN
  3118. WHILE (len > 0) DO
  3119. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval / rval;
  3120. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3121. DEC( len );
  3122. END;
  3123. END EDivideAZAZLoop;
  3124. OPERATOR "./"*(CONST left,right: ARRAY [?] OF COMPLEX): ARRAY [?] OF COMPLEX;
  3125. BEGIN
  3126. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3127. SIZEOF( COMPLEX ), EDivideAZAZLoop );
  3128. RETURN RESULT
  3129. END "./";
  3130. (** LONGCOMPLEX *)
  3131. PROCEDURE EDivideALZALZLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3132. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL; dvalRe, dvalIm: LONGREAL; v: LONGREAL;
  3133. BEGIN
  3134. WHILE (len > 0) DO
  3135. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  3136. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  3137. IF rvalIm # 0.0D0 THEN
  3138. v := 1.0D0/(rvalRe*rvalRe + rvalIm*rvalIm);
  3139. dvalRe := v*(lvalRe*rvalRe+lvalIm*rvalIm);
  3140. dvalIm := v*(lvalIm*rvalRe-lvalRe*rvalIm);
  3141. ELSE
  3142. dvalRe := lvalRe/rvalRe;
  3143. dvalIm := lvalIm/rvalRe;
  3144. END;
  3145. SYSTEM.PUT( dadr, dvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), dvalIm );
  3146. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3147. DEC( len );
  3148. END;
  3149. END EDivideALZALZLoop;
  3150. OPERATOR "./"*(CONST left,right: ARRAY [?] OF LONGCOMPLEX): ARRAY [?] OF LONGCOMPLEX;
  3151. BEGIN
  3152. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3153. SIZEOF( LONGCOMPLEX ), EDivideALZALZLoop );
  3154. RETURN RESULT
  3155. END "./";
  3156. (*** division array / scalar -> array and scalar / array -> array ********************************************************************)
  3157. (** SHORTINT *)
  3158. PROCEDURE DivideASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3159. VAR lval, rval: SHORTINT; dval: REAL;
  3160. BEGIN
  3161. SYSTEM.GET( radr, rval );
  3162. WHILE (len > 0) DO
  3163. SYSTEM.GET( ladr, lval ); dval := lval / rval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3164. INC( dadr, dinc ); DEC( len );
  3165. END;
  3166. END DivideASSSLoop;
  3167. OPERATOR "/"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF REAL;
  3168. BEGIN
  3169. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3170. DivideASSSLoop );
  3171. RETURN RESULT
  3172. END "/";
  3173. PROCEDURE DivideSSASLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3174. VAR lval, rval: SHORTINT; dval: REAL;
  3175. BEGIN
  3176. SYSTEM.GET( radr, rval );
  3177. WHILE (len > 0) DO
  3178. SYSTEM.GET( ladr, lval ); dval := rval / lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3179. INC( dadr, dinc ); DEC( len );
  3180. END;
  3181. END DivideSSASLoop;
  3182. OPERATOR "/"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF REAL;
  3183. BEGIN
  3184. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  3185. DivideSSASLoop );
  3186. RETURN RESULT
  3187. END "/";
  3188. (** INTEGER *)
  3189. PROCEDURE DivideAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3190. VAR lval, rval: INTEGER; dval: REAL;
  3191. BEGIN
  3192. SYSTEM.GET( radr, rval );
  3193. WHILE (len > 0) DO
  3194. SYSTEM.GET( ladr, lval ); dval := lval / rval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3195. INC( dadr, dinc ); DEC( len );
  3196. END;
  3197. END DivideAISILoop;
  3198. OPERATOR "/"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF REAL;
  3199. BEGIN
  3200. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3201. DivideAISILoop );
  3202. RETURN RESULT
  3203. END "/";
  3204. PROCEDURE DivideSIAILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3205. VAR lval, rval: INTEGER; dval: REAL;
  3206. BEGIN
  3207. SYSTEM.GET( radr, rval );
  3208. WHILE (len > 0) DO
  3209. SYSTEM.GET( ladr, lval ); dval := rval / lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3210. INC( dadr, dinc ); DEC( len );
  3211. END;
  3212. END DivideSIAILoop;
  3213. OPERATOR "/"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF REAL;
  3214. BEGIN
  3215. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  3216. DivideSIAILoop );
  3217. RETURN RESULT
  3218. END "/";
  3219. (** LONGINT *)
  3220. PROCEDURE DivideALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3221. VAR lval, rval: LONGINT; dval: REAL;
  3222. BEGIN
  3223. SYSTEM.GET( radr, rval );
  3224. WHILE (len > 0) DO
  3225. SYSTEM.GET( ladr, lval ); dval := lval / rval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3226. INC( dadr, dinc ); DEC( len );
  3227. END;
  3228. END DivideALSLLoop;
  3229. OPERATOR "/"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF REAL;
  3230. BEGIN
  3231. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3232. DivideALSLLoop );
  3233. RETURN RESULT
  3234. END "/";
  3235. PROCEDURE DivideSLALLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3236. VAR lval, rval: LONGINT; dval: REAL;
  3237. BEGIN
  3238. SYSTEM.GET( radr, rval );
  3239. WHILE (len > 0) DO
  3240. SYSTEM.GET( ladr, lval ); dval := rval / lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3241. INC( dadr, dinc ); DEC( len );
  3242. END;
  3243. END DivideSLALLoop;
  3244. OPERATOR "/"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF REAL;
  3245. BEGIN
  3246. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  3247. DivideSLALLoop );
  3248. RETURN RESULT
  3249. END "/";
  3250. (** REAL *)
  3251. PROCEDURE DivideARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3252. VAR lval, rval: REAL; dval: REAL;
  3253. BEGIN
  3254. SYSTEM.GET( radr, rval );
  3255. WHILE (len > 0) DO
  3256. SYSTEM.GET( ladr, lval ); dval := lval / rval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3257. INC( dadr, dinc ); DEC( len );
  3258. END;
  3259. END DivideARSRLoop;
  3260. OPERATOR "/"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF REAL;
  3261. BEGIN
  3262. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  3263. DivideARSRLoop );
  3264. RETURN RESULT
  3265. END "/";
  3266. PROCEDURE DivideSRARLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3267. VAR lval, rval: REAL; dval: REAL;
  3268. BEGIN
  3269. SYSTEM.GET( radr, rval );
  3270. WHILE (len > 0) DO
  3271. SYSTEM.GET( ladr, lval ); dval := rval / lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3272. INC( dadr, dinc ); DEC( len );
  3273. END;
  3274. END DivideSRARLoop;
  3275. OPERATOR "/"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  3276. BEGIN
  3277. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ), SIZEOF( REAL ),
  3278. DivideSRARLoop );
  3279. RETURN RESULT
  3280. END "/";
  3281. (** LONGREAL *)
  3282. PROCEDURE DivideAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3283. VAR lval, rval: LONGREAL; dval: LONGREAL;
  3284. BEGIN
  3285. SYSTEM.GET( radr, rval );
  3286. WHILE (len > 0) DO
  3287. SYSTEM.GET( ladr, lval ); dval := lval / rval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3288. INC( dadr, dinc ); DEC( len );
  3289. END;
  3290. END DivideAXSXLoop;
  3291. OPERATOR "/"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF LONGREAL;
  3292. BEGIN
  3293. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3294. SIZEOF( LONGREAL ), DivideAXSXLoop );
  3295. RETURN RESULT
  3296. END "/";
  3297. PROCEDURE DivideSXAXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3298. VAR lval, rval: LONGREAL; dval: LONGREAL;
  3299. BEGIN
  3300. SYSTEM.GET( radr, rval );
  3301. WHILE (len > 0) DO
  3302. SYSTEM.GET( ladr, lval ); dval := rval / lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3303. INC( dadr, dinc ); DEC( len );
  3304. END;
  3305. END DivideSXAXLoop;
  3306. OPERATOR "/"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  3307. BEGIN
  3308. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3309. SIZEOF( LONGREAL ), DivideSXAXLoop );
  3310. RETURN RESULT
  3311. END "/";
  3312. (** COMPLEX *)
  3313. PROCEDURE DivideAZSZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3314. VAR lval, rval: COMPLEX; dval: COMPLEX;
  3315. BEGIN
  3316. SYSTEM.GET( radr, rval );
  3317. WHILE (len > 0) DO
  3318. SYSTEM.GET( ladr, lval ); dval := lval / rval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3319. INC( dadr, dinc ); DEC( len );
  3320. END;
  3321. END DivideAZSZLoop;
  3322. OPERATOR "/"*(CONST left: ARRAY [ ? ] OF COMPLEX; right: COMPLEX ): ARRAY [ ? ] OF COMPLEX;
  3323. BEGIN
  3324. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3325. SIZEOF( COMPLEX ), DivideAZSZLoop );
  3326. RETURN RESULT
  3327. END "/";
  3328. PROCEDURE DivideSZAZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3329. VAR lval, rval: COMPLEX; dval: COMPLEX;
  3330. BEGIN
  3331. SYSTEM.GET( radr, rval );
  3332. WHILE (len > 0) DO
  3333. SYSTEM.GET( ladr, lval ); dval := rval / lval; SYSTEM.PUT( dadr, dval ); INC( ladr, linc );
  3334. INC( dadr, dinc ); DEC( len );
  3335. END;
  3336. END DivideSZAZLoop;
  3337. OPERATOR "/"*(left: COMPLEX; CONST right: ARRAY [ ? ] OF COMPLEX): ARRAY [ ? ] OF COMPLEX;
  3338. BEGIN
  3339. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3340. SIZEOF( COMPLEX ), DivideSZAZLoop );
  3341. RETURN RESULT
  3342. END "/";
  3343. (** LONGCOMPLEX *)
  3344. PROCEDURE DivideALZSLZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3345. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL; dvalRe, dvalIm: LONGREAL; v: LONGREAL;
  3346. BEGIN
  3347. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  3348. IF rvalIm # 0.0D0 THEN
  3349. v := 1.0D0/(rvalRe*rvalRe + rvalIm*rvalIm);
  3350. WHILE (len > 0) DO
  3351. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  3352. dvalRe := v*(lvalRe*rvalRe+lvalIm*rvalIm);
  3353. dvalIm := v*(lvalIm*rvalRe-lvalRe*rvalIm);
  3354. SYSTEM.PUT( dadr, dvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), dvalIm );
  3355. INC( ladr, linc );
  3356. INC( dadr, dinc ); DEC( len );
  3357. END;
  3358. ELSE
  3359. WHILE (len > 0) DO
  3360. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  3361. dvalRe := lvalRe / rvalRe; dvalIm := lvalIm / rvalRe;
  3362. SYSTEM.PUT( dadr, dvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), dvalIm );
  3363. INC( ladr, linc );
  3364. INC( dadr, dinc ); DEC( len );
  3365. END;
  3366. END;
  3367. END DivideALZSLZLoop;
  3368. OPERATOR "/"*(CONST left: ARRAY [ ? ] OF LONGCOMPLEX; right: LONGCOMPLEX ): ARRAY [ ? ] OF LONGCOMPLEX;
  3369. BEGIN
  3370. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3371. SIZEOF( LONGCOMPLEX ), DivideALZSLZLoop );
  3372. RETURN RESULT
  3373. END "/";
  3374. PROCEDURE DivideSLZALZLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3375. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL; dvalRe, dvalIm: LONGREAL; v: LONGREAL;
  3376. BEGIN
  3377. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  3378. WHILE (len > 0) DO
  3379. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  3380. v := 1.0D0/(lvalRe*lvalRe + lvalIm*lvalIm);
  3381. dvalRe := v*(rvalRe*lvalRe+rvalIm*lvalIm);
  3382. dvalIm := v*(rvalIm*lvalRe-rvalRe*lvalIm);
  3383. SYSTEM.PUT( dadr, dvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), dvalIm );
  3384. INC( ladr, linc );
  3385. INC( dadr, dinc ); DEC( len );
  3386. END;
  3387. END DivideSLZALZLoop;
  3388. OPERATOR "/"*(left: LONGCOMPLEX; CONST right: ARRAY [ ? ] OF LONGCOMPLEX): ARRAY [ ? ] OF LONGCOMPLEX;
  3389. BEGIN
  3390. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3391. SIZEOF( LONGCOMPLEX ), DivideSLZALZLoop );
  3392. RETURN RESULT
  3393. END "/";
  3394. (*** element-wise DIV array DIV array -> array ********************************************************************)
  3395. (** SHORTINT *)
  3396. PROCEDURE EDivASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3397. VAR lval, rval: SHORTINT; dval: SHORTINT;
  3398. BEGIN
  3399. WHILE (len > 0) DO
  3400. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval DIV rval;
  3401. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3402. DEC( len );
  3403. END;
  3404. END EDivASASLoop;
  3405. OPERATOR "DIV"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  3406. BEGIN
  3407. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3408. SIZEOF( SHORTINT ), EDivASASLoop );
  3409. RETURN RESULT
  3410. END "DIV";
  3411. (** INTEGER *)
  3412. PROCEDURE EDivAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3413. VAR lval, rval: INTEGER; dval: INTEGER;
  3414. BEGIN
  3415. WHILE (len > 0) DO
  3416. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval DIV rval;
  3417. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3418. DEC( len );
  3419. END;
  3420. END EDivAIAILoop;
  3421. OPERATOR "DIV"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  3422. BEGIN
  3423. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3424. SIZEOF( INTEGER ), EDivAIAILoop );
  3425. RETURN RESULT
  3426. END "DIV";
  3427. (** LONGINT *)
  3428. PROCEDURE EDivALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3429. VAR lval, rval: LONGINT; dval: LONGINT;
  3430. BEGIN
  3431. WHILE (len > 0) DO
  3432. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval DIV rval;
  3433. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3434. DEC( len );
  3435. END;
  3436. END EDivALALLoop;
  3437. OPERATOR "DIV"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT;
  3438. BEGIN
  3439. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3440. SIZEOF( LONGINT ), EDivALALLoop );
  3441. RETURN RESULT
  3442. END "DIV";
  3443. (*** division array DIV scalar -> array and scalar DIV array -> array ********************************************************************)
  3444. (** SHORTINT *)
  3445. PROCEDURE DivASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3446. VAR lval, rval: SHORTINT; dval: SHORTINT;
  3447. BEGIN
  3448. SYSTEM.GET( radr, rval );
  3449. WHILE (len > 0) DO
  3450. SYSTEM.GET( ladr, lval ); dval := lval DIV rval; SYSTEM.PUT( dadr, dval );
  3451. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3452. END;
  3453. END DivASSSLoop;
  3454. OPERATOR "DIV"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF SHORTINT;
  3455. BEGIN
  3456. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3457. SIZEOF( SHORTINT ), DivASSSLoop );
  3458. RETURN RESULT
  3459. END "DIV";
  3460. PROCEDURE DivSSASLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3461. VAR lval, rval: SHORTINT; dval: SHORTINT;
  3462. BEGIN
  3463. SYSTEM.GET( radr, rval );
  3464. WHILE (len > 0) DO
  3465. SYSTEM.GET( ladr, lval ); dval := rval DIV lval; SYSTEM.PUT( dadr, dval );
  3466. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3467. END;
  3468. END DivSSASLoop;
  3469. OPERATOR "DIV"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  3470. BEGIN
  3471. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3472. SIZEOF( SHORTINT ), DivSSASLoop );
  3473. RETURN RESULT
  3474. END "DIV";
  3475. (** INTEGER *)
  3476. PROCEDURE DivAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3477. VAR lval, rval: INTEGER; dval: INTEGER;
  3478. BEGIN
  3479. SYSTEM.GET( radr, rval );
  3480. WHILE (len > 0) DO
  3481. SYSTEM.GET( ladr, lval ); dval := lval DIV rval; SYSTEM.PUT( dadr, dval );
  3482. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3483. END;
  3484. END DivAISILoop;
  3485. OPERATOR "DIV"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF INTEGER;
  3486. BEGIN
  3487. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3488. SIZEOF( INTEGER ), DivAISILoop );
  3489. RETURN RESULT
  3490. END "DIV";
  3491. PROCEDURE DivSIAILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3492. VAR lval, rval: INTEGER; dval: INTEGER;
  3493. BEGIN
  3494. SYSTEM.GET( radr, rval );
  3495. WHILE (len > 0) DO
  3496. SYSTEM.GET( ladr, lval ); dval := rval DIV lval; SYSTEM.PUT( dadr, dval );
  3497. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3498. END;
  3499. END DivSIAILoop;
  3500. OPERATOR "DIV"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  3501. BEGIN
  3502. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3503. SIZEOF( INTEGER ), DivSIAILoop );
  3504. RETURN RESULT
  3505. END "DIV";
  3506. (** LONGINT *)
  3507. PROCEDURE DivALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3508. VAR lval, rval: LONGINT; dval: LONGINT;
  3509. BEGIN
  3510. SYSTEM.GET( radr, rval );
  3511. WHILE (len > 0) DO
  3512. SYSTEM.GET( ladr, lval ); dval := lval DIV rval; SYSTEM.PUT( dadr, dval );
  3513. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3514. END;
  3515. END DivALSLLoop;
  3516. OPERATOR "DIV"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF LONGINT;
  3517. BEGIN
  3518. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3519. SIZEOF( LONGINT ), DivALSLLoop );
  3520. RETURN RESULT
  3521. END "DIV";
  3522. PROCEDURE DivSLALLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3523. VAR lval, rval: LONGINT; dval: LONGINT;
  3524. BEGIN
  3525. SYSTEM.GET( radr, rval );
  3526. WHILE (len > 0) DO
  3527. SYSTEM.GET( ladr, lval ); dval := rval DIV lval; SYSTEM.PUT( dadr, dval );
  3528. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3529. END;
  3530. END DivSLALLoop;
  3531. OPERATOR "DIV"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  3532. BEGIN
  3533. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3534. SIZEOF( LONGINT ), DivSLALLoop );
  3535. RETURN RESULT
  3536. END "DIV";
  3537. (*** element-wise modulus array MOD array -> array ********************************************************************)
  3538. (** SHORTINT *)
  3539. PROCEDURE EModASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3540. VAR lval, rval: SHORTINT; dval: SHORTINT;
  3541. BEGIN
  3542. WHILE (len > 0) DO
  3543. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval MOD rval;
  3544. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3545. DEC( len );
  3546. END;
  3547. END EModASASLoop;
  3548. OPERATOR "MOD"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  3549. BEGIN
  3550. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3551. SIZEOF( SHORTINT ), EModASASLoop );
  3552. RETURN RESULT
  3553. END "MOD";
  3554. (** INTEGER *)
  3555. PROCEDURE EModAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3556. VAR lval, rval: INTEGER; dval: INTEGER;
  3557. BEGIN
  3558. WHILE (len > 0) DO
  3559. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval MOD rval;
  3560. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3561. DEC( len );
  3562. END;
  3563. END EModAIAILoop;
  3564. OPERATOR "MOD"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  3565. BEGIN
  3566. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3567. SIZEOF( INTEGER ), EModAIAILoop );
  3568. RETURN RESULT
  3569. END "MOD";
  3570. (** LONGINT *)
  3571. PROCEDURE EModALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3572. VAR lval, rval: LONGINT; dval: LONGINT;
  3573. BEGIN
  3574. WHILE (len > 0) DO
  3575. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := lval MOD rval;
  3576. SYSTEM.PUT( dadr, dval ); INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc );
  3577. DEC( len );
  3578. END;
  3579. END EModALALLoop;
  3580. OPERATOR "MOD"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT;
  3581. BEGIN
  3582. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3583. SIZEOF( LONGINT ), EModALALLoop );
  3584. RETURN RESULT
  3585. END "MOD";
  3586. (*** modulus array MOD scalar -> array and scalar MOD array -> array ********************************************************************)
  3587. (** SHORTINT *)
  3588. PROCEDURE ModASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3589. VAR lval, rval: SHORTINT; dval: SHORTINT;
  3590. BEGIN
  3591. SYSTEM.GET( radr, rval );
  3592. WHILE (len > 0) DO
  3593. SYSTEM.GET( ladr, lval ); dval := lval MOD rval; SYSTEM.PUT( dadr, dval );
  3594. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3595. END;
  3596. END ModASSSLoop;
  3597. OPERATOR "MOD"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF SHORTINT;
  3598. BEGIN
  3599. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3600. SIZEOF( SHORTINT ), ModASSSLoop );
  3601. RETURN RESULT
  3602. END "MOD";
  3603. PROCEDURE ModSSASLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3604. VAR lval, rval: SHORTINT; dval: SHORTINT;
  3605. BEGIN
  3606. SYSTEM.GET( radr, rval );
  3607. WHILE (len > 0) DO
  3608. SYSTEM.GET( ladr, lval ); dval := rval MOD lval; SYSTEM.PUT( dadr, dval );
  3609. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3610. END;
  3611. END ModSSASLoop;
  3612. OPERATOR "MOD"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  3613. BEGIN
  3614. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3615. SIZEOF( SHORTINT ), ModSSASLoop );
  3616. RETURN RESULT
  3617. END "MOD";
  3618. (** INTEGER *)
  3619. PROCEDURE ModAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3620. VAR lval, rval: INTEGER; dval: INTEGER;
  3621. BEGIN
  3622. SYSTEM.GET( radr, rval );
  3623. WHILE (len > 0) DO
  3624. SYSTEM.GET( ladr, lval ); dval := lval MOD rval; SYSTEM.PUT( dadr, dval );
  3625. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3626. END;
  3627. END ModAISILoop;
  3628. OPERATOR "MOD"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF INTEGER;
  3629. BEGIN
  3630. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3631. SIZEOF( INTEGER ), ModAISILoop );
  3632. RETURN RESULT
  3633. END "MOD";
  3634. PROCEDURE ModSIAILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3635. VAR lval, rval: INTEGER; dval: INTEGER;
  3636. BEGIN
  3637. SYSTEM.GET( radr, rval );
  3638. WHILE (len > 0) DO
  3639. SYSTEM.GET( ladr, lval ); dval := rval MOD lval; SYSTEM.PUT( dadr, dval );
  3640. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3641. END;
  3642. END ModSIAILoop;
  3643. OPERATOR "MOD"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  3644. BEGIN
  3645. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3646. SIZEOF( INTEGER ), ModSIAILoop );
  3647. RETURN RESULT
  3648. END "MOD";
  3649. (** LONGINT *)
  3650. PROCEDURE ModALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3651. VAR lval, rval: LONGINT; dval: LONGINT;
  3652. BEGIN
  3653. SYSTEM.GET( radr, rval );
  3654. WHILE (len > 0) DO
  3655. SYSTEM.GET( ladr, lval ); dval := lval MOD rval; SYSTEM.PUT( dadr, dval );
  3656. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3657. END;
  3658. END ModALSLLoop;
  3659. OPERATOR "MOD"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF LONGINT;
  3660. BEGIN
  3661. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3662. SIZEOF( LONGINT ), ModALSLLoop );
  3663. RETURN RESULT
  3664. END "MOD";
  3665. PROCEDURE ModSLALLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3666. VAR lval, rval: LONGINT; dval: LONGINT;
  3667. BEGIN
  3668. SYSTEM.GET( radr, rval );
  3669. WHILE (len > 0) DO
  3670. SYSTEM.GET( ladr, lval ); dval := rval MOD lval; SYSTEM.PUT( dadr, dval );
  3671. INC( ladr, linc ); INC( dadr, dinc ); DEC( len );
  3672. END;
  3673. END ModSLALLoop;
  3674. OPERATOR "MOD"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  3675. BEGIN
  3676. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3677. SIZEOF( LONGINT ), ModSLALLoop );
  3678. RETURN RESULT
  3679. END "MOD";
  3680. (*** scalar product <array,array> -> scalar ********************************************************************)
  3681. (** SHORTINT *)
  3682. PROCEDURE SPASASLoop( ladr, radr, dadr, linc, rinc, len: LONGINT );
  3683. VAR lval, rval: SHORTINT; dval: LONGINT;
  3684. BEGIN
  3685. SYSTEM.GET( dadr, dval );
  3686. WHILE (len > 0) DO
  3687. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + rval * lval;
  3688. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  3689. END;
  3690. SYSTEM.PUT( dadr, dval );
  3691. END SPASASLoop;
  3692. OPERATOR "+*"*( CONST left, right: ARRAY [ ? ] OF SHORTINT ): LONGINT;
  3693. VAR dest: LONGINT;
  3694. BEGIN
  3695. dest := 0;
  3696. ApplyBinaryAASOp( ADDRESSOF( dest ), ADDRESSOF( left ), ADDRESSOF( right ), SPASASLoop );
  3697. RETURN dest;
  3698. END "+*";
  3699. (** INTEGER *)
  3700. PROCEDURE SPAIAILoop( ladr, radr, dadr, linc, rinc, len: LONGINT );
  3701. VAR lval, rval: INTEGER; dval: LONGINT;
  3702. BEGIN
  3703. SYSTEM.GET( dadr, dval );
  3704. WHILE (len > 0) DO
  3705. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + rval * lval;
  3706. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  3707. END;
  3708. SYSTEM.PUT( dadr, dval );
  3709. END SPAIAILoop;
  3710. OPERATOR "+*"*( CONST left, right: ARRAY [ ? ] OF INTEGER ): LONGINT;
  3711. VAR dest: LONGINT;
  3712. BEGIN
  3713. dest := 0;
  3714. ApplyBinaryAASOp( ADDRESSOF( dest ), ADDRESSOF( left ), ADDRESSOF( right ), SPAIAILoop );
  3715. RETURN dest;
  3716. END "+*";
  3717. (** LONGINT *)
  3718. PROCEDURE SPALALLoop( ladr, radr, dadr, linc, rinc, len: LONGINT );
  3719. VAR lval, rval: LONGINT; dval: LONGINT;
  3720. BEGIN
  3721. SYSTEM.GET( dadr, dval );
  3722. WHILE (len > 0) DO
  3723. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + rval * lval;
  3724. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  3725. END;
  3726. SYSTEM.PUT( dadr, dval );
  3727. END SPALALLoop;
  3728. OPERATOR "+*"*( CONST left, right: ARRAY [ ? ] OF LONGINT ): LONGINT;
  3729. VAR dest: LONGINT;
  3730. BEGIN
  3731. dest := 0;
  3732. ApplyBinaryAASOp( ADDRESSOF( dest ), ADDRESSOF( left ), ADDRESSOF( right ), SPALALLoop );
  3733. RETURN dest;
  3734. END "+*";
  3735. (** REAL *)
  3736. PROCEDURE SPARARLoop( ladr, radr, dadr, linc, rinc, len: LONGINT );
  3737. VAR lval, rval: REAL; dval: REAL;
  3738. BEGIN
  3739. SYSTEM.GET( dadr, dval );
  3740. WHILE (len > 0) DO
  3741. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + rval * lval;
  3742. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  3743. END;
  3744. SYSTEM.PUT( dadr, dval );
  3745. END SPARARLoop;
  3746. OPERATOR "+*"*( CONST left, right: ARRAY [ ? ] OF REAL ): REAL;
  3747. VAR dest: REAL;
  3748. BEGIN
  3749. dest := 0;
  3750. ApplyBinaryAASOp( ADDRESSOF( dest ), ADDRESSOF( left ), ADDRESSOF( right ), loopSPARAR );
  3751. RETURN dest;
  3752. END "+*";
  3753. PROCEDURE SPAXAXLoop( ladr, radr, dadr, linc, rinc, len: LONGINT );
  3754. VAR lval, rval, dval: LONGREAL;
  3755. BEGIN
  3756. IF debug THEN
  3757. KernelLog.String( "SPAXAX, ladr,radr,dadr,linc,rinc,len= " ); KernelLog.Int( ladr, 10 ); KernelLog.Int( radr, 10 );
  3758. KernelLog.Int( dadr, 10 ); KernelLog.Int( linc, 10 ); KernelLog.Int( rinc, 10 );
  3759. KernelLog.Int( len, 10 ); KernelLog.Ln;
  3760. END;
  3761. SYSTEM.GET( dadr, dval );
  3762. WHILE (len > 0) DO
  3763. SYSTEM.GET( ladr, lval ); INC( ladr, linc ); SYSTEM.GET( radr, rval ); INC( radr, rinc );
  3764. dval := dval + rval * lval; DEC( len );
  3765. END;
  3766. SYSTEM.PUT( dadr, dval );
  3767. END SPAXAXLoop;
  3768. OPERATOR "+*"*( CONST left, right: ARRAY [ ? ] OF LONGREAL ): LONGREAL;
  3769. VAR dest: LONGREAL;
  3770. BEGIN
  3771. dest := 0;
  3772. ApplyBinaryAASOp( ADDRESSOF( dest ), ADDRESSOF( left ), ADDRESSOF( right ), loopSPAXAX );
  3773. RETURN dest;
  3774. END "+*";
  3775. (** COMPLEX *)
  3776. PROCEDURE SPAZAZLoop( ladr, radr, dadr, linc, rinc, len: LONGINT );
  3777. VAR lval, rval: COMPLEX; dval: COMPLEX;
  3778. BEGIN
  3779. SYSTEM.GET( dadr, dval );
  3780. WHILE (len > 0) DO
  3781. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  3782. RE(dval) := RE(dval) + RE(lval) * RE(rval) + IM(lval) * IM(rval);
  3783. IM(dval) := IM(dval) - RE(lval) * IM(rval) + IM(lval) * RE(rval);
  3784. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  3785. END;
  3786. SYSTEM.PUT( dadr, dval );
  3787. END SPAZAZLoop;
  3788. OPERATOR "+*"*( CONST left, right: ARRAY [ ? ] OF COMPLEX ): COMPLEX;
  3789. VAR dest: COMPLEX;
  3790. BEGIN
  3791. dest := 0;
  3792. ApplyBinaryAASOp( ADDRESSOF( dest ), ADDRESSOF( left ), ADDRESSOF( right ), loopSPAZAZ );
  3793. RETURN dest;
  3794. END "+*";
  3795. (** COMPLEX *)
  3796. PROCEDURE SPALZALZLoop( ladr, radr, dadr, linc, rinc, len: LONGINT );
  3797. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL; dvalRe, dvalIm: LONGREAL;
  3798. BEGIN
  3799. SYSTEM.GET( dadr, dvalRe ); SYSTEM.GET( dadr+SIZEOF(LONGREAL), dvalIm );
  3800. WHILE (len > 0) DO
  3801. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  3802. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  3803. dvalRe := dvalRe + lvalRe * rvalRe + lvalIm * rvalIm;
  3804. dvalIm := dvalIm - lvalRe * rvalIm + lvalIm * rvalRe;
  3805. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  3806. END;
  3807. SYSTEM.PUT( dadr, dvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), dvalIm );
  3808. END SPALZALZLoop;
  3809. OPERATOR "+*"*( CONST left, right: ARRAY [ ? ] OF LONGCOMPLEX ): LONGCOMPLEX;
  3810. VAR dest: LONGCOMPLEX;
  3811. BEGIN
  3812. dest := 0;
  3813. ApplyBinaryAASOp( ADDRESSOF( dest ), ADDRESSOF( left ), ADDRESSOF( right ), loopSPALZALZ );
  3814. RETURN dest;
  3815. END "+*";
  3816. (*** element-wise equal: array x array -> array of boolean ********************************************************************)
  3817. (** BOOLEAN *)
  3818. PROCEDURE EEqlABABLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3819. VAR lval, rval: BOOLEAN;
  3820. BEGIN
  3821. WHILE (len > 0) DO
  3822. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval = rval );
  3823. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  3824. END;
  3825. END EEqlABABLoop;
  3826. OPERATOR ".="*(CONST left,right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  3827. BEGIN
  3828. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3829. SIZEOF( BOOLEAN ), EEqlABABLoop );
  3830. RETURN RESULT
  3831. END ".=";
  3832. (** SHORTINT *)
  3833. PROCEDURE EEqlASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3834. VAR lval, rval: SHORTINT;
  3835. BEGIN
  3836. WHILE (len > 0) DO
  3837. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval = rval );
  3838. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  3839. END;
  3840. END EEqlASASLoop;
  3841. OPERATOR ".="*(CONST left, right: ARRAY [ ? ] OF SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  3842. BEGIN
  3843. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3844. SIZEOF( BOOLEAN ), EEqlASASLoop );
  3845. RETURN RESULT
  3846. END ".=";
  3847. (** INTEGER *)
  3848. PROCEDURE EEqlAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3849. VAR lval, rval: INTEGER;
  3850. BEGIN
  3851. WHILE (len > 0) DO
  3852. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval = rval );
  3853. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  3854. END;
  3855. END EEqlAIAILoop;
  3856. OPERATOR ".="*(CONST left, right: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  3857. BEGIN
  3858. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3859. SIZEOF( BOOLEAN ), EEqlAIAILoop );
  3860. RETURN RESULT
  3861. END ".=";
  3862. (** LONGINT *)
  3863. PROCEDURE EEqlALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3864. VAR lval, rval: LONGINT;
  3865. BEGIN
  3866. WHILE (len > 0) DO
  3867. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval = rval );
  3868. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  3869. END;
  3870. END EEqlALALLoop;
  3871. OPERATOR ".="*(CONST left, right: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  3872. BEGIN
  3873. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3874. SIZEOF( BOOLEAN ), EEqlALALLoop );
  3875. RETURN RESULT
  3876. END ".=";
  3877. (** REAL *)
  3878. PROCEDURE EEqlARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3879. VAR lval, rval: REAL;
  3880. BEGIN
  3881. WHILE (len > 0) DO
  3882. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval = rval );
  3883. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  3884. END;
  3885. END EEqlARARLoop;
  3886. OPERATOR ".="*(CONST left, right: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF BOOLEAN;
  3887. BEGIN
  3888. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3889. SIZEOF( BOOLEAN ), EEqlARARLoop );
  3890. RETURN RESULT
  3891. END ".=";
  3892. (** LONGREAL *)
  3893. PROCEDURE EEqlAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  3894. VAR lval, rval: LONGREAL;
  3895. BEGIN
  3896. WHILE (len > 0) DO
  3897. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval = rval );
  3898. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  3899. END;
  3900. END EEqlAXAXLoop;
  3901. OPERATOR ".="*(CONST left, right: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  3902. BEGIN
  3903. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3904. SIZEOF( BOOLEAN ), EEqlAXAXLoop );
  3905. RETURN RESULT
  3906. END ".=";
  3907. (*** elementwise equal array x scalar -> array of boolean ********************************************************************)
  3908. (** BOOLEAN *)
  3909. PROCEDURE EEqlABSBLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3910. VAR lval, rval: BOOLEAN;
  3911. BEGIN
  3912. SYSTEM.GET( radr, rval );
  3913. WHILE (len > 0) DO
  3914. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval = rval ); INC( ladr, linc );
  3915. INC( dadr, dinc ); DEC( len );
  3916. END;
  3917. END EEqlABSBLoop;
  3918. OPERATOR ".="*(CONST left : ARRAY [?] OF BOOLEAN; right: BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  3919. BEGIN
  3920. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3921. SIZEOF( BOOLEAN ), EEqlABSBLoop );
  3922. RETURN RESULT
  3923. END ".=";
  3924. OPERATOR ".="*(left: BOOLEAN; CONST right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  3925. BEGIN
  3926. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3927. SIZEOF( BOOLEAN ), EEqlABSBLoop );
  3928. RETURN RESULT
  3929. END ".=";
  3930. (** SHORTINT *)
  3931. PROCEDURE EEqlASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3932. VAR lval, rval: SHORTINT;
  3933. BEGIN
  3934. SYSTEM.GET( radr, rval );
  3935. WHILE (len > 0) DO
  3936. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval = rval ); INC( ladr, linc );
  3937. INC( dadr, dinc ); DEC( len );
  3938. END;
  3939. END EEqlASSSLoop;
  3940. OPERATOR ".="*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  3941. BEGIN
  3942. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3943. SIZEOF( BOOLEAN ), EEqlASSSLoop );
  3944. RETURN RESULT
  3945. END ".=";
  3946. OPERATOR ".="*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF BOOLEAN;
  3947. BEGIN
  3948. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3949. SIZEOF( BOOLEAN ), EEqlASSSLoop );
  3950. RETURN RESULT
  3951. END ".=";
  3952. (** INTEGER *)
  3953. PROCEDURE EEqlAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3954. VAR lval, rval: INTEGER;
  3955. BEGIN
  3956. SYSTEM.GET( radr, rval );
  3957. WHILE (len > 0) DO
  3958. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval = rval ); INC( ladr, linc );
  3959. INC( dadr, dinc ); DEC( len );
  3960. END;
  3961. END EEqlAISILoop;
  3962. OPERATOR ".="*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  3963. BEGIN
  3964. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3965. SIZEOF( BOOLEAN ), EEqlAISILoop );
  3966. RETURN RESULT
  3967. END ".=";
  3968. OPERATOR ".="*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF BOOLEAN;
  3969. BEGIN
  3970. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3971. SIZEOF( BOOLEAN ), EEqlAISILoop );
  3972. RETURN RESULT
  3973. END ".=";
  3974. (** LONGINT *)
  3975. PROCEDURE EEqlALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3976. VAR lval, rval: LONGINT;
  3977. BEGIN
  3978. SYSTEM.GET( radr, rval );
  3979. WHILE (len > 0) DO
  3980. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval = rval ); INC( ladr, linc );
  3981. INC( dadr, dinc ); DEC( len );
  3982. END;
  3983. END EEqlALSLLoop;
  3984. OPERATOR ".="*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  3985. BEGIN
  3986. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  3987. SIZEOF( BOOLEAN ), EEqlALSLLoop );
  3988. RETURN RESULT
  3989. END ".=";
  3990. OPERATOR ".="*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF BOOLEAN;
  3991. BEGIN
  3992. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  3993. SIZEOF( BOOLEAN ), EEqlALSLLoop );
  3994. RETURN RESULT
  3995. END ".=";
  3996. (** REAL *)
  3997. PROCEDURE EEqlARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  3998. VAR lval, rval: REAL;
  3999. BEGIN
  4000. SYSTEM.GET( radr, rval );
  4001. WHILE (len > 0) DO
  4002. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval = rval ); INC( ladr, linc );
  4003. INC( dadr, dinc ); DEC( len );
  4004. END;
  4005. END EEqlARSRLoop;
  4006. OPERATOR ".="*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF BOOLEAN;
  4007. BEGIN
  4008. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4009. SIZEOF( BOOLEAN ), EEqlARSRLoop );
  4010. RETURN RESULT
  4011. END ".=";
  4012. OPERATOR ".="*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF BOOLEAN;
  4013. BEGIN
  4014. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4015. SIZEOF( BOOLEAN ), EEqlARSRLoop );
  4016. RETURN RESULT
  4017. END ".=";
  4018. (** LONGREAL *)
  4019. PROCEDURE EEqlAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4020. VAR lval, rval: LONGREAL;
  4021. BEGIN
  4022. SYSTEM.GET( radr, rval );
  4023. WHILE (len > 0) DO
  4024. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval = rval ); INC( ladr, linc );
  4025. INC( dadr, dinc ); DEC( len );
  4026. END;
  4027. END EEqlAXSXLoop;
  4028. OPERATOR ".="*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4029. BEGIN
  4030. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4031. SIZEOF( BOOLEAN ), EEqlAXSXLoop );
  4032. RETURN RESULT
  4033. END ".=";
  4034. OPERATOR ".="*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF BOOLEAN;
  4035. BEGIN
  4036. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4037. SIZEOF( BOOLEAN ), EEqlAXSXLoop );
  4038. RETURN RESULT
  4039. END ".=";
  4040. (*** elementwise nequal: array x array -> array of boolean ********************************************************************)
  4041. (** BOOLEAN *)
  4042. PROCEDURE ENeqABABLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4043. VAR lval, rval: BOOLEAN;
  4044. BEGIN
  4045. WHILE (len > 0) DO
  4046. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval # rval );
  4047. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4048. END;
  4049. END ENeqABABLoop;
  4050. OPERATOR ".#"*(CONST left,right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  4051. BEGIN
  4052. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4053. SIZEOF( BOOLEAN ), ENeqABABLoop );
  4054. RETURN RESULT
  4055. END ".#";
  4056. (** SHORTINT *)
  4057. PROCEDURE ENeqASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4058. VAR lval, rval: SHORTINT;
  4059. BEGIN
  4060. WHILE (len > 0) DO
  4061. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval # rval );
  4062. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4063. END;
  4064. END ENeqASASLoop;
  4065. OPERATOR ".#"*(CONST left, right: ARRAY [ ? ] OF SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4066. BEGIN
  4067. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4068. SIZEOF( BOOLEAN ), ENeqASASLoop );
  4069. RETURN RESULT
  4070. END ".#";
  4071. (** INTEGER*)
  4072. PROCEDURE ENeqAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4073. VAR lval, rval: INTEGER;
  4074. BEGIN
  4075. WHILE (len > 0) DO
  4076. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval # rval );
  4077. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4078. END;
  4079. END ENeqAIAILoop;
  4080. OPERATOR ".#"*(CONST left, right: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4081. BEGIN
  4082. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4083. SIZEOF( BOOLEAN ), ENeqAIAILoop );
  4084. RETURN RESULT
  4085. END ".#";
  4086. (** LONGINT*)
  4087. PROCEDURE ENeqALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4088. VAR lval, rval: LONGINT;
  4089. BEGIN
  4090. WHILE (len > 0) DO
  4091. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval # rval );
  4092. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4093. END;
  4094. END ENeqALALLoop;
  4095. OPERATOR ".#"*(CONST left, right: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4096. BEGIN
  4097. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4098. SIZEOF( BOOLEAN ), ENeqALALLoop );
  4099. RETURN RESULT
  4100. END ".#";
  4101. (** REAL *)
  4102. PROCEDURE ENeqARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4103. VAR lval, rval: REAL;
  4104. BEGIN
  4105. WHILE (len > 0) DO
  4106. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval # rval );
  4107. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4108. END;
  4109. END ENeqARARLoop;
  4110. OPERATOR ".#"*(CONST left, right: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF BOOLEAN;
  4111. BEGIN
  4112. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4113. SIZEOF( BOOLEAN ), ENeqARARLoop );
  4114. RETURN RESULT
  4115. END ".#";
  4116. (** LONGREAL *)
  4117. PROCEDURE ENeqAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4118. VAR lval, rval: LONGREAL;
  4119. BEGIN
  4120. WHILE (len > 0) DO
  4121. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval # rval );
  4122. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4123. END;
  4124. END ENeqAXAXLoop;
  4125. OPERATOR ".#"*(CONST left, right: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4126. BEGIN
  4127. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4128. SIZEOF( BOOLEAN ), ENeqAXAXLoop );
  4129. RETURN RESULT
  4130. END ".#";
  4131. (*** elementwise nequal array x scalar -> array of boolean ********************************************************************)
  4132. (** BOOLEAN *)
  4133. PROCEDURE ENeqABSBLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4134. VAR lval, rval: BOOLEAN;
  4135. BEGIN
  4136. SYSTEM.GET( radr, rval );
  4137. WHILE (len > 0) DO
  4138. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval # rval ); INC( ladr, linc );
  4139. INC( dadr, dinc ); DEC( len );
  4140. END;
  4141. END ENeqABSBLoop;
  4142. OPERATOR ".#"*(CONST left : ARRAY [?] OF BOOLEAN; right: BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  4143. BEGIN
  4144. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4145. SIZEOF( BOOLEAN ), ENeqABSBLoop );
  4146. RETURN RESULT
  4147. END ".#";
  4148. OPERATOR ".#"*(left: BOOLEAN; CONST right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  4149. BEGIN
  4150. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4151. SIZEOF( BOOLEAN ), ENeqABSBLoop );
  4152. RETURN RESULT
  4153. END ".#";
  4154. (** SHORTINT *)
  4155. PROCEDURE ENeqASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4156. VAR lval, rval: SHORTINT;
  4157. BEGIN
  4158. SYSTEM.GET( radr, rval );
  4159. WHILE (len > 0) DO
  4160. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval # rval ); INC( ladr, linc );
  4161. INC( dadr, dinc ); DEC( len );
  4162. END;
  4163. END ENeqASSSLoop;
  4164. OPERATOR ".#"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4165. BEGIN
  4166. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4167. SIZEOF( BOOLEAN ), ENeqASSSLoop );
  4168. RETURN RESULT
  4169. END ".#";
  4170. OPERATOR ".#"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF BOOLEAN;
  4171. BEGIN
  4172. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4173. SIZEOF( BOOLEAN ), ENeqASSSLoop );
  4174. RETURN RESULT
  4175. END ".#";
  4176. (** INTEGER *)
  4177. PROCEDURE ENeqAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4178. VAR lval, rval: INTEGER;
  4179. BEGIN
  4180. SYSTEM.GET( radr, rval );
  4181. WHILE (len > 0) DO
  4182. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval # rval ); INC( ladr, linc );
  4183. INC( dadr, dinc ); DEC( len );
  4184. END;
  4185. END ENeqAISILoop;
  4186. OPERATOR ".#"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4187. BEGIN
  4188. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4189. SIZEOF( BOOLEAN ), ENeqAISILoop );
  4190. RETURN RESULT
  4191. END ".#";
  4192. OPERATOR ".#"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF BOOLEAN;
  4193. BEGIN
  4194. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4195. SIZEOF( BOOLEAN ), ENeqAISILoop );
  4196. RETURN RESULT
  4197. END ".#";
  4198. (** LONGINT *)
  4199. PROCEDURE ENeqALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4200. VAR lval, rval: LONGINT;
  4201. BEGIN
  4202. SYSTEM.GET( radr, rval );
  4203. WHILE (len > 0) DO
  4204. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval # rval ); INC( ladr, linc );
  4205. INC( dadr, dinc ); DEC( len );
  4206. END;
  4207. END ENeqALSLLoop;
  4208. OPERATOR ".#"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4209. BEGIN
  4210. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4211. SIZEOF( BOOLEAN ), ENeqALSLLoop );
  4212. RETURN RESULT
  4213. END ".#";
  4214. OPERATOR ".#"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF BOOLEAN;
  4215. BEGIN
  4216. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4217. SIZEOF( BOOLEAN ), ENeqALSLLoop );
  4218. RETURN RESULT
  4219. END ".#";
  4220. (** REAL *)
  4221. PROCEDURE ENeqARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4222. VAR lval, rval: REAL;
  4223. BEGIN
  4224. SYSTEM.GET( radr, rval );
  4225. WHILE (len > 0) DO
  4226. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval # rval ); INC( ladr, linc );
  4227. INC( dadr, dinc ); DEC( len );
  4228. END;
  4229. END ENeqARSRLoop;
  4230. OPERATOR ".#"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF BOOLEAN;
  4231. BEGIN
  4232. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4233. SIZEOF( BOOLEAN ), ENeqARSRLoop );
  4234. RETURN RESULT
  4235. END ".#";
  4236. OPERATOR ".#"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF BOOLEAN;
  4237. BEGIN
  4238. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4239. SIZEOF( BOOLEAN ), ENeqARSRLoop );
  4240. RETURN RESULT
  4241. END ".#";
  4242. (** LONGREAL *)
  4243. PROCEDURE ENeqAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4244. VAR lval, rval: LONGREAL;
  4245. BEGIN
  4246. SYSTEM.GET( radr, rval );
  4247. WHILE (len > 0) DO
  4248. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval # rval ); INC( ladr, linc );
  4249. INC( dadr, dinc ); DEC( len );
  4250. END;
  4251. END ENeqAXSXLoop;
  4252. OPERATOR ".#"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4253. BEGIN
  4254. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4255. SIZEOF( BOOLEAN ), ENeqAXSXLoop );
  4256. RETURN RESULT
  4257. END ".#";
  4258. OPERATOR ".#"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF BOOLEAN;
  4259. BEGIN
  4260. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4261. SIZEOF( BOOLEAN ), ENeqAXSXLoop );
  4262. RETURN RESULT
  4263. END ".#";
  4264. (*** elementwise greater than: array x array -> array of boolean ********************************************************************)
  4265. (** SHORTINT *)
  4266. PROCEDURE EGtrASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4267. VAR lval, rval: SHORTINT;
  4268. BEGIN
  4269. WHILE (len > 0) DO
  4270. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval > rval );
  4271. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4272. END;
  4273. END EGtrASASLoop;
  4274. OPERATOR ".>"*(CONST left, right: ARRAY [ ? ] OF SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4275. BEGIN
  4276. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4277. SIZEOF( BOOLEAN ), EGtrASASLoop );
  4278. RETURN RESULT
  4279. END ".>";
  4280. (** INTEGER *)
  4281. PROCEDURE EGtrAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4282. VAR lval, rval: INTEGER;
  4283. BEGIN
  4284. WHILE (len > 0) DO
  4285. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval > rval );
  4286. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4287. END;
  4288. END EGtrAIAILoop;
  4289. OPERATOR ".>"*(CONST left, right: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4290. BEGIN
  4291. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4292. SIZEOF( BOOLEAN ), EGtrAIAILoop );
  4293. RETURN RESULT
  4294. END ".>";
  4295. (** LONGINT *)
  4296. PROCEDURE EGtrALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4297. VAR lval, rval: LONGINT;
  4298. BEGIN
  4299. WHILE (len > 0) DO
  4300. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval > rval );
  4301. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4302. END;
  4303. END EGtrALALLoop;
  4304. OPERATOR ".>"*(CONST left, right: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4305. BEGIN
  4306. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4307. SIZEOF( BOOLEAN ), EGtrALALLoop );
  4308. RETURN RESULT
  4309. END ".>";
  4310. (** REAL *)
  4311. PROCEDURE EGtrARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4312. VAR lval, rval: REAL;
  4313. BEGIN
  4314. WHILE (len > 0) DO
  4315. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval > rval );
  4316. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4317. END;
  4318. END EGtrARARLoop;
  4319. OPERATOR ".>"*(CONST left, right: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF BOOLEAN;
  4320. BEGIN
  4321. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4322. SIZEOF( BOOLEAN ), EGtrARARLoop );
  4323. RETURN RESULT
  4324. END ".>";
  4325. (** LONGREAL *)
  4326. PROCEDURE EGtrAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4327. VAR lval, rval: LONGREAL;
  4328. BEGIN
  4329. WHILE (len > 0) DO
  4330. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval > rval );
  4331. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4332. END;
  4333. END EGtrAXAXLoop;
  4334. OPERATOR ".>"*(CONST left, right: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4335. BEGIN
  4336. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4337. SIZEOF( BOOLEAN ), EGtrAXAXLoop );
  4338. RETURN RESULT
  4339. END ".>";
  4340. (*** elementwise greater array x scalar -> array of boolean ********************************************************************)
  4341. (** SHORTINT *)
  4342. PROCEDURE EGtrASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4343. VAR lval, rval: SHORTINT;
  4344. BEGIN
  4345. SYSTEM.GET( radr, rval );
  4346. WHILE (len > 0) DO
  4347. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval > rval ); INC( ladr, linc );
  4348. INC( dadr, dinc ); DEC( len );
  4349. END;
  4350. END EGtrASSSLoop;
  4351. OPERATOR ".>"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4352. BEGIN
  4353. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4354. SIZEOF( BOOLEAN ), EGtrASSSLoop );
  4355. RETURN RESULT
  4356. END ".>";
  4357. OPERATOR ".<"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF BOOLEAN;
  4358. BEGIN
  4359. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4360. SIZEOF( BOOLEAN ), EGtrASSSLoop );
  4361. RETURN RESULT
  4362. END ".<";
  4363. (** INTEGER *)
  4364. PROCEDURE EGtrAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4365. VAR lval, rval: INTEGER;
  4366. BEGIN
  4367. SYSTEM.GET( radr, rval );
  4368. WHILE (len > 0) DO
  4369. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval > rval ); INC( ladr, linc );
  4370. INC( dadr, dinc ); DEC( len );
  4371. END;
  4372. END EGtrAISILoop;
  4373. OPERATOR ".>"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4374. BEGIN
  4375. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4376. SIZEOF( BOOLEAN ), EGtrAISILoop );
  4377. RETURN RESULT
  4378. END ".>";
  4379. OPERATOR ".<"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF BOOLEAN;
  4380. BEGIN
  4381. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4382. SIZEOF( BOOLEAN ), EGtrAISILoop );
  4383. RETURN RESULT
  4384. END ".<";
  4385. (** LONGINT *)
  4386. PROCEDURE EGtrALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4387. VAR lval, rval: LONGINT;
  4388. BEGIN
  4389. SYSTEM.GET( radr, rval );
  4390. WHILE (len > 0) DO
  4391. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval > rval ); INC( ladr, linc );
  4392. INC( dadr, dinc ); DEC( len );
  4393. END;
  4394. END EGtrALSLLoop;
  4395. OPERATOR ".>"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4396. BEGIN
  4397. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4398. SIZEOF( BOOLEAN ), EGtrALSLLoop );
  4399. RETURN RESULT
  4400. END ".>";
  4401. OPERATOR ".<"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF BOOLEAN;
  4402. BEGIN
  4403. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4404. SIZEOF( BOOLEAN ), EGtrALSLLoop );
  4405. RETURN RESULT
  4406. END ".<";
  4407. (** REAL *)
  4408. PROCEDURE EGtrARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4409. VAR lval, rval: REAL;
  4410. BEGIN
  4411. SYSTEM.GET( radr, rval );
  4412. WHILE (len > 0) DO
  4413. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval > rval ); INC( ladr, linc );
  4414. INC( dadr, dinc ); DEC( len );
  4415. END;
  4416. END EGtrARSRLoop;
  4417. OPERATOR ".>"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF BOOLEAN;
  4418. BEGIN
  4419. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4420. SIZEOF( BOOLEAN ), EGtrARSRLoop );
  4421. RETURN RESULT
  4422. END ".>";
  4423. OPERATOR ".<"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF BOOLEAN;
  4424. BEGIN
  4425. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4426. SIZEOF( BOOLEAN ), EGtrARSRLoop );
  4427. RETURN RESULT
  4428. END ".<";
  4429. (** LONGREAL *)
  4430. PROCEDURE EGtrAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4431. VAR lval, rval: LONGREAL;
  4432. BEGIN
  4433. SYSTEM.GET( radr, rval );
  4434. WHILE (len > 0) DO
  4435. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval > rval ); INC( ladr, linc );
  4436. INC( dadr, dinc ); DEC( len );
  4437. END;
  4438. END EGtrAXSXLoop;
  4439. OPERATOR ".>"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4440. BEGIN
  4441. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4442. SIZEOF( BOOLEAN ), EGtrAXSXLoop );
  4443. RETURN RESULT
  4444. END ".>";
  4445. OPERATOR ".<"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF BOOLEAN;
  4446. BEGIN
  4447. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4448. SIZEOF( BOOLEAN ), EGtrAXSXLoop );
  4449. RETURN RESULT
  4450. END ".<";
  4451. (*** elementwise greater or equal: array x array -> array of boolean ********************************************************************)
  4452. (** SHORTINT *)
  4453. PROCEDURE EGeqASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4454. VAR lval, rval: SHORTINT;
  4455. BEGIN
  4456. WHILE (len > 0) DO
  4457. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval >= rval );
  4458. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4459. END;
  4460. END EGeqASASLoop;
  4461. OPERATOR ".>="*(CONST left, right: ARRAY [ ? ] OF SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4462. BEGIN
  4463. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4464. SIZEOF( BOOLEAN ), EGeqASASLoop );
  4465. RETURN RESULT
  4466. END ".>=";
  4467. (** INTEGER *)
  4468. PROCEDURE EGeqAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4469. VAR lval, rval: INTEGER;
  4470. BEGIN
  4471. WHILE (len > 0) DO
  4472. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval >= rval );
  4473. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4474. END;
  4475. END EGeqAIAILoop;
  4476. OPERATOR ".>="*(CONST left, right: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4477. BEGIN
  4478. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4479. SIZEOF( BOOLEAN ), EGeqAIAILoop );
  4480. RETURN RESULT
  4481. END ".>=";
  4482. (** LONGINT *)
  4483. PROCEDURE EGeqALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4484. VAR lval, rval: LONGINT;
  4485. BEGIN
  4486. WHILE (len > 0) DO
  4487. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval >= rval );
  4488. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4489. END;
  4490. END EGeqALALLoop;
  4491. OPERATOR ".>="*(CONST left, right: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4492. BEGIN
  4493. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4494. SIZEOF( BOOLEAN ), EGeqALALLoop );
  4495. RETURN RESULT
  4496. END ".>=";
  4497. (** REAL *)
  4498. PROCEDURE EGeqARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4499. VAR lval, rval: REAL;
  4500. BEGIN
  4501. WHILE (len > 0) DO
  4502. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval >= rval );
  4503. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4504. END;
  4505. END EGeqARARLoop;
  4506. OPERATOR ".>="*(CONST left, right: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF BOOLEAN;
  4507. BEGIN
  4508. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4509. SIZEOF( BOOLEAN ), EGeqARARLoop );
  4510. RETURN RESULT
  4511. END ".>=";
  4512. (** LONGREAL *)
  4513. PROCEDURE EGeqAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4514. VAR lval, rval: LONGREAL;
  4515. BEGIN
  4516. WHILE (len > 0) DO
  4517. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval >= rval );
  4518. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4519. END;
  4520. END EGeqAXAXLoop;
  4521. OPERATOR ".>="*(CONST left, right: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4522. BEGIN
  4523. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4524. SIZEOF( BOOLEAN ), EGeqAXAXLoop );
  4525. RETURN RESULT
  4526. END ".>=";
  4527. (*** elementwise geq array x scalar -> array of boolean ********************************************************************)
  4528. (** SHORTINT *)
  4529. PROCEDURE EGeqASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4530. VAR lval, rval: SHORTINT;
  4531. BEGIN
  4532. SYSTEM.GET( radr, rval );
  4533. WHILE (len > 0) DO
  4534. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval >= rval ); INC( ladr, linc );
  4535. INC( dadr, dinc ); DEC( len );
  4536. END;
  4537. END EGeqASSSLoop;
  4538. OPERATOR ".>="*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4539. BEGIN
  4540. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4541. SIZEOF( BOOLEAN ), EGeqASSSLoop );
  4542. RETURN RESULT
  4543. END ".>=";
  4544. OPERATOR ".<="*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF BOOLEAN;
  4545. BEGIN
  4546. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4547. SIZEOF( BOOLEAN ), EGeqASSSLoop );
  4548. RETURN RESULT
  4549. END ".<=";
  4550. (** INTEGER *)
  4551. PROCEDURE EGeqAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4552. VAR lval, rval: INTEGER;
  4553. BEGIN
  4554. SYSTEM.GET( radr, rval );
  4555. WHILE (len > 0) DO
  4556. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval >= rval ); INC( ladr, linc );
  4557. INC( dadr, dinc ); DEC( len );
  4558. END;
  4559. END EGeqAISILoop;
  4560. OPERATOR ".>="*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4561. BEGIN
  4562. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4563. SIZEOF( BOOLEAN ), EGeqAISILoop );
  4564. RETURN RESULT
  4565. END ".>=";
  4566. OPERATOR ".<="*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF BOOLEAN;
  4567. BEGIN
  4568. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4569. SIZEOF( BOOLEAN ), EGeqAISILoop );
  4570. RETURN RESULT
  4571. END ".<=";
  4572. (** LONGINT *)
  4573. PROCEDURE EGeqALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4574. VAR lval, rval: LONGINT;
  4575. BEGIN
  4576. SYSTEM.GET( radr, rval );
  4577. WHILE (len > 0) DO
  4578. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval >= rval ); INC( ladr, linc );
  4579. INC( dadr, dinc ); DEC( len );
  4580. END;
  4581. END EGeqALSLLoop;
  4582. OPERATOR ".>="*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4583. BEGIN
  4584. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4585. SIZEOF( BOOLEAN ), EGeqALSLLoop );
  4586. RETURN RESULT
  4587. END ".>=";
  4588. OPERATOR ".<="*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF BOOLEAN;
  4589. BEGIN
  4590. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4591. SIZEOF( BOOLEAN ), EGeqALSLLoop );
  4592. RETURN RESULT
  4593. END ".<=";
  4594. (** REAL *)
  4595. PROCEDURE EGeqARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4596. VAR lval, rval: REAL;
  4597. BEGIN
  4598. SYSTEM.GET( radr, rval );
  4599. WHILE (len > 0) DO
  4600. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval >= rval ); INC( ladr, linc );
  4601. INC( dadr, dinc ); DEC( len );
  4602. END;
  4603. END EGeqARSRLoop;
  4604. OPERATOR ".>="*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF BOOLEAN;
  4605. BEGIN
  4606. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4607. SIZEOF( BOOLEAN ), EGeqARSRLoop );
  4608. RETURN RESULT
  4609. END ".>=";
  4610. OPERATOR ".<="*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF BOOLEAN;
  4611. BEGIN
  4612. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4613. SIZEOF( BOOLEAN ), EGeqARSRLoop );
  4614. RETURN RESULT
  4615. END ".<=";
  4616. (** LONGREAL *)
  4617. PROCEDURE EGeqAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4618. VAR lval, rval: LONGREAL;
  4619. BEGIN
  4620. SYSTEM.GET( radr, rval );
  4621. WHILE (len > 0) DO
  4622. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval >= rval ); INC( ladr, linc );
  4623. INC( dadr, dinc ); DEC( len );
  4624. END;
  4625. END EGeqAXSXLoop;
  4626. OPERATOR ".>="*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4627. BEGIN
  4628. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4629. SIZEOF( BOOLEAN ), EGeqAXSXLoop );
  4630. RETURN RESULT
  4631. END ".>=";
  4632. OPERATOR ".<="*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF BOOLEAN;
  4633. BEGIN
  4634. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4635. SIZEOF( BOOLEAN ), EGeqAXSXLoop );
  4636. RETURN RESULT
  4637. END ".<=";
  4638. (*** elementwise less than: array x array -> array of boolean ********************************************************************)
  4639. (** SHORTINT *)
  4640. PROCEDURE ELssASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4641. VAR lval, rval: SHORTINT;
  4642. BEGIN
  4643. WHILE (len > 0) DO
  4644. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval < rval );
  4645. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4646. END;
  4647. END ELssASASLoop;
  4648. OPERATOR ".<"*(CONST left, right: ARRAY [ ? ] OF SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4649. BEGIN
  4650. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4651. SIZEOF( BOOLEAN ), ELssASASLoop );
  4652. RETURN RESULT
  4653. END ".<";
  4654. (** INTEGER *)
  4655. PROCEDURE ELssAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4656. VAR lval, rval: INTEGER;
  4657. BEGIN
  4658. WHILE (len > 0) DO
  4659. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval < rval );
  4660. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4661. END;
  4662. END ELssAIAILoop;
  4663. OPERATOR ".<"*(CONST left, right: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4664. BEGIN
  4665. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4666. SIZEOF( BOOLEAN ), ELssAIAILoop );
  4667. RETURN RESULT
  4668. END ".<";
  4669. (** LONGINT*)
  4670. PROCEDURE ELssALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4671. VAR lval, rval: LONGINT;
  4672. BEGIN
  4673. WHILE (len > 0) DO
  4674. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval < rval );
  4675. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4676. END;
  4677. END ELssALALLoop;
  4678. OPERATOR ".<"*(CONST left, right: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4679. BEGIN
  4680. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4681. SIZEOF( BOOLEAN ), ELssALALLoop );
  4682. RETURN RESULT
  4683. END ".<";
  4684. (** REAL *)
  4685. PROCEDURE ELssARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4686. VAR lval, rval: REAL;
  4687. BEGIN
  4688. WHILE (len > 0) DO
  4689. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval < rval );
  4690. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4691. END;
  4692. END ELssARARLoop;
  4693. OPERATOR ".<"*(CONST left, right: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF BOOLEAN;
  4694. BEGIN
  4695. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4696. SIZEOF( BOOLEAN ), ELssARARLoop );
  4697. RETURN RESULT
  4698. END ".<";
  4699. (** LONGREAL *)
  4700. PROCEDURE ELssAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4701. VAR lval, rval: LONGREAL;
  4702. BEGIN
  4703. WHILE (len > 0) DO
  4704. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval < rval );
  4705. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4706. END;
  4707. END ELssAXAXLoop;
  4708. OPERATOR ".<"*(CONST left, right: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4709. BEGIN
  4710. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4711. SIZEOF( BOOLEAN ), ELssAXAXLoop );
  4712. RETURN RESULT
  4713. END ".<";
  4714. (*** elementwise less array x scalar -> array of boolean ********************************************************************)
  4715. (** SHORTINT *)
  4716. PROCEDURE ELssASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4717. VAR lval, rval: SHORTINT;
  4718. BEGIN
  4719. SYSTEM.GET( radr, rval );
  4720. WHILE (len > 0) DO
  4721. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval < rval ); INC( ladr, linc );
  4722. INC( dadr, dinc ); DEC( len );
  4723. END;
  4724. END ELssASSSLoop;
  4725. OPERATOR ".<"*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4726. BEGIN
  4727. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4728. SIZEOF( BOOLEAN ), ELssASSSLoop );
  4729. RETURN RESULT
  4730. END ".<";
  4731. OPERATOR ".>"*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF BOOLEAN;
  4732. BEGIN
  4733. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4734. SIZEOF( BOOLEAN ), ELssASSSLoop );
  4735. RETURN RESULT
  4736. END ".>";
  4737. (** INTEGER *)
  4738. PROCEDURE ELssAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4739. VAR lval, rval: INTEGER;
  4740. BEGIN
  4741. SYSTEM.GET( radr, rval );
  4742. WHILE (len > 0) DO
  4743. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval < rval ); INC( ladr, linc );
  4744. INC( dadr, dinc ); DEC( len );
  4745. END;
  4746. END ELssAISILoop;
  4747. OPERATOR ".<"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4748. BEGIN
  4749. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4750. SIZEOF( BOOLEAN ), ELssAISILoop );
  4751. RETURN RESULT
  4752. END ".<";
  4753. OPERATOR ".>"*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF BOOLEAN;
  4754. BEGIN
  4755. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4756. SIZEOF( BOOLEAN ), ELssAISILoop );
  4757. RETURN RESULT
  4758. END ".>";
  4759. (** LONGINT *)
  4760. PROCEDURE ELssALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4761. VAR lval, rval: LONGINT;
  4762. BEGIN
  4763. SYSTEM.GET( radr, rval );
  4764. WHILE (len > 0) DO
  4765. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval < rval ); INC( ladr, linc );
  4766. INC( dadr, dinc ); DEC( len );
  4767. END;
  4768. END ELssALSLLoop;
  4769. OPERATOR ".<"*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4770. BEGIN
  4771. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4772. SIZEOF( BOOLEAN ), ELssALSLLoop );
  4773. RETURN RESULT
  4774. END ".<";
  4775. OPERATOR ".>"*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF BOOLEAN;
  4776. BEGIN
  4777. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4778. SIZEOF( BOOLEAN ), ELssALSLLoop );
  4779. RETURN RESULT
  4780. END ".>";
  4781. (** REAL *)
  4782. PROCEDURE ELssARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4783. VAR lval, rval: REAL;
  4784. BEGIN
  4785. SYSTEM.GET( radr, rval );
  4786. WHILE (len > 0) DO
  4787. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval < rval ); INC( ladr, linc );
  4788. INC( dadr, dinc ); DEC( len );
  4789. END;
  4790. END ELssARSRLoop;
  4791. OPERATOR ".<"*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF BOOLEAN;
  4792. BEGIN
  4793. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4794. SIZEOF( BOOLEAN ), ELssARSRLoop );
  4795. RETURN RESULT
  4796. END ".<";
  4797. OPERATOR ".>"*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF BOOLEAN;
  4798. BEGIN
  4799. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4800. SIZEOF( BOOLEAN ), ELssARSRLoop );
  4801. RETURN RESULT
  4802. END ".>";
  4803. (** LONGREAL *)
  4804. PROCEDURE ELssAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4805. VAR lval, rval: LONGREAL;
  4806. BEGIN
  4807. SYSTEM.GET( radr, rval );
  4808. WHILE (len > 0) DO
  4809. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval < rval ); INC( ladr, linc );
  4810. INC( dadr, dinc ); DEC( len );
  4811. END;
  4812. END ELssAXSXLoop;
  4813. OPERATOR ".<"*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4814. BEGIN
  4815. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4816. SIZEOF( BOOLEAN ), ELssAXSXLoop );
  4817. RETURN RESULT
  4818. END ".<";
  4819. OPERATOR ".>"*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF BOOLEAN;
  4820. BEGIN
  4821. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4822. SIZEOF( BOOLEAN ), ELssAXSXLoop );
  4823. RETURN RESULT
  4824. END ".>";
  4825. (*** elementwise less or equal: array x array -> array of boolean ********************************************************************)
  4826. (** SHORTINT *)
  4827. PROCEDURE ELeqASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4828. VAR lval, rval: SHORTINT;
  4829. BEGIN
  4830. WHILE (len > 0) DO
  4831. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval <= rval );
  4832. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4833. END;
  4834. END ELeqASASLoop;
  4835. OPERATOR ".<="*(CONST left, right: ARRAY [ ? ] OF SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4836. BEGIN
  4837. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4838. SIZEOF( BOOLEAN ), ELeqASASLoop );
  4839. RETURN RESULT
  4840. END ".<=";
  4841. (** INTEGER *)
  4842. PROCEDURE ELeqAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4843. VAR lval, rval: INTEGER;
  4844. BEGIN
  4845. WHILE (len > 0) DO
  4846. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval <= rval );
  4847. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4848. END;
  4849. END ELeqAIAILoop;
  4850. OPERATOR ".<="*(CONST left, right: ARRAY [ ? ] OF INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4851. BEGIN
  4852. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4853. SIZEOF( BOOLEAN ), ELeqAIAILoop );
  4854. RETURN RESULT
  4855. END ".<=";
  4856. (** LONGINT *)
  4857. PROCEDURE ELeqALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4858. VAR lval, rval: LONGINT;
  4859. BEGIN
  4860. WHILE (len > 0) DO
  4861. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval <= rval );
  4862. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4863. END;
  4864. END ELeqALALLoop;
  4865. OPERATOR ".<="*(CONST left, right: ARRAY [ ? ] OF LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4866. BEGIN
  4867. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4868. SIZEOF( BOOLEAN ), ELeqALALLoop );
  4869. RETURN RESULT
  4870. END ".<=";
  4871. (** REAL *)
  4872. PROCEDURE ELeqARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4873. VAR lval, rval: REAL;
  4874. BEGIN
  4875. WHILE (len > 0) DO
  4876. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval <= rval );
  4877. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4878. END;
  4879. END ELeqARARLoop;
  4880. OPERATOR ".<="*(CONST left, right: ARRAY [ ? ] OF REAL ): ARRAY [ ? ] OF BOOLEAN;
  4881. BEGIN
  4882. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4883. SIZEOF( BOOLEAN ), ELeqARARLoop );
  4884. RETURN RESULT
  4885. END ".<=";
  4886. (** LONGREAL*)
  4887. PROCEDURE ELeqAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  4888. VAR lval, rval: LONGREAL;
  4889. BEGIN
  4890. WHILE (len > 0) DO
  4891. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval <= rval );
  4892. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  4893. END;
  4894. END ELeqAXAXLoop;
  4895. OPERATOR ".<="*(CONST left, right: ARRAY [ ? ] OF LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  4896. BEGIN
  4897. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4898. SIZEOF( BOOLEAN ), ELeqAXAXLoop );
  4899. RETURN RESULT
  4900. END ".<=";
  4901. (*** elementwise leq array x scalar -> array of boolean ********************************************************************)
  4902. (** SHORTINT *)
  4903. PROCEDURE ELeqASSSLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4904. VAR lval, rval: SHORTINT;
  4905. BEGIN
  4906. SYSTEM.GET( radr, rval );
  4907. WHILE (len > 0) DO
  4908. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval <= rval ); INC( ladr, linc );
  4909. INC( dadr, dinc ); DEC( len );
  4910. END;
  4911. END ELeqASSSLoop;
  4912. OPERATOR ".<="*(CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): ARRAY [ ? ] OF BOOLEAN;
  4913. BEGIN
  4914. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4915. SIZEOF( BOOLEAN ), ELeqASSSLoop );
  4916. RETURN RESULT
  4917. END ".<=";
  4918. OPERATOR ".>="*(left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF BOOLEAN;
  4919. BEGIN
  4920. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4921. SIZEOF( BOOLEAN ), ELeqASSSLoop );
  4922. RETURN RESULT
  4923. END ".>=";
  4924. (** INTEGER *)
  4925. PROCEDURE ELeqAISILoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4926. VAR lval, rval: INTEGER;
  4927. BEGIN
  4928. SYSTEM.GET( radr, rval );
  4929. WHILE (len > 0) DO
  4930. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval <= rval ); INC( ladr, linc );
  4931. INC( dadr, dinc ); DEC( len );
  4932. END;
  4933. END ELeqAISILoop;
  4934. OPERATOR ".<="*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): ARRAY [ ? ] OF BOOLEAN;
  4935. BEGIN
  4936. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4937. SIZEOF( BOOLEAN ), ELeqAISILoop );
  4938. RETURN RESULT
  4939. END ".<=";
  4940. OPERATOR ".>="*(left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF BOOLEAN;
  4941. BEGIN
  4942. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4943. SIZEOF( BOOLEAN ), ELeqAISILoop );
  4944. RETURN RESULT
  4945. END ".>=";
  4946. (** LONGINT *)
  4947. PROCEDURE ELeqALSLLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4948. VAR lval, rval: LONGINT;
  4949. BEGIN
  4950. SYSTEM.GET( radr, rval );
  4951. WHILE (len > 0) DO
  4952. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval <= rval ); INC( ladr, linc );
  4953. INC( dadr, dinc ); DEC( len );
  4954. END;
  4955. END ELeqALSLLoop;
  4956. OPERATOR ".<="*(CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): ARRAY [ ? ] OF BOOLEAN;
  4957. BEGIN
  4958. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4959. SIZEOF( BOOLEAN ), ELeqALSLLoop );
  4960. RETURN RESULT
  4961. END ".<=";
  4962. OPERATOR ".>="*(left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF BOOLEAN;
  4963. BEGIN
  4964. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4965. SIZEOF( BOOLEAN ), ELeqALSLLoop );
  4966. RETURN RESULT
  4967. END ".>=";
  4968. (** REAL *)
  4969. PROCEDURE ELeqARSRLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4970. VAR lval, rval: REAL;
  4971. BEGIN
  4972. SYSTEM.GET( radr, rval );
  4973. WHILE (len > 0) DO
  4974. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval <= rval ); INC( ladr, linc );
  4975. INC( dadr, dinc ); DEC( len );
  4976. END;
  4977. END ELeqARSRLoop;
  4978. OPERATOR ".<="*(CONST left: ARRAY [ ? ] OF REAL; right: REAL ): ARRAY [ ? ] OF BOOLEAN;
  4979. BEGIN
  4980. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  4981. SIZEOF( BOOLEAN ), ELeqARSRLoop );
  4982. RETURN RESULT
  4983. END ".<=";
  4984. OPERATOR ".>="*(left: REAL; CONST right: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF BOOLEAN;
  4985. BEGIN
  4986. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  4987. SIZEOF( BOOLEAN ), ELeqARSRLoop );
  4988. RETURN RESULT
  4989. END ".>=";
  4990. (** LONGREAL *)
  4991. PROCEDURE ELeqAXSXLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  4992. VAR lval, rval: LONGREAL;
  4993. BEGIN
  4994. SYSTEM.GET( radr, rval );
  4995. WHILE (len > 0) DO
  4996. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval <= rval ); INC( ladr, linc );
  4997. INC( dadr, dinc ); DEC( len );
  4998. END;
  4999. END ELeqAXSXLoop;
  5000. OPERATOR ".<="*(CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): ARRAY [ ? ] OF BOOLEAN;
  5001. BEGIN
  5002. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  5003. SIZEOF( BOOLEAN ), ELeqAXSXLoop );
  5004. RETURN RESULT
  5005. END ".<=";
  5006. OPERATOR ".>="*(left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF BOOLEAN;
  5007. BEGIN
  5008. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  5009. SIZEOF( BOOLEAN ), ELeqAXSXLoop );
  5010. RETURN RESULT
  5011. END ".>=";
  5012. (*** elementwise or, elementwise and ********************************************************************)
  5013. (** array x array *)
  5014. PROCEDURE ElOrABABLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  5015. VAR lval, rval: BOOLEAN;
  5016. BEGIN
  5017. WHILE (len > 0) DO
  5018. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, (lval OR rval) );
  5019. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  5020. END;
  5021. END ElOrABABLoop;
  5022. OPERATOR "OR"*(CONST left,right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  5023. BEGIN
  5024. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  5025. SIZEOF( BOOLEAN ), ElOrABABLoop );
  5026. RETURN RESULT
  5027. END "OR";
  5028. PROCEDURE ElAndABABLoop( ladr, radr, dadr, linc, rinc, dinc, len: LONGINT );
  5029. VAR lval, rval: BOOLEAN;
  5030. BEGIN
  5031. WHILE (len > 0) DO
  5032. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); SYSTEM.PUT( dadr, lval & rval );
  5033. INC( ladr, linc ); INC( radr, rinc ); INC( dadr, dinc ); DEC( len );
  5034. END;
  5035. END ElAndABABLoop;
  5036. OPERATOR "&"*(CONST left,right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  5037. BEGIN
  5038. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  5039. SIZEOF( BOOLEAN ), ElAndABABLoop );
  5040. RETURN RESULT
  5041. END "&";
  5042. (** array x boolean *)
  5043. PROCEDURE ElOrABSBLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  5044. VAR lval, rval: BOOLEAN;
  5045. BEGIN
  5046. SYSTEM.GET( radr, rval );
  5047. WHILE (len > 0) DO
  5048. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval OR rval ); INC( ladr, linc );
  5049. INC( dadr, dinc ); DEC( len );
  5050. END;
  5051. END ElOrABSBLoop;
  5052. OPERATOR "OR"*(CONST left : ARRAY [?] OF BOOLEAN; right: BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  5053. BEGIN
  5054. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  5055. SIZEOF( BOOLEAN ), ElOrABSBLoop );
  5056. RETURN RESULT
  5057. END "OR";
  5058. OPERATOR "OR"*(left: BOOLEAN; CONST right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  5059. BEGIN
  5060. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  5061. SIZEOF( BOOLEAN ), ElOrABSBLoop );
  5062. RETURN RESULT
  5063. END "OR";
  5064. PROCEDURE ElAndABSBLoop( ladr, radr, dadr, linc, dinc, len: LONGINT );
  5065. VAR lval, rval: BOOLEAN;
  5066. BEGIN
  5067. SYSTEM.GET( radr, rval );
  5068. WHILE (len > 0) DO
  5069. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, lval & rval ); INC( ladr, linc );
  5070. INC( dadr, dinc ); DEC( len );
  5071. END;
  5072. END ElAndABSBLoop;
  5073. OPERATOR "&"*(CONST left : ARRAY [?] OF BOOLEAN; right: BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  5074. BEGIN
  5075. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  5076. SIZEOF( BOOLEAN ), ElAndABSBLoop );
  5077. RETURN RESULT
  5078. END "&";
  5079. OPERATOR "&"*(left: BOOLEAN; CONST right : ARRAY [?] OF BOOLEAN):ARRAY [ ? ] OF BOOLEAN;
  5080. BEGIN
  5081. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( right ), ADDRESSOF( left ),
  5082. SIZEOF( BOOLEAN ), ElAndABSBLoop );
  5083. RETURN RESULT
  5084. END "&";
  5085. (*** less than, greater or equal: array x array -> boolean ********************************************************************)
  5086. (** SHORTINT *)
  5087. PROCEDURE LssASASLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5088. VAR lval, rval: SHORTINT;
  5089. BEGIN
  5090. WHILE (len > 0) DO
  5091. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5092. IF rval <= lval THEN RETURN FALSE END;
  5093. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5094. END;
  5095. RETURN TRUE;
  5096. END LssASASLoop;
  5097. OPERATOR "<"*( CONST left, right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5098. BEGIN
  5099. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LssASASLoop , FALSE);
  5100. END "<";
  5101. PROCEDURE GeqASASLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5102. VAR lval, rval: SHORTINT;
  5103. BEGIN
  5104. WHILE (len > 0) DO
  5105. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5106. IF rval > lval THEN RETURN FALSE END;
  5107. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5108. END;
  5109. RETURN TRUE;
  5110. END GeqASASLoop;
  5111. OPERATOR ">="*( CONST left, right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5112. BEGIN
  5113. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqASASLoop , FALSE);
  5114. END ">=";
  5115. (** INTEGER *)
  5116. PROCEDURE LssAIAILoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5117. VAR lval, rval: INTEGER;
  5118. BEGIN
  5119. WHILE (len > 0) DO
  5120. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5121. IF rval <= lval THEN RETURN FALSE END;
  5122. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5123. END;
  5124. RETURN TRUE;
  5125. END LssAIAILoop;
  5126. OPERATOR "<"*( CONST left, right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5127. BEGIN
  5128. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LssAIAILoop , FALSE);
  5129. END "<";
  5130. PROCEDURE GeqAIAILoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5131. VAR lval, rval: INTEGER;
  5132. BEGIN
  5133. WHILE (len > 0) DO
  5134. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5135. IF rval > lval THEN RETURN FALSE END;
  5136. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5137. END;
  5138. RETURN TRUE;
  5139. END GeqAIAILoop;
  5140. OPERATOR ">="*( CONST left, right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5141. BEGIN
  5142. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqAIAILoop , FALSE);
  5143. END ">=";
  5144. (** LONGINT *)
  5145. PROCEDURE LssALALLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5146. VAR lval, rval: LONGINT;
  5147. BEGIN
  5148. WHILE (len > 0) DO
  5149. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5150. IF rval <= lval THEN RETURN FALSE END;
  5151. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5152. END;
  5153. RETURN TRUE;
  5154. END LssALALLoop;
  5155. OPERATOR "<"*( CONST left, right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5156. BEGIN
  5157. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LssALALLoop , FALSE);
  5158. END "<";
  5159. PROCEDURE GeqALALLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5160. VAR lval, rval: LONGINT;
  5161. BEGIN
  5162. WHILE (len > 0) DO
  5163. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5164. IF rval > lval THEN RETURN FALSE END;
  5165. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5166. END;
  5167. RETURN TRUE;
  5168. END GeqALALLoop;
  5169. OPERATOR ">="*( CONST left, right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5170. BEGIN
  5171. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqALALLoop , FALSE);
  5172. END ">=";
  5173. (** REAL *)
  5174. PROCEDURE LssARARLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5175. VAR lval, rval: REAL;
  5176. BEGIN
  5177. WHILE (len > 0) DO
  5178. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5179. IF rval <= lval THEN RETURN FALSE END;
  5180. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5181. END;
  5182. RETURN TRUE;
  5183. END LssARARLoop;
  5184. OPERATOR "<"*( CONST left, right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5185. BEGIN
  5186. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LssARARLoop , FALSE);
  5187. END "<";
  5188. PROCEDURE GeqARARLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5189. VAR lval, rval: REAL;
  5190. BEGIN
  5191. WHILE (len > 0) DO
  5192. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5193. IF rval > lval THEN RETURN FALSE END;
  5194. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5195. END;
  5196. RETURN TRUE;
  5197. END GeqARARLoop;
  5198. OPERATOR ">="*( CONST left, right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5199. BEGIN
  5200. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqARARLoop , FALSE);
  5201. END ">=";
  5202. (** LONGREAL *)
  5203. PROCEDURE LssAXAXLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5204. VAR lval, rval: LONGREAL;
  5205. BEGIN
  5206. WHILE (len > 0) DO
  5207. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5208. IF rval <= lval THEN RETURN FALSE END;
  5209. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5210. END;
  5211. RETURN TRUE;
  5212. END LssAXAXLoop;
  5213. OPERATOR "<"*( CONST left, right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5214. BEGIN
  5215. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LssAXAXLoop , FALSE);
  5216. END "<";
  5217. PROCEDURE GeqAXAXLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5218. VAR lval, rval: LONGREAL;
  5219. BEGIN
  5220. WHILE (len > 0) DO
  5221. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5222. IF rval > lval THEN RETURN FALSE END;
  5223. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5224. END;
  5225. RETURN TRUE;
  5226. END GeqAXAXLoop;
  5227. OPERATOR ">="*( CONST left, right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5228. BEGIN
  5229. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqAXAXLoop , FALSE);
  5230. END ">=";
  5231. (*** less than, greater or equal: array x array -> boolean ********************************************************************)
  5232. (** SHORTINT *)
  5233. PROCEDURE GtrASASLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5234. VAR lval, rval: SHORTINT;
  5235. BEGIN
  5236. WHILE (len > 0) DO
  5237. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5238. IF rval >= lval THEN RETURN FALSE END;
  5239. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5240. END;
  5241. RETURN TRUE;
  5242. END GtrASASLoop;
  5243. OPERATOR ">"*( CONST left, right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5244. BEGIN
  5245. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrASASLoop , FALSE);
  5246. END ">";
  5247. PROCEDURE LeqASASLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5248. VAR lval, rval: SHORTINT;
  5249. BEGIN
  5250. WHILE (len > 0) DO
  5251. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5252. IF rval < lval THEN RETURN FALSE END;
  5253. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5254. END;
  5255. RETURN TRUE;
  5256. END LeqASASLoop;
  5257. OPERATOR "<="*( CONST left, right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5258. BEGIN
  5259. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqASASLoop , FALSE);
  5260. END "<=";
  5261. (** INTEGER *)
  5262. PROCEDURE GtrAIAILoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5263. VAR lval, rval: INTEGER;
  5264. BEGIN
  5265. WHILE (len > 0) DO
  5266. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5267. IF rval >= lval THEN RETURN FALSE END;
  5268. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5269. END;
  5270. RETURN TRUE;
  5271. END GtrAIAILoop;
  5272. OPERATOR ">"*( CONST left, right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5273. BEGIN
  5274. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrAIAILoop , FALSE);
  5275. END ">";
  5276. PROCEDURE LeqAIAILoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5277. VAR lval, rval: INTEGER;
  5278. BEGIN
  5279. WHILE (len > 0) DO
  5280. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5281. IF rval < lval THEN RETURN FALSE END;
  5282. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5283. END;
  5284. RETURN TRUE;
  5285. END LeqAIAILoop;
  5286. OPERATOR "<="*( CONST left, right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5287. BEGIN
  5288. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqAIAILoop ,FALSE);
  5289. END "<=";
  5290. (** LONGINT *)
  5291. PROCEDURE GtrALALLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5292. VAR lval, rval: LONGINT;
  5293. BEGIN
  5294. WHILE (len > 0) DO
  5295. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5296. IF rval >= lval THEN RETURN FALSE END;
  5297. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5298. END;
  5299. RETURN TRUE;
  5300. END GtrALALLoop;
  5301. OPERATOR ">"*( CONST left, right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5302. BEGIN
  5303. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrALALLoop , FALSE);
  5304. END ">";
  5305. PROCEDURE LeqALALLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5306. VAR lval, rval: LONGINT;
  5307. BEGIN
  5308. WHILE (len > 0) DO
  5309. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5310. IF rval < lval THEN RETURN FALSE END;
  5311. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5312. END;
  5313. RETURN TRUE;
  5314. END LeqALALLoop;
  5315. OPERATOR "<="*( CONST left, right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5316. BEGIN
  5317. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqALALLoop , FALSE);
  5318. END "<=";
  5319. (** REAL *)
  5320. PROCEDURE GtrARARLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5321. VAR lval, rval: REAL;
  5322. BEGIN
  5323. WHILE (len > 0) DO
  5324. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5325. IF rval >= lval THEN RETURN FALSE END;
  5326. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5327. END;
  5328. RETURN TRUE;
  5329. END GtrARARLoop;
  5330. OPERATOR ">"*( CONST left, right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5331. BEGIN
  5332. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrARARLoop , FALSE);
  5333. END ">";
  5334. PROCEDURE LeqARARLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5335. VAR lval, rval: REAL;
  5336. BEGIN
  5337. WHILE (len > 0) DO
  5338. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5339. IF rval < lval THEN RETURN FALSE END;
  5340. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5341. END;
  5342. RETURN TRUE;
  5343. END LeqARARLoop;
  5344. OPERATOR "<="*( CONST left, right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5345. BEGIN
  5346. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqARARLoop , FALSE);
  5347. END "<=";
  5348. (** LONGREAL *)
  5349. PROCEDURE GtrAXAXLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5350. VAR lval, rval: LONGREAL;
  5351. BEGIN
  5352. WHILE (len > 0) DO
  5353. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5354. IF rval >= lval THEN RETURN FALSE END;
  5355. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5356. END;
  5357. RETURN TRUE;
  5358. END GtrAXAXLoop;
  5359. OPERATOR ">"*( CONST left, right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5360. BEGIN
  5361. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrAXAXLoop , FALSE);
  5362. END ">";
  5363. PROCEDURE LeqAXAXLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5364. VAR lval, rval: LONGREAL;
  5365. BEGIN
  5366. WHILE (len > 0) DO
  5367. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5368. IF rval < lval THEN RETURN FALSE END;
  5369. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5370. END;
  5371. RETURN TRUE;
  5372. END LeqAXAXLoop;
  5373. OPERATOR "<="*( CONST left, right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5374. BEGIN
  5375. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqAXAXLoop , FALSE);
  5376. END "<=";
  5377. (*** equals: array x array -> boolean ********************************************************************)
  5378. (** BOOLEAN *)
  5379. PROCEDURE EqlABABLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5380. VAR lval, rval: BOOLEAN;
  5381. BEGIN
  5382. WHILE (len > 0) DO
  5383. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5384. IF rval # lval THEN RETURN FALSE END;
  5385. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5386. END;
  5387. RETURN TRUE;
  5388. END EqlABABLoop;
  5389. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF BOOLEAN ): BOOLEAN;
  5390. BEGIN
  5391. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlABABLoop, FALSE);
  5392. END "=";
  5393. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF BOOLEAN ): BOOLEAN;
  5394. BEGIN
  5395. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlABABLoop, FALSE);
  5396. END "#";
  5397. (** SHORTINT *)
  5398. PROCEDURE EqlASASLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5399. VAR lval, rval: SHORTINT;
  5400. BEGIN
  5401. WHILE (len > 0) DO
  5402. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5403. IF rval # lval THEN RETURN FALSE END;
  5404. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5405. END;
  5406. RETURN TRUE;
  5407. END EqlASASLoop;
  5408. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5409. BEGIN
  5410. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlASASLoop , FALSE);
  5411. END "=";
  5412. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5413. BEGIN
  5414. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlASASLoop, FALSE );
  5415. END "#";
  5416. (** INTEGER *)
  5417. PROCEDURE EqlAIAILoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5418. VAR lval, rval: INTEGER;
  5419. BEGIN
  5420. WHILE (len > 0) DO
  5421. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5422. IF rval # lval THEN RETURN FALSE END;
  5423. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5424. END;
  5425. RETURN TRUE;
  5426. END EqlAIAILoop;
  5427. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5428. BEGIN
  5429. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAIAILoop, FALSE );
  5430. END "=";
  5431. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5432. BEGIN
  5433. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAIAILoop, FALSE );
  5434. END "#";
  5435. (** LONGINT *)
  5436. PROCEDURE EqlALALLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5437. VAR lval, rval: LONGINT;
  5438. BEGIN
  5439. WHILE (len > 0) DO
  5440. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5441. IF rval # lval THEN RETURN FALSE END;
  5442. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5443. END;
  5444. RETURN TRUE;
  5445. END EqlALALLoop;
  5446. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5447. BEGIN
  5448. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlALALLoop, FALSE );
  5449. END "=";
  5450. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5451. BEGIN
  5452. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlALALLoop, FALSE );
  5453. END "#";
  5454. (** REAL *)
  5455. PROCEDURE EqlARARLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5456. VAR lval, rval: REAL;
  5457. BEGIN
  5458. WHILE (len > 0) DO
  5459. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5460. IF rval # lval THEN RETURN FALSE END;
  5461. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5462. END;
  5463. RETURN TRUE;
  5464. END EqlARARLoop;
  5465. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5466. BEGIN
  5467. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlARARLoop, FALSE );
  5468. END "=";
  5469. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5470. BEGIN
  5471. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlARARLoop, FALSE );
  5472. END "#";
  5473. (** LONGREAL *)
  5474. PROCEDURE EqlAXAXLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5475. VAR lval, rval: LONGREAL;
  5476. BEGIN
  5477. WHILE (len > 0) DO
  5478. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5479. IF rval # lval THEN RETURN FALSE END;
  5480. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5481. END;
  5482. RETURN TRUE;
  5483. END EqlAXAXLoop;
  5484. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5485. BEGIN
  5486. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAXAXLoop, FALSE );
  5487. END "=";
  5488. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5489. BEGIN
  5490. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAXAXLoop, FALSE );
  5491. END "#";
  5492. (** COMPLEX *)
  5493. PROCEDURE EqlAZAZLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5494. VAR lval, rval: COMPLEX;
  5495. BEGIN
  5496. WHILE (len > 0) DO
  5497. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  5498. IF rval # lval THEN RETURN FALSE END;
  5499. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5500. END;
  5501. RETURN TRUE;
  5502. END EqlAZAZLoop;
  5503. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF COMPLEX ): BOOLEAN;
  5504. BEGIN
  5505. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAZAZLoop, FALSE );
  5506. END "=";
  5507. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF COMPLEX ): BOOLEAN;
  5508. BEGIN
  5509. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAZAZLoop, FALSE );
  5510. END "#";
  5511. (** LONGCOMPLEX *)
  5512. PROCEDURE EqlALZALZLoop( ladr, radr, linc, rinc, len: LONGINT ): BOOLEAN;
  5513. VAR lvalRe, lvalIm, rvalRe, rvalIm: LONGREAL;
  5514. BEGIN
  5515. WHILE (len > 0) DO
  5516. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  5517. SYSTEM.GET( radr, rvalRe ); SYSTEM.GET( radr+SIZEOF(LONGREAL), rvalIm );
  5518. IF (rvalRe # lvalRe) OR (rvalIm # lvalIm) THEN RETURN FALSE END;
  5519. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  5520. END;
  5521. RETURN TRUE;
  5522. END EqlALZALZLoop;
  5523. OPERATOR "="*( CONST left, right: ARRAY [ ? ] OF LONGCOMPLEX ): BOOLEAN;
  5524. BEGIN
  5525. RETURN ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlALZALZLoop, FALSE );
  5526. END "=";
  5527. OPERATOR "#"*( CONST left, right: ARRAY [ ? ] OF LONGCOMPLEX ): BOOLEAN;
  5528. BEGIN
  5529. RETURN ~ApplyBinaryAABOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlALZALZLoop, FALSE );
  5530. END "#";
  5531. (*** equals: array x scalar -> boolean ********************************************************************)
  5532. (** BOOLEAN *)
  5533. PROCEDURE EqlABSBLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5534. VAR lval, rval: BOOLEAN;
  5535. BEGIN
  5536. SYSTEM.GET( radr, rval );
  5537. WHILE (len > 0) DO
  5538. SYSTEM.GET( ladr, lval );
  5539. IF lval # rval THEN RETURN FALSE END;
  5540. INC( ladr, linc ); DEC( len );
  5541. END;
  5542. RETURN TRUE;
  5543. END EqlABSBLoop;
  5544. OPERATOR "="*( CONST left: ARRAY [ ? ] OF BOOLEAN;
  5545. right: BOOLEAN ): BOOLEAN;
  5546. BEGIN
  5547. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlABSBLoop );
  5548. END "=";
  5549. OPERATOR "="*( left: BOOLEAN;
  5550. CONST right: ARRAY [ ? ] OF BOOLEAN ): BOOLEAN;
  5551. BEGIN
  5552. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), EqlABSBLoop );
  5553. END "=";
  5554. OPERATOR "#"*( CONST left: ARRAY [ ? ] OF BOOLEAN;
  5555. right: BOOLEAN ): BOOLEAN;
  5556. BEGIN
  5557. RETURN ~(left = right);
  5558. END "#";
  5559. OPERATOR "#"*( left: BOOLEAN;
  5560. CONST right: ARRAY [ ? ] OF BOOLEAN ): BOOLEAN;
  5561. BEGIN
  5562. RETURN ~( left = right );
  5563. END "#";
  5564. (** SHORTINT *)
  5565. PROCEDURE EqlASSSLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5566. VAR lval, rval: SHORTINT;
  5567. BEGIN
  5568. SYSTEM.GET( radr, rval );
  5569. WHILE (len > 0) DO
  5570. SYSTEM.GET( ladr, lval );
  5571. IF lval # rval THEN RETURN FALSE END;
  5572. INC( ladr, linc ); DEC( len );
  5573. END;
  5574. RETURN TRUE;
  5575. END EqlASSSLoop;
  5576. OPERATOR "="*( CONST left: ARRAY [ ? ] OF SHORTINT;right: SHORTINT ): BOOLEAN;
  5577. BEGIN
  5578. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlASSSLoop );
  5579. END "=";
  5580. OPERATOR "="*( left: SHORTINT;CONST right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5581. BEGIN
  5582. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), EqlASSSLoop );
  5583. END "=";
  5584. OPERATOR "#"*( CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): BOOLEAN;
  5585. BEGIN
  5586. RETURN ~( left= right );
  5587. END "#";
  5588. OPERATOR "#"*( left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5589. BEGIN
  5590. RETURN ~( left= right );
  5591. END "#";
  5592. (** INTEGER *)
  5593. PROCEDURE EqlAISILoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5594. VAR lval, rval: INTEGER;
  5595. BEGIN
  5596. SYSTEM.GET( radr, rval );
  5597. WHILE (len > 0) DO
  5598. SYSTEM.GET( ladr, lval );
  5599. IF lval # rval THEN RETURN FALSE END;
  5600. INC( ladr, linc ); DEC( len );
  5601. END;
  5602. RETURN TRUE;
  5603. END EqlAISILoop;
  5604. OPERATOR "="*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): BOOLEAN;
  5605. BEGIN
  5606. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAISILoop );
  5607. END "=";
  5608. OPERATOR "="*( left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5609. BEGIN
  5610. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), EqlAISILoop );
  5611. END "=";
  5612. OPERATOR "#"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): BOOLEAN;
  5613. BEGIN
  5614. RETURN ~( left = right );
  5615. END "#";
  5616. OPERATOR "#"*( left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5617. BEGIN
  5618. RETURN ~( left = right );
  5619. END "#";
  5620. (** LONGINT *)
  5621. PROCEDURE EqlALSLLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5622. VAR lval, rval: LONGINT;
  5623. BEGIN
  5624. SYSTEM.GET( radr, rval );
  5625. WHILE (len > 0) DO
  5626. SYSTEM.GET( ladr, lval );
  5627. IF lval # rval THEN RETURN FALSE END;
  5628. INC( ladr, linc ); DEC( len );
  5629. END;
  5630. RETURN TRUE;
  5631. END EqlALSLLoop;
  5632. OPERATOR "="*( CONST left: ARRAY [ ? ] OF LONGINT;
  5633. right: LONGINT ): BOOLEAN;
  5634. BEGIN
  5635. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlALSLLoop );
  5636. END "=";
  5637. OPERATOR "="*( left: LONGINT;
  5638. CONST right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5639. BEGIN
  5640. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), EqlALSLLoop );
  5641. END "=";
  5642. OPERATOR "#"*( CONST left: ARRAY [ ? ] OF LONGINT;
  5643. right: LONGINT ): BOOLEAN;
  5644. BEGIN
  5645. RETURN ~(left = right);
  5646. END "#";
  5647. OPERATOR "#"*( left: LONGINT;
  5648. CONST right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5649. BEGIN
  5650. RETURN ~(left = right);
  5651. END "#";
  5652. (** REAL *)
  5653. PROCEDURE EqlARSRLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5654. VAR lval, rval: REAL;
  5655. BEGIN
  5656. SYSTEM.GET( radr, rval );
  5657. WHILE (len > 0) DO
  5658. SYSTEM.GET( ladr, lval );
  5659. IF lval # rval THEN RETURN FALSE END;
  5660. INC( ladr, linc ); DEC( len );
  5661. END;
  5662. RETURN TRUE;
  5663. END EqlARSRLoop;
  5664. OPERATOR "="*( CONST left: ARRAY [ ? ] OF REAL;
  5665. right: REAL ): BOOLEAN;
  5666. BEGIN
  5667. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlARSRLoop );
  5668. END "=";
  5669. OPERATOR "="*( left: REAL;
  5670. CONST right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5671. BEGIN
  5672. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), EqlARSRLoop );
  5673. END "=";
  5674. OPERATOR "#"*( CONST left: ARRAY [ ? ] OF REAL;
  5675. right: REAL ): BOOLEAN;
  5676. BEGIN
  5677. RETURN ~( left = right );
  5678. END "#";
  5679. OPERATOR "#"*( left: REAL;
  5680. CONST right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5681. BEGIN
  5682. RETURN ~( left = right );
  5683. END "#";
  5684. (** LONGREAL *)
  5685. PROCEDURE EqlAXSXLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5686. VAR lval, rval: LONGREAL;
  5687. BEGIN
  5688. SYSTEM.GET( radr, rval );
  5689. WHILE (len > 0) DO
  5690. SYSTEM.GET( ladr, lval );
  5691. IF lval # rval THEN RETURN FALSE END;
  5692. INC( ladr, linc ); DEC( len );
  5693. END;
  5694. RETURN TRUE;
  5695. END EqlAXSXLoop;
  5696. OPERATOR "="*( CONST left: ARRAY [ ? ] OF LONGREAL;
  5697. right: LONGREAL ): BOOLEAN;
  5698. BEGIN
  5699. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), EqlAXSXLoop );
  5700. END "=";
  5701. OPERATOR "="*( left: LONGREAL;
  5702. CONST right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5703. BEGIN
  5704. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), EqlAXSXLoop );
  5705. END "=";
  5706. OPERATOR "#"*( CONST left: ARRAY [ ? ] OF LONGREAL;
  5707. right: LONGREAL ): BOOLEAN;
  5708. BEGIN
  5709. RETURN ~( left = right );
  5710. END "#";
  5711. OPERATOR "#"*( left: LONGREAL;CONST right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5712. BEGIN
  5713. RETURN ~( left= right );
  5714. END "#";
  5715. (*** gtr : array x scalar -> boolean ********************************************************************)
  5716. (** SHORTINT *)
  5717. PROCEDURE GtrASSSLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5718. VAR lval, rval: SHORTINT;
  5719. BEGIN
  5720. SYSTEM.GET( radr, rval );
  5721. WHILE (len > 0) DO
  5722. SYSTEM.GET( ladr, lval );
  5723. IF lval <= rval THEN RETURN FALSE END;
  5724. INC( ladr, linc ); DEC( len );
  5725. END;
  5726. RETURN TRUE;
  5727. END GtrASSSLoop;
  5728. OPERATOR ">"*( CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): BOOLEAN;
  5729. BEGIN
  5730. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrASSSLoop );
  5731. END ">";
  5732. OPERATOR "<"*( left: SHORTINT;CONST right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5733. BEGIN
  5734. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GtrASSSLoop );
  5735. END "<";
  5736. (** INTEGER *)
  5737. PROCEDURE GtrAISILoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5738. VAR lval, rval: INTEGER;
  5739. BEGIN
  5740. SYSTEM.GET( radr, rval );
  5741. WHILE (len > 0) DO
  5742. SYSTEM.GET( ladr, lval );
  5743. IF lval <= rval THEN RETURN FALSE END;
  5744. INC( ladr, linc ); DEC( len );
  5745. END;
  5746. RETURN TRUE;
  5747. END GtrAISILoop;
  5748. OPERATOR ">"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): BOOLEAN;
  5749. BEGIN
  5750. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrAISILoop );
  5751. END ">";
  5752. OPERATOR "<"*( left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5753. BEGIN
  5754. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GtrAISILoop );
  5755. END "<";
  5756. (** LONGINT *)
  5757. PROCEDURE GtrALSLLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5758. VAR lval, rval: LONGINT;
  5759. BEGIN
  5760. SYSTEM.GET( radr, rval );
  5761. WHILE (len > 0) DO
  5762. SYSTEM.GET( ladr, lval );
  5763. IF lval <= rval THEN RETURN FALSE END;
  5764. INC( ladr, linc ); DEC( len );
  5765. END;
  5766. RETURN TRUE;
  5767. END GtrALSLLoop;
  5768. OPERATOR ">"*( CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): BOOLEAN;
  5769. BEGIN
  5770. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrALSLLoop );
  5771. END ">";
  5772. OPERATOR "<"*( left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5773. BEGIN
  5774. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GtrALSLLoop );
  5775. END "<";
  5776. (** REAL *)
  5777. PROCEDURE GtrARSRLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5778. VAR lval, rval: REAL;
  5779. BEGIN
  5780. SYSTEM.GET( radr, rval );
  5781. WHILE (len > 0) DO
  5782. SYSTEM.GET( ladr, lval );
  5783. IF lval <= rval THEN RETURN FALSE END;
  5784. INC( ladr, linc ); DEC( len );
  5785. END;
  5786. RETURN TRUE;
  5787. END GtrARSRLoop;
  5788. OPERATOR ">"*( CONST left: ARRAY [ ? ] OF REAL;
  5789. right: REAL ): BOOLEAN;
  5790. BEGIN
  5791. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrARSRLoop );
  5792. END ">";
  5793. OPERATOR "<"*( left: REAL;
  5794. CONST right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5795. BEGIN
  5796. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GtrARSRLoop );
  5797. END "<";
  5798. (** LONGREAL *)
  5799. PROCEDURE GtrAXSXLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5800. VAR lval, rval: LONGREAL;
  5801. BEGIN
  5802. SYSTEM.GET( radr, rval );
  5803. WHILE (len > 0) DO
  5804. SYSTEM.GET( ladr, lval );
  5805. IF lval <= rval THEN RETURN FALSE END;
  5806. INC( ladr, linc ); DEC( len );
  5807. END;
  5808. RETURN TRUE;
  5809. END GtrAXSXLoop;
  5810. OPERATOR ">"*( CONST left: ARRAY [ ? ] OF LONGREAL;
  5811. right: LONGREAL ): BOOLEAN;
  5812. BEGIN
  5813. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GtrAXSXLoop );
  5814. END ">";
  5815. OPERATOR "<"*( left: LONGREAL;
  5816. CONST right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5817. BEGIN
  5818. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GtrAXSXLoop );
  5819. END "<";
  5820. (*** geq : array x scalar -> boolean ********************************************************************)
  5821. (** SHORTINT *)
  5822. PROCEDURE GeqASSSLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5823. VAR lval, rval: SHORTINT;
  5824. BEGIN
  5825. SYSTEM.GET( radr, rval );
  5826. WHILE (len > 0) DO
  5827. SYSTEM.GET( ladr, lval );
  5828. IF lval < rval THEN RETURN FALSE END;
  5829. INC( ladr, linc ); DEC( len );
  5830. END;
  5831. RETURN TRUE;
  5832. END GeqASSSLoop;
  5833. OPERATOR ">="*( CONST left: ARRAY [ ? ] OF SHORTINT;
  5834. right: SHORTINT ): BOOLEAN;
  5835. BEGIN
  5836. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqASSSLoop );
  5837. END ">=";
  5838. OPERATOR "<="*( left: SHORTINT;
  5839. CONST right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5840. BEGIN
  5841. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GeqASSSLoop );
  5842. END "<=";
  5843. (** INTEGER *)
  5844. PROCEDURE GeqAISILoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5845. VAR lval, rval: INTEGER;
  5846. BEGIN
  5847. SYSTEM.GET( radr, rval );
  5848. WHILE (len > 0) DO
  5849. SYSTEM.GET( ladr, lval );
  5850. IF lval < rval THEN RETURN FALSE END;
  5851. INC( ladr, linc ); DEC( len );
  5852. END;
  5853. RETURN TRUE;
  5854. END GeqAISILoop;
  5855. OPERATOR ">="*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): BOOLEAN;
  5856. BEGIN
  5857. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqAISILoop );
  5858. END ">=";
  5859. OPERATOR "<="*( left: INTEGER;
  5860. CONST right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5861. BEGIN
  5862. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GeqAISILoop );
  5863. END "<=";
  5864. (** LONGINT *)
  5865. PROCEDURE GeqALSLLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5866. VAR lval, rval: LONGINT;
  5867. BEGIN
  5868. SYSTEM.GET( radr, rval );
  5869. WHILE (len > 0) DO
  5870. SYSTEM.GET( ladr, lval );
  5871. IF lval < rval THEN RETURN FALSE END;
  5872. INC( ladr, linc ); DEC( len );
  5873. END;
  5874. RETURN TRUE;
  5875. END GeqALSLLoop;
  5876. OPERATOR ">="*( CONST left: ARRAY [ ? ] OF LONGINT;
  5877. right: LONGINT ): BOOLEAN;
  5878. BEGIN
  5879. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqALSLLoop );
  5880. END ">=";
  5881. OPERATOR "<="*( left: LONGINT;
  5882. CONST right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5883. BEGIN
  5884. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GeqALSLLoop );
  5885. END "<=";
  5886. (** REAL *)
  5887. PROCEDURE GeqARSRLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5888. VAR lval, rval: REAL;
  5889. BEGIN
  5890. SYSTEM.GET( radr, rval );
  5891. WHILE (len > 0) DO
  5892. SYSTEM.GET( ladr, lval );
  5893. IF lval < rval THEN RETURN FALSE END;
  5894. INC( ladr, linc ); DEC( len );
  5895. END;
  5896. RETURN TRUE;
  5897. END GeqARSRLoop;
  5898. OPERATOR ">="*( CONST left: ARRAY [ ? ] OF REAL;
  5899. right: REAL ): BOOLEAN;
  5900. BEGIN
  5901. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqARSRLoop );
  5902. END ">=";
  5903. OPERATOR "<="*( left: REAL; CONST right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  5904. BEGIN
  5905. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GeqARSRLoop );
  5906. END "<=";
  5907. (** LONGREAL *)
  5908. PROCEDURE GeqAXSXLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5909. VAR lval, rval: LONGREAL;
  5910. BEGIN
  5911. SYSTEM.GET( radr, rval );
  5912. WHILE (len > 0) DO
  5913. SYSTEM.GET( ladr, lval );
  5914. IF lval < rval THEN RETURN FALSE END;
  5915. INC( ladr, linc ); DEC( len );
  5916. END;
  5917. RETURN TRUE;
  5918. END GeqAXSXLoop;
  5919. OPERATOR ">="*( CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): BOOLEAN;
  5920. BEGIN
  5921. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), GeqAXSXLoop );
  5922. END ">=";
  5923. OPERATOR "<="*( left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  5924. BEGIN
  5925. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), GeqAXSXLoop );
  5926. END "<=";
  5927. (*** leq : array x scalar -> boolean ********************************************************************)
  5928. (** SHORTINT *)
  5929. PROCEDURE LeqASSSLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5930. VAR lval, rval: SHORTINT;
  5931. BEGIN
  5932. SYSTEM.GET( radr, rval );
  5933. WHILE (len > 0) DO
  5934. SYSTEM.GET( ladr, lval );
  5935. IF lval > rval THEN RETURN FALSE END;
  5936. INC( ladr, linc ); DEC( len );
  5937. END;
  5938. RETURN TRUE;
  5939. END LeqASSSLoop;
  5940. OPERATOR "<="*( CONST left: ARRAY [ ? ] OF SHORTINT;right: SHORTINT ): BOOLEAN;
  5941. BEGIN
  5942. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqASSSLoop );
  5943. END "<=";
  5944. OPERATOR ">="*( left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  5945. BEGIN
  5946. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LeqASSSLoop );
  5947. END ">=";
  5948. (** INTEGER *)
  5949. PROCEDURE LeqAISILoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5950. VAR lval, rval: INTEGER;
  5951. BEGIN
  5952. SYSTEM.GET( radr, rval );
  5953. WHILE (len > 0) DO
  5954. SYSTEM.GET( ladr, lval );
  5955. IF lval > rval THEN RETURN FALSE END;
  5956. INC( ladr, linc ); DEC( len );
  5957. END;
  5958. RETURN TRUE;
  5959. END LeqAISILoop;
  5960. OPERATOR "<="*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): BOOLEAN;
  5961. BEGIN
  5962. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqAISILoop );
  5963. END "<=";
  5964. OPERATOR ">="*( left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  5965. BEGIN
  5966. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LeqAISILoop );
  5967. END ">=";
  5968. (** LONGINT *)
  5969. PROCEDURE LeqALSLLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5970. VAR lval, rval: LONGINT;
  5971. BEGIN
  5972. SYSTEM.GET( radr, rval );
  5973. WHILE (len > 0) DO
  5974. SYSTEM.GET( ladr, lval );
  5975. IF lval > rval THEN RETURN FALSE END;
  5976. INC( ladr, linc ); DEC( len );
  5977. END;
  5978. RETURN TRUE;
  5979. END LeqALSLLoop;
  5980. OPERATOR "<="*( CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): BOOLEAN;
  5981. BEGIN
  5982. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqALSLLoop );
  5983. END "<=";
  5984. OPERATOR ">="*( left: LONGINT; CONST right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  5985. BEGIN
  5986. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LeqALSLLoop );
  5987. END ">=";
  5988. (** REAL *)
  5989. PROCEDURE LeqARSRLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  5990. VAR lval, rval: REAL;
  5991. BEGIN
  5992. SYSTEM.GET( radr, rval );
  5993. WHILE (len > 0) DO
  5994. SYSTEM.GET( ladr, lval );
  5995. IF lval > rval THEN RETURN FALSE END;
  5996. INC( ladr, linc ); DEC( len );
  5997. END;
  5998. RETURN TRUE;
  5999. END LeqARSRLoop;
  6000. OPERATOR "<="*( CONST left: ARRAY [ ? ] OF REAL; right: REAL ): BOOLEAN;
  6001. BEGIN
  6002. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqARSRLoop );
  6003. END "<=";
  6004. OPERATOR ">="*( left: REAL; CONST right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  6005. BEGIN
  6006. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LeqARSRLoop );
  6007. END ">=";
  6008. (** LONGREAL *)
  6009. PROCEDURE LeqAXSXLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  6010. VAR lval, rval: LONGREAL;
  6011. BEGIN
  6012. SYSTEM.GET( radr, rval );
  6013. WHILE (len > 0) DO
  6014. SYSTEM.GET( ladr, lval );
  6015. IF lval > rval THEN RETURN FALSE END;
  6016. INC( ladr, linc ); DEC( len );
  6017. END;
  6018. RETURN TRUE;
  6019. END LeqAXSXLoop;
  6020. OPERATOR "<="*( CONST left: ARRAY [ ? ] OF LONGREAL; right: LONGREAL ): BOOLEAN;
  6021. BEGIN
  6022. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LeqAXSXLoop );
  6023. END "<=";
  6024. OPERATOR ">="*( left: LONGREAL; CONST right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  6025. BEGIN
  6026. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LeqAXSXLoop );
  6027. END ">=";
  6028. (*** lss: array x scalar -> boolean ********************************************************************)
  6029. (** SHORTINT *)
  6030. PROCEDURE LssASSSLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  6031. VAR lval, rval: SHORTINT;
  6032. BEGIN
  6033. SYSTEM.GET( radr, rval );
  6034. WHILE (len > 0) DO
  6035. SYSTEM.GET( ladr, lval );
  6036. IF lval >= rval THEN RETURN FALSE END;
  6037. INC( ladr, linc ); DEC( len );
  6038. END;
  6039. RETURN TRUE;
  6040. END LssASSSLoop;
  6041. OPERATOR "<"*( CONST left: ARRAY [ ? ] OF SHORTINT; right: SHORTINT ): BOOLEAN;
  6042. BEGIN
  6043. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LssASSSLoop );
  6044. END "<";
  6045. OPERATOR ">"*( left: SHORTINT; CONST right: ARRAY [ ? ] OF SHORTINT ): BOOLEAN;
  6046. BEGIN
  6047. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LssASSSLoop );
  6048. END ">";
  6049. (** INTEGER *)
  6050. PROCEDURE LssAISILoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  6051. VAR lval, rval: INTEGER;
  6052. BEGIN
  6053. SYSTEM.GET( radr, rval );
  6054. WHILE (len > 0) DO
  6055. SYSTEM.GET( ladr, lval );
  6056. IF lval >= rval THEN RETURN FALSE END;
  6057. INC( ladr, linc ); DEC( len );
  6058. END;
  6059. RETURN TRUE;
  6060. END LssAISILoop;
  6061. OPERATOR "<"*(CONST left: ARRAY [ ? ] OF INTEGER; right: INTEGER ): BOOLEAN;
  6062. BEGIN
  6063. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LssAISILoop );
  6064. END "<";
  6065. OPERATOR ">"*( left: INTEGER; CONST right: ARRAY [ ? ] OF INTEGER ): BOOLEAN;
  6066. BEGIN
  6067. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LssAISILoop );
  6068. END ">";
  6069. (** LONGINT *)
  6070. PROCEDURE LssALSLLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  6071. VAR lval, rval: LONGINT;
  6072. BEGIN
  6073. SYSTEM.GET( radr, rval );
  6074. WHILE (len > 0) DO
  6075. SYSTEM.GET( ladr, lval );
  6076. IF lval >= rval THEN RETURN FALSE END;
  6077. INC( ladr, linc ); DEC( len );
  6078. END;
  6079. RETURN TRUE;
  6080. END LssALSLLoop;
  6081. OPERATOR "<"*( CONST left: ARRAY [ ? ] OF LONGINT; right: LONGINT ): BOOLEAN;
  6082. BEGIN
  6083. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LssALSLLoop );
  6084. END "<";
  6085. OPERATOR ">"*( left: LONGINT;CONST right: ARRAY [ ? ] OF LONGINT ): BOOLEAN;
  6086. BEGIN
  6087. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LssALSLLoop );
  6088. END ">";
  6089. (** REAL *)
  6090. PROCEDURE LssARSRLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  6091. VAR lval, rval: REAL;
  6092. BEGIN
  6093. SYSTEM.GET( radr, rval );
  6094. WHILE (len > 0) DO
  6095. SYSTEM.GET( ladr, lval );
  6096. IF lval >= rval THEN RETURN FALSE END;
  6097. INC( ladr, linc ); DEC( len );
  6098. END;
  6099. RETURN TRUE;
  6100. END LssARSRLoop;
  6101. OPERATOR "<"*( CONST left: ARRAY [ ? ] OF REAL;
  6102. right: REAL ): BOOLEAN;
  6103. BEGIN
  6104. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LssARSRLoop );
  6105. END "<";
  6106. OPERATOR ">"*( left: REAL;
  6107. CONST right: ARRAY [ ? ] OF REAL ): BOOLEAN;
  6108. BEGIN
  6109. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LssARSRLoop );
  6110. END ">";
  6111. (** LONGREAL *)
  6112. PROCEDURE LssAXSXLoop( ladr, radr, linc, len: LONGINT ): BOOLEAN;
  6113. VAR lval, rval: LONGREAL;
  6114. BEGIN
  6115. SYSTEM.GET( radr, rval );
  6116. WHILE (len > 0) DO
  6117. SYSTEM.GET( ladr, lval );
  6118. IF lval >= rval THEN RETURN FALSE END;
  6119. INC( ladr, linc ); DEC( len );
  6120. END;
  6121. RETURN TRUE;
  6122. END LssAXSXLoop;
  6123. OPERATOR "<"*( CONST left: ARRAY [ ? ] OF LONGREAL;
  6124. right: LONGREAL ): BOOLEAN;
  6125. BEGIN
  6126. RETURN ApplyBinaryASBOp( ADDRESSOF( left ), ADDRESSOF( right ), LssAXSXLoop );
  6127. END "<";
  6128. OPERATOR ">"*( left: LONGREAL;
  6129. CONST right: ARRAY [ ? ] OF LONGREAL ): BOOLEAN;
  6130. BEGIN
  6131. RETURN ApplyBinaryASBOp( ADDRESSOF( right ), ADDRESSOF( left ), LssAXSXLoop );
  6132. END ">";
  6133. (**** binary max/min operators array x scalar-> array ********************************************************************)
  6134. PROCEDURE MaxAXSXLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6135. VAR lval, val: LONGREAL;
  6136. BEGIN
  6137. SYSTEM.GET( radr, val );
  6138. WHILE (len > 0) DO
  6139. SYSTEM.GET( ladr, lval );
  6140. INC( ladr, linc ); DEC( len );
  6141. IF lval>val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;;
  6142. INC(dadr,dinc);
  6143. END;
  6144. END MaxAXSXLoop;
  6145. OPERATOR "MAX"*(CONST left: ARRAY [?] OF LONGREAL; right: LONGREAL): ARRAY [?] OF LONGREAL;
  6146. TYPE Type = LONGREAL;
  6147. BEGIN
  6148. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MaxAXSXLoop );
  6149. RETURN RESULT
  6150. END "MAX";
  6151. PROCEDURE MaxARSRLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6152. VAR lval, val: REAL;
  6153. BEGIN
  6154. SYSTEM.GET( radr, val );
  6155. WHILE (len > 0) DO
  6156. SYSTEM.GET( ladr, lval );
  6157. INC( ladr, linc ); DEC( len );
  6158. IF lval>val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;;
  6159. INC(dadr,dinc);
  6160. END;
  6161. END MaxARSRLoop;
  6162. OPERATOR "MAX"*(CONST left: ARRAY [?] OF REAL; right: REAL): ARRAY [?] OF REAL;
  6163. TYPE Type = REAL;
  6164. BEGIN
  6165. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MaxARSRLoop );
  6166. RETURN RESULT
  6167. END "MAX";
  6168. PROCEDURE MaxALSLLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6169. VAR lval, val: LONGINT;
  6170. BEGIN
  6171. SYSTEM.GET( radr, val );
  6172. WHILE (len > 0) DO
  6173. SYSTEM.GET( ladr, lval );
  6174. INC( ladr, linc ); DEC( len );
  6175. IF lval>val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;
  6176. INC(dadr,dinc);
  6177. END;
  6178. END MaxALSLLoop;
  6179. OPERATOR "MAX"*(CONST left: ARRAY [?] OF LONGINT; right: LONGINT): ARRAY [?] OF LONGINT;
  6180. TYPE Type = LONGINT;
  6181. BEGIN
  6182. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MaxALSLLoop );
  6183. RETURN RESULT
  6184. END "MAX";
  6185. PROCEDURE MaxAISILoop( ladr, radr, dadr, linc, dinc, len: Address );
  6186. VAR lval, val: INTEGER;
  6187. BEGIN
  6188. SYSTEM.GET( radr, val );
  6189. WHILE (len > 0) DO
  6190. SYSTEM.GET( ladr, lval );
  6191. INC( ladr, linc ); DEC( len );
  6192. IF lval>val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;
  6193. INC(dadr,dinc);
  6194. END;
  6195. END MaxAISILoop;
  6196. OPERATOR "MAX"*(CONST left: ARRAY [?] OF INTEGER; right: INTEGER): ARRAY [?] OF INTEGER;
  6197. TYPE Type = INTEGER;
  6198. BEGIN
  6199. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MaxAISILoop );
  6200. RETURN RESULT
  6201. END "MAX";
  6202. PROCEDURE MaxASSSLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6203. VAR lval, val: SHORTINT;
  6204. BEGIN
  6205. SYSTEM.GET( radr, val );
  6206. WHILE (len > 0) DO
  6207. SYSTEM.GET( ladr, lval );
  6208. INC( ladr, linc ); DEC( len );
  6209. IF lval>val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;
  6210. INC(dadr,dinc);
  6211. END;
  6212. END MaxASSSLoop;
  6213. OPERATOR "MAX"*(CONST left: ARRAY [?] OF SHORTINT; right: SHORTINT): ARRAY [?] OF SHORTINT;
  6214. TYPE Type = SHORTINT;
  6215. BEGIN
  6216. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MaxASSSLoop );
  6217. RETURN RESULT
  6218. END "MAX";
  6219. PROCEDURE MinAXSXLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6220. VAR lval, val: LONGREAL;
  6221. BEGIN
  6222. SYSTEM.GET( radr, val );
  6223. WHILE (len > 0) DO
  6224. SYSTEM.GET( ladr, lval );
  6225. INC( ladr, linc ); DEC( len );
  6226. IF lval<val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;;
  6227. INC(dadr,dinc);
  6228. END;
  6229. END MinAXSXLoop;
  6230. OPERATOR "MIN"*(CONST left: ARRAY [?] OF LONGREAL; right: LONGREAL): ARRAY [?] OF LONGREAL;
  6231. TYPE Type = LONGREAL;
  6232. BEGIN
  6233. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MinAXSXLoop );
  6234. RETURN RESULT
  6235. END "MIN";
  6236. PROCEDURE MinARSRLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6237. VAR lval, val: REAL;
  6238. BEGIN
  6239. SYSTEM.GET( radr, val );
  6240. WHILE (len > 0) DO
  6241. SYSTEM.GET( ladr, lval );
  6242. INC( ladr, linc ); DEC( len );
  6243. IF lval<val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;;
  6244. INC(dadr,dinc);
  6245. END;
  6246. END MinARSRLoop;
  6247. OPERATOR "MIN"*(CONST left: ARRAY [?] OF REAL; right: REAL): ARRAY [?] OF REAL;
  6248. TYPE Type = REAL;
  6249. BEGIN
  6250. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MinARSRLoop );
  6251. RETURN RESULT
  6252. END "MIN";
  6253. PROCEDURE MinALSLLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6254. VAR lval, val: LONGINT;
  6255. BEGIN
  6256. SYSTEM.GET( radr, val );
  6257. WHILE (len > 0) DO
  6258. SYSTEM.GET( ladr, lval );
  6259. INC( ladr, linc ); DEC( len );
  6260. IF lval<val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;
  6261. INC(dadr,dinc);
  6262. END;
  6263. END MinALSLLoop;
  6264. OPERATOR "MIN"*(CONST left: ARRAY [?] OF LONGINT; right: LONGINT): ARRAY [?] OF LONGINT;
  6265. TYPE Type = LONGINT;
  6266. BEGIN
  6267. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MinALSLLoop );
  6268. RETURN RESULT
  6269. END "MIN";
  6270. PROCEDURE MinAISILoop( ladr, radr, dadr, linc, dinc, len: Address );
  6271. VAR lval, val: INTEGER;
  6272. BEGIN
  6273. SYSTEM.GET( radr, val );
  6274. WHILE (len > 0) DO
  6275. SYSTEM.GET( ladr, lval );
  6276. INC( ladr, linc ); DEC( len );
  6277. IF lval<val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;
  6278. INC(dadr,dinc);
  6279. END;
  6280. END MinAISILoop;
  6281. OPERATOR "MIN"*(CONST left: ARRAY [?] OF INTEGER; right: INTEGER): ARRAY [?] OF INTEGER;
  6282. TYPE Type = INTEGER;
  6283. BEGIN
  6284. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MinAISILoop );
  6285. RETURN RESULT
  6286. END "MIN";
  6287. PROCEDURE MinASSSLoop( ladr, radr, dadr, linc, dinc, len: Address );
  6288. VAR lval, val: SHORTINT;
  6289. BEGIN
  6290. SYSTEM.GET( radr, val );
  6291. WHILE (len > 0) DO
  6292. SYSTEM.GET( ladr, lval );
  6293. INC( ladr, linc ); DEC( len );
  6294. IF lval<val THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT(dadr, val) END;
  6295. INC(dadr,dinc);
  6296. END;
  6297. END MinASSSLoop;
  6298. OPERATOR "MIN"*(CONST left: ARRAY [?] OF SHORTINT; right: SHORTINT): ARRAY [?] OF SHORTINT;
  6299. TYPE Type = SHORTINT;
  6300. BEGIN
  6301. ApplyBinaryASAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( Type ), MinASSSLoop );
  6302. RETURN RESULT
  6303. END "MIN";
  6304. (**** binary max/min operators array x array -> array ********************************************************************)
  6305. PROCEDURE MaxAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6306. VAR lval, rval: LONGREAL;
  6307. BEGIN
  6308. WHILE (len > 0) DO
  6309. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6310. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6311. IF lval>rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6312. INC(dadr,dinc);
  6313. END;
  6314. END MaxAXAXLoop;
  6315. OPERATOR "MAX"*(CONST left, right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  6316. BEGIN
  6317. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGREAL ), MaxAXAXLoop );
  6318. RETURN RESULT
  6319. END "MAX";
  6320. PROCEDURE MaxARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6321. VAR lval, rval: REAL ;
  6322. BEGIN
  6323. WHILE (len > 0) DO
  6324. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6325. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6326. IF lval>rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6327. INC(dadr,dinc);
  6328. END;
  6329. END MaxARARLoop;
  6330. OPERATOR "MAX"*(CONST left, right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  6331. BEGIN
  6332. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ), MaxARARLoop );
  6333. RETURN RESULT
  6334. END "MAX";
  6335. PROCEDURE MaxALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6336. VAR lval, rval: LONGINT;
  6337. BEGIN
  6338. WHILE (len > 0) DO
  6339. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6340. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6341. IF lval>rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6342. INC(dadr,dinc);
  6343. END;
  6344. END MaxALALLoop;
  6345. OPERATOR "MAX"*(CONST left, right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT ;
  6346. BEGIN
  6347. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGINT ), MaxALALLoop );
  6348. RETURN RESULT
  6349. END "MAX";
  6350. PROCEDURE MaxAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6351. VAR lval, rval: INTEGER;
  6352. BEGIN
  6353. WHILE (len > 0) DO
  6354. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6355. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6356. IF lval>rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6357. INC(dadr,dinc);
  6358. END;
  6359. END MaxAIAILoop;
  6360. OPERATOR "MAX"*(CONST left, right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  6361. BEGIN
  6362. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( INTEGER ), MaxAIAILoop );
  6363. RETURN RESULT
  6364. END "MAX";
  6365. PROCEDURE MaxASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6366. VAR lval, rval: SHORTINT;
  6367. BEGIN
  6368. WHILE (len > 0) DO
  6369. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6370. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6371. IF lval>rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6372. INC(dadr,dinc);
  6373. END;
  6374. END MaxASASLoop;
  6375. OPERATOR "MAX"*(CONST left, right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  6376. BEGIN
  6377. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( SHORTINT ), MaxASASLoop );
  6378. RETURN RESULT
  6379. END "MAX";
  6380. PROCEDURE MinAXAXLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6381. VAR lval, rval: LONGREAL;
  6382. BEGIN
  6383. WHILE (len > 0) DO
  6384. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6385. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6386. IF lval<rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6387. INC(dadr,dinc);
  6388. END;
  6389. END MinAXAXLoop;
  6390. OPERATOR "MIN"*(CONST left, right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  6391. BEGIN
  6392. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGREAL ), MinAXAXLoop );
  6393. RETURN RESULT
  6394. END "MIN";
  6395. PROCEDURE MinARARLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6396. VAR lval, rval: REAL ;
  6397. BEGIN
  6398. WHILE (len > 0) DO
  6399. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6400. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6401. IF lval<rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6402. INC(dadr,dinc);
  6403. END;
  6404. END MinARARLoop;
  6405. OPERATOR "MIN"*(CONST left, right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  6406. BEGIN
  6407. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ), MinARARLoop );
  6408. RETURN RESULT
  6409. END "MIN";
  6410. PROCEDURE MinALALLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6411. VAR lval, rval: LONGINT;
  6412. BEGIN
  6413. WHILE (len > 0) DO
  6414. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6415. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6416. IF lval<rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6417. INC(dadr,dinc);
  6418. END;
  6419. END MinALALLoop;
  6420. OPERATOR "MIN"*(CONST left, right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT ;
  6421. BEGIN
  6422. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGINT ), MinALALLoop );
  6423. RETURN RESULT
  6424. END "MIN";
  6425. PROCEDURE MinAIAILoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6426. VAR lval, rval: INTEGER;
  6427. BEGIN
  6428. WHILE (len > 0) DO
  6429. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6430. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6431. IF lval<rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6432. INC(dadr,dinc);
  6433. END;
  6434. END MinAIAILoop;
  6435. OPERATOR "MIN"*(CONST left, right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  6436. BEGIN
  6437. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( INTEGER ), MinAIAILoop );
  6438. RETURN RESULT
  6439. END "MIN";
  6440. PROCEDURE MinASASLoop( ladr, radr, dadr, linc, rinc, dinc, len: Address );
  6441. VAR lval, rval: SHORTINT;
  6442. BEGIN
  6443. WHILE (len > 0) DO
  6444. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval );
  6445. INC( ladr, linc ); INC(radr,rinc ); DEC( len );
  6446. IF lval<rval THEN SYSTEM.PUT( dadr, lval) ELSE SYSTEM.PUT (dadr,rval) END;
  6447. INC(dadr,dinc);
  6448. END;
  6449. END MinASASLoop;
  6450. OPERATOR "MIN"*(CONST left, right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  6451. BEGIN
  6452. ApplyBinaryAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( SHORTINT ), MinASASLoop );
  6453. RETURN RESULT
  6454. END "MIN";
  6455. (**** unary operators array -> scalar ********************************************************************)
  6456. (*** min: array -> scalar ****************************************)
  6457. (** SHORTINT *)
  6458. PROCEDURE MinASLoop( ladr, dadr, linc, len: LONGINT );
  6459. VAR lval, dval: SHORTINT;
  6460. BEGIN
  6461. SYSTEM.GET( dadr, dval );
  6462. WHILE (len > 0) DO
  6463. SYSTEM.GET( ladr, lval );
  6464. IF lval < dval THEN dval := lval END;
  6465. INC( ladr, linc ); DEC( len );
  6466. END;
  6467. SYSTEM.PUT( dadr, dval );
  6468. END MinASLoop;
  6469. OPERATOR "MIN"*( CONST left: ARRAY [ ? ] OF SHORTINT ): SHORTINT;
  6470. TYPE Type = SHORTINT;
  6471. VAR val: Type;
  6472. BEGIN
  6473. val := MAX( Type );
  6474. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MinASLoop ); RETURN val;
  6475. END "MIN";
  6476. (** INTEGER *)
  6477. PROCEDURE MinAILoop( ladr, dadr, linc, len: LONGINT );
  6478. VAR lval, dval: INTEGER;
  6479. BEGIN
  6480. SYSTEM.GET( dadr, dval );
  6481. WHILE (len > 0) DO
  6482. SYSTEM.GET( ladr, lval );
  6483. IF lval < dval THEN dval := lval END;
  6484. INC( ladr, linc ); DEC( len );
  6485. END;
  6486. SYSTEM.PUT( dadr, dval );
  6487. END MinAILoop;
  6488. OPERATOR "MIN"*( CONST left: ARRAY [ ? ] OF INTEGER ): INTEGER;
  6489. TYPE Type = INTEGER;
  6490. VAR val: Type;
  6491. BEGIN
  6492. val := MAX( Type );
  6493. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MinAILoop ); RETURN val;
  6494. END "MIN";
  6495. (** LONGINT *)
  6496. PROCEDURE MinALLoop( ladr, dadr, linc, len: LONGINT );
  6497. VAR lval, dval: LONGINT;
  6498. BEGIN
  6499. SYSTEM.GET( dadr, dval );
  6500. WHILE (len > 0) DO
  6501. SYSTEM.GET( ladr, lval );
  6502. IF lval < dval THEN dval := lval END;
  6503. INC( ladr, linc ); DEC( len );
  6504. END;
  6505. SYSTEM.PUT( dadr, dval );
  6506. END MinALLoop;
  6507. OPERATOR "MIN"*( CONST left: ARRAY [ ? ] OF LONGINT ): LONGINT;
  6508. TYPE Type = LONGINT;
  6509. VAR val: Type;
  6510. BEGIN
  6511. val := MAX( Type );
  6512. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MinALLoop ); RETURN val;
  6513. END "MIN";
  6514. (** REAL *)
  6515. PROCEDURE MinARLoop( ladr, dadr, linc, len: LONGINT );
  6516. VAR lval, dval: REAL;
  6517. BEGIN
  6518. SYSTEM.GET( dadr, dval );
  6519. WHILE (len > 0) DO
  6520. SYSTEM.GET( ladr, lval );
  6521. IF lval < dval THEN dval := lval END;
  6522. INC( ladr, linc ); DEC( len );
  6523. END;
  6524. SYSTEM.PUT( dadr, dval );
  6525. END MinARLoop;
  6526. OPERATOR "MIN"*( CONST left: ARRAY [ ? ] OF REAL ): REAL;
  6527. TYPE Type = REAL;
  6528. VAR val: Type;
  6529. BEGIN
  6530. val := MAX( Type );
  6531. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MinARLoop ); RETURN val;
  6532. END "MIN";
  6533. (** LONGREAL *)
  6534. PROCEDURE MinAXLoop( ladr, dadr, linc, len: LONGINT );
  6535. VAR lval, dval: LONGREAL;
  6536. BEGIN
  6537. SYSTEM.GET( dadr, dval );
  6538. WHILE (len > 0) DO
  6539. SYSTEM.GET( ladr, lval );
  6540. IF lval < dval THEN dval := lval END;
  6541. INC( ladr, linc ); DEC( len );
  6542. END;
  6543. SYSTEM.PUT( dadr, dval );
  6544. END MinAXLoop;
  6545. OPERATOR "MIN"*( CONST left: ARRAY [ ? ] OF LONGREAL ): LONGREAL;
  6546. TYPE Type = LONGREAL;
  6547. VAR val: Type;
  6548. BEGIN
  6549. val := MAX( Type );
  6550. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MinAXLoop ); RETURN val;
  6551. END "MIN";
  6552. (*** max: array -> scalar ********************************************************************)
  6553. (** SHORTINT *)
  6554. PROCEDURE MaxASLoop( ladr, dadr, linc, len: LONGINT );
  6555. VAR lval, dval: SHORTINT;
  6556. BEGIN
  6557. SYSTEM.GET( dadr, dval );
  6558. WHILE (len > 0) DO
  6559. SYSTEM.GET( ladr, lval );
  6560. IF lval > dval THEN dval := lval END;
  6561. INC( ladr, linc ); DEC( len );
  6562. END;
  6563. SYSTEM.PUT( dadr, dval );
  6564. END MaxASLoop;
  6565. OPERATOR "MAX"*( CONST left: ARRAY [ ? ] OF SHORTINT ): SHORTINT;
  6566. TYPE Type = SHORTINT;
  6567. VAR val: Type;
  6568. BEGIN
  6569. val := MIN( Type );
  6570. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MaxASLoop ); RETURN val;
  6571. END "MAX";
  6572. (** INTEGER *)
  6573. PROCEDURE MaxAILoop( ladr, dadr, linc, len: LONGINT );
  6574. VAR lval, dval: INTEGER;
  6575. BEGIN
  6576. SYSTEM.GET( dadr, dval );
  6577. WHILE (len > 0) DO
  6578. SYSTEM.GET( ladr, lval );
  6579. IF lval > dval THEN dval := lval END;
  6580. INC( ladr, linc ); DEC( len );
  6581. END;
  6582. SYSTEM.PUT( dadr, dval );
  6583. END MaxAILoop;
  6584. OPERATOR "MAX"*( CONST left: ARRAY [ ? ] OF INTEGER ): INTEGER;
  6585. TYPE Type = INTEGER;
  6586. VAR val: Type;
  6587. BEGIN
  6588. val := MIN( Type );
  6589. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MaxAILoop ); RETURN val;
  6590. END "MAX";
  6591. (** LONGINT *)
  6592. PROCEDURE MaxALLoop( ladr, dadr, linc, len: LONGINT );
  6593. VAR lval, dval: LONGINT;
  6594. BEGIN
  6595. SYSTEM.GET( dadr, dval );
  6596. WHILE (len > 0) DO
  6597. SYSTEM.GET( ladr, lval );
  6598. IF lval > dval THEN dval := lval END;
  6599. INC( ladr, linc ); DEC( len );
  6600. END;
  6601. SYSTEM.PUT( dadr, dval );
  6602. END MaxALLoop;
  6603. OPERATOR "MAX"*( CONST left: ARRAY [ ? ] OF LONGINT ): LONGINT;
  6604. TYPE Type = LONGINT;
  6605. VAR val: Type;
  6606. BEGIN
  6607. val := MIN( Type );
  6608. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MaxALLoop ); RETURN val;
  6609. END "MAX";
  6610. (** REAL *)
  6611. PROCEDURE MaxARLoop( ladr, dadr, linc, len: LONGINT );
  6612. VAR lval, dval: REAL;
  6613. BEGIN
  6614. SYSTEM.GET( dadr, dval );
  6615. WHILE (len > 0) DO
  6616. SYSTEM.GET( ladr, lval );
  6617. IF lval > dval THEN dval := lval END;
  6618. INC( ladr, linc ); DEC( len );
  6619. END;
  6620. SYSTEM.PUT( dadr, dval );
  6621. END MaxARLoop;
  6622. OPERATOR "MAX"*( CONST left: ARRAY [ ? ] OF REAL ): REAL;
  6623. TYPE Type = REAL;
  6624. VAR val: Type;
  6625. BEGIN
  6626. val := MIN( Type );
  6627. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MaxARLoop ); RETURN val;
  6628. END "MAX";
  6629. (** LONGREAL *)
  6630. PROCEDURE MaxAXLoop( ladr, dadr, linc, len: LONGINT );
  6631. VAR lval, dval: LONGREAL;
  6632. BEGIN
  6633. SYSTEM.GET( dadr, dval );
  6634. WHILE (len > 0) DO
  6635. SYSTEM.GET( ladr, lval );
  6636. IF lval > dval THEN dval := lval END;
  6637. INC( ladr, linc ); DEC( len );
  6638. END;
  6639. SYSTEM.PUT( dadr, dval );
  6640. END MaxAXLoop;
  6641. OPERATOR "MAX"*( CONST left: ARRAY [ ? ] OF LONGREAL ): LONGREAL;
  6642. TYPE Type = LONGREAL;
  6643. VAR val: Type;
  6644. BEGIN
  6645. val := MIN( Type );
  6646. ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), MaxAXLoop ); RETURN val;
  6647. END "MAX";
  6648. (*** LEN: array -> array **)
  6649. OPERATOR "LEN"*(CONST left: ARRAY [?]): ARRAY [*] OF LONGINT;
  6650. VAR src,dim,i: LONGINT;
  6651. BEGIN
  6652. src := SYSTEM.VAL(LONGINT,left);
  6653. dim := GetDim( src );
  6654. IF (DIM(RESULT)#1) OR (LEN(RESULT,0) # dim) THEN NEW(RESULT,dim) END;
  6655. FOR i := 0 TO dim-1 DO RESULT[i] := GetLen(src,i) END;
  6656. RETURN RESULT
  6657. END "LEN";
  6658. (*** SUM: array -> scalar ********************************************************************)
  6659. (** SHORTINT *)
  6660. PROCEDURE SumASLoop( ladr, dadr, linc, len: LONGINT );
  6661. VAR lval, dval: SHORTINT;
  6662. BEGIN
  6663. SYSTEM.GET( dadr, dval );
  6664. WHILE (len > 0) DO
  6665. SYSTEM.GET( ladr, lval ); dval := dval + lval; INC( ladr, linc ); DEC( len );
  6666. END;
  6667. SYSTEM.PUT( dadr, dval );
  6668. END SumASLoop;
  6669. OPERATOR "SUM"*( CONST left: ARRAY [ ? ] OF SHORTINT ): SHORTINT;
  6670. TYPE Type = SHORTINT;
  6671. VAR val: Type;
  6672. BEGIN
  6673. val := 0; ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), SumASLoop );
  6674. RETURN val;
  6675. END "SUM";
  6676. (** INTEGER *)
  6677. PROCEDURE SumAILoop( ladr, dadr, linc, len: LONGINT );
  6678. VAR lval, dval: INTEGER;
  6679. BEGIN
  6680. SYSTEM.GET( dadr, dval );
  6681. WHILE (len > 0) DO
  6682. SYSTEM.GET( ladr, lval ); dval := dval + lval; INC( ladr, linc ); DEC( len );
  6683. END;
  6684. SYSTEM.PUT( dadr, dval );
  6685. END SumAILoop;
  6686. OPERATOR "SUM"*( CONST left: ARRAY [ ? ] OF INTEGER ): INTEGER;
  6687. TYPE Type = INTEGER;
  6688. VAR val: Type;
  6689. BEGIN
  6690. val := 0; ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), SumAILoop );
  6691. RETURN val;
  6692. END "SUM";
  6693. (** LONGINT *)
  6694. PROCEDURE SumALLoop( ladr, dadr, linc, len: LONGINT );
  6695. VAR lval, dval: LONGINT;
  6696. BEGIN
  6697. SYSTEM.GET( dadr, dval );
  6698. WHILE (len > 0) DO
  6699. SYSTEM.GET( ladr, lval ); dval := dval + lval; INC( ladr, linc ); DEC( len );
  6700. END;
  6701. SYSTEM.PUT( dadr, dval );
  6702. END SumALLoop;
  6703. OPERATOR "SUM"*( CONST left: ARRAY [ ? ] OF LONGINT ): LONGINT;
  6704. TYPE Type = LONGINT;
  6705. VAR val: Type;
  6706. BEGIN
  6707. val := 0; ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), SumALLoop );
  6708. RETURN val;
  6709. END "SUM";
  6710. (** REAL *)
  6711. PROCEDURE SumARLoop( ladr, dadr, linc, len: LONGINT );
  6712. VAR lval, dval: REAL;
  6713. BEGIN
  6714. SYSTEM.GET( dadr, dval );
  6715. WHILE (len > 0) DO
  6716. SYSTEM.GET( ladr, lval ); dval := dval + lval; INC( ladr, linc ); DEC( len );
  6717. END;
  6718. SYSTEM.PUT( dadr, dval );
  6719. END SumARLoop;
  6720. OPERATOR "SUM"*( CONST left: ARRAY [ ? ] OF REAL ): REAL;
  6721. TYPE Type = REAL;
  6722. VAR val: Type;
  6723. BEGIN
  6724. val := 0; ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), SumARLoop );
  6725. RETURN val;
  6726. END "SUM";
  6727. (** LONGREAL *)
  6728. PROCEDURE SumAXLoop( ladr, dadr, linc, len: LONGINT );
  6729. VAR lval, dval: LONGREAL;
  6730. BEGIN
  6731. SYSTEM.GET( dadr, dval );
  6732. WHILE (len > 0) DO
  6733. SYSTEM.GET( ladr, lval ); dval := dval + lval; INC( ladr, linc ); DEC( len );
  6734. END;
  6735. SYSTEM.PUT( dadr, dval );
  6736. END SumAXLoop;
  6737. OPERATOR "SUM"*( CONST left: ARRAY [ ? ] OF LONGREAL ): LONGREAL;
  6738. TYPE Type = LONGREAL;
  6739. VAR val: Type;
  6740. BEGIN
  6741. val := 0; ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), SumAXLoop );
  6742. RETURN val;
  6743. END "SUM";
  6744. (** COMPLEX *)
  6745. PROCEDURE SumAZLoop( ladr, dadr, linc, len: LONGINT );
  6746. VAR lval, dval: COMPLEX;
  6747. BEGIN
  6748. SYSTEM.GET( dadr, dval );
  6749. WHILE (len > 0) DO
  6750. SYSTEM.GET( ladr, lval ); dval := dval + lval; INC( ladr, linc ); DEC( len );
  6751. END;
  6752. SYSTEM.PUT( dadr, dval );
  6753. END SumAZLoop;
  6754. OPERATOR "SUM"*( CONST left: ARRAY [ ? ] OF COMPLEX ): COMPLEX;
  6755. TYPE Type = COMPLEX;
  6756. VAR val: Type;
  6757. BEGIN
  6758. val := 0; ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), SumAZLoop );
  6759. RETURN val;
  6760. END "SUM";
  6761. (** LONGCOMPLEX *)
  6762. PROCEDURE SumALZLoop( ladr, dadr, linc, len: LONGINT );
  6763. VAR lvalRe, lvalIm, dvalRe, dvalIm: LONGREAL;
  6764. BEGIN
  6765. SYSTEM.GET( dadr, dvalRe ); SYSTEM.GET( dadr+SIZEOF(LONGREAL), dvalIm );
  6766. WHILE (len > 0) DO
  6767. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  6768. dvalRe := dvalRe + lvalRe; dvalIm := dvalIm + lvalIm;
  6769. INC( ladr, linc ); DEC( len );
  6770. END;
  6771. SYSTEM.PUT( dadr, dvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), dvalIm );
  6772. END SumALZLoop;
  6773. OPERATOR "SUM"*( CONST left: ARRAY [ ? ] OF LONGCOMPLEX ): LONGCOMPLEX;
  6774. TYPE Type = LONGCOMPLEX;
  6775. VAR val: Type;
  6776. BEGIN
  6777. val := 0; ApplyUnaryASOp( ADDRESSOF( val ), ADDRESSOF( left ), SumALZLoop );
  6778. RETURN val;
  6779. END "SUM";
  6780. (*** monadic ABS array -> array ********************************************************************)
  6781. (** SHORTINT *)
  6782. PROCEDURE AbsLoopS( ladr, dadr, linc, dinc, len: LONGINT );
  6783. VAR lval: SHORTINT;
  6784. BEGIN
  6785. WHILE (len > 0) DO
  6786. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, ABS( lval ) ); INC( ladr, linc );
  6787. INC( dadr, dinc ); DEC( len );
  6788. END;
  6789. END AbsLoopS;
  6790. OPERATOR "ABS"*(CONST src: ARRAY [ ? ] OF SHORTINT): ARRAY [ ? ] OF SHORTINT;
  6791. BEGIN
  6792. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( SHORTINT ), AbsLoopS );
  6793. RETURN RESULT
  6794. END "ABS";
  6795. (** INTEGER *)
  6796. PROCEDURE AbsLoopI( ladr, dadr, linc, dinc, len: LONGINT );
  6797. VAR lval: INTEGER;
  6798. BEGIN
  6799. WHILE (len > 0) DO
  6800. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, ABS( lval ) ); INC( ladr, linc );
  6801. INC( dadr, dinc ); DEC( len );
  6802. END;
  6803. END AbsLoopI;
  6804. OPERATOR "ABS"*(CONST src: ARRAY [ ? ] OF INTEGER): ARRAY [ ? ] OF INTEGER;
  6805. BEGIN
  6806. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( INTEGER ), AbsLoopI );
  6807. RETURN RESULT
  6808. END "ABS";
  6809. (** LONGINT *)
  6810. PROCEDURE AbsLoopL( ladr, dadr, linc, dinc, len: LONGINT );
  6811. VAR lval: LONGINT;
  6812. BEGIN
  6813. WHILE (len > 0) DO
  6814. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, ABS( lval ) ); INC( ladr, linc );
  6815. INC( dadr, dinc ); DEC( len );
  6816. END;
  6817. END AbsLoopL;
  6818. OPERATOR "ABS"*(CONST src: ARRAY [ ? ] OF LONGINT): ARRAY [ ? ] OF LONGINT;
  6819. BEGIN
  6820. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGINT ), AbsLoopL );
  6821. RETURN RESULT
  6822. END "ABS";
  6823. (** REAL *)
  6824. PROCEDURE AbsLoopR( ladr, dadr, linc, dinc, len: LONGINT );
  6825. VAR lval: REAL;
  6826. BEGIN
  6827. WHILE (len > 0) DO
  6828. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, ABS( lval ) ); INC( ladr, linc );
  6829. INC( dadr, dinc ); DEC( len );
  6830. END;
  6831. END AbsLoopR;
  6832. OPERATOR "ABS"*(CONST src: ARRAY [ ? ] OF REAL): ARRAY [ ? ] OF REAL;
  6833. BEGIN
  6834. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), AbsLoopR );
  6835. RETURN RESULT
  6836. END "ABS";
  6837. (** LONGREAL *)
  6838. PROCEDURE AbsLoopX( ladr, dadr, linc, dinc, len: LONGINT );
  6839. VAR lval: LONGREAL;
  6840. BEGIN
  6841. WHILE (len > 0) DO
  6842. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, ABS( lval ) ); INC( ladr, linc );
  6843. INC( dadr, dinc ); DEC( len );
  6844. END;
  6845. END AbsLoopX;
  6846. OPERATOR "ABS"*(CONST src: ARRAY [ ? ] OF LONGREAL): ARRAY [ ? ] OF LONGREAL;
  6847. BEGIN
  6848. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ), AbsLoopX );
  6849. RETURN RESULT
  6850. END "ABS";
  6851. (** COMPLEX *)
  6852. PROCEDURE AbsLoopZ( ladr, dadr, linc, dinc, len: LONGINT );
  6853. VAR lval: COMPLEX;
  6854. BEGIN
  6855. WHILE (len > 0) DO
  6856. SYSTEM.GET( ladr, lval ); SYSTEM.PUT( dadr, ABS(lval) ); INC( ladr, linc );
  6857. INC( dadr, dinc ); DEC( len );
  6858. END;
  6859. END AbsLoopZ;
  6860. OPERATOR "ABS"*(CONST src: ARRAY [ ? ] OF COMPLEX): ARRAY [ ? ] OF REAL;
  6861. BEGIN
  6862. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( REAL ), AbsLoopZ );
  6863. RETURN RESULT
  6864. END "ABS";
  6865. (** LONGCOMPLEX *)
  6866. PROCEDURE AbsLoopLZ( ladr, dadr, linc, dinc, len: LONGINT );
  6867. VAR lvalRe, lvalIm: LONGREAL;
  6868. BEGIN
  6869. WHILE (len > 0) DO
  6870. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  6871. SYSTEM.PUT( dadr, MathL.sqrt(lvalRe*lvalRe + lvalIm*lvalIm) );
  6872. INC( ladr, linc );
  6873. INC( dadr, dinc ); DEC( len );
  6874. END;
  6875. END AbsLoopLZ;
  6876. OPERATOR "ABS"*(CONST src: ARRAY [ ? ] OF LONGCOMPLEX): ARRAY [ ? ] OF LONGREAL;
  6877. BEGIN
  6878. ApplyUnaryAAOp( ADDRESSOF( RESULT ), ADDRESSOF( src ), SIZEOF( LONGREAL ), AbsLoopLZ );
  6879. RETURN RESULT
  6880. END "ABS";
  6881. (*** assign number to array (initialisation) ********************************************************************)
  6882. (** BOOLEAN *)
  6883. PROCEDURE AssignSBABLoop( ladr, dadr, dinc, len: LONGINT );
  6884. VAR lval: BOOLEAN;
  6885. BEGIN
  6886. SYSTEM.GET( ladr, lval );
  6887. WHILE (len > 0) DO SYSTEM.PUT( dadr, lval ); INC( dadr, dinc ); DEC( len ); END;
  6888. END AssignSBABLoop;
  6889. OPERATOR ":="*(VAR dest: ARRAY [?] OF BOOLEAN; right: BOOLEAN);
  6890. BEGIN
  6891. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSBABLoop );
  6892. END ":=";
  6893. (** SHORTINT*)
  6894. PROCEDURE AssignSSASLoop( ladr, dadr, dinc, len: LONGINT );
  6895. VAR lval: SHORTINT;
  6896. BEGIN
  6897. SYSTEM.GET( ladr, lval );
  6898. WHILE (len > 0) DO SYSTEM.PUT( dadr, lval ); INC( dadr, dinc ); DEC( len ); END;
  6899. END AssignSSASLoop;
  6900. OPERATOR ":="*(VAR dest: ARRAY [?] OF SHORTINT; right: SHORTINT);
  6901. BEGIN
  6902. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSSASLoop );
  6903. END ":=";
  6904. (**INTEGER *)
  6905. PROCEDURE AssignSIAILoop( ladr, dadr, dinc, len: LONGINT );
  6906. VAR lval: INTEGER;
  6907. BEGIN
  6908. SYSTEM.GET( ladr, lval );
  6909. WHILE (len > 0) DO SYSTEM.PUT( dadr, lval ); INC( dadr, dinc ); DEC( len ); END;
  6910. END AssignSIAILoop;
  6911. OPERATOR ":="*(VAR dest: ARRAY [?] OF INTEGER; right: INTEGER);
  6912. BEGIN
  6913. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSIAILoop );
  6914. END ":=";
  6915. (** LONGINT *)
  6916. PROCEDURE AssignSLALLoop( ladr, dadr, dinc, len: LONGINT );
  6917. VAR lval: LONGINT;
  6918. BEGIN
  6919. SYSTEM.GET( ladr, lval );
  6920. WHILE (len > 0) DO SYSTEM.PUT( dadr, lval ); INC( dadr, dinc ); DEC( len ); END;
  6921. END AssignSLALLoop;
  6922. OPERATOR ":="*(VAR dest: ARRAY [?] OF LONGINT; right: LONGINT);
  6923. BEGIN
  6924. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSLALLoop );
  6925. END ":=";
  6926. (** REAL *)
  6927. PROCEDURE AssignSRARLoop( ladr, dadr, dinc, len: LONGINT );
  6928. VAR lval: REAL;
  6929. BEGIN
  6930. SYSTEM.GET( ladr, lval );
  6931. WHILE (len > 0) DO SYSTEM.PUT( dadr, lval ); INC( dadr, dinc ); DEC( len ); END;
  6932. END AssignSRARLoop;
  6933. OPERATOR ":="*(VAR dest: ARRAY [?] OF REAL; right: REAL);
  6934. BEGIN
  6935. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSRARLoop );
  6936. END ":=";
  6937. (** LONGREAL *)
  6938. PROCEDURE AssignSXAXLoop( ladr, dadr, dinc, len: LONGINT );
  6939. VAR lval: LONGREAL;
  6940. BEGIN
  6941. SYSTEM.GET( ladr, lval );
  6942. WHILE (len > 0) DO SYSTEM.PUT( dadr, lval ); INC( dadr, dinc ); DEC( len ); END;
  6943. END AssignSXAXLoop;
  6944. OPERATOR ":="*(VAR dest: ARRAY [?] OF LONGREAL; right: LONGREAL);
  6945. BEGIN
  6946. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSXAXLoop );
  6947. END ":=";
  6948. (** COMPLEX *)
  6949. PROCEDURE AssignSZAZLoop( ladr, dadr, dinc, len: LONGINT );
  6950. VAR lval: COMPLEX;
  6951. BEGIN
  6952. SYSTEM.GET( ladr, lval );
  6953. WHILE (len > 0) DO SYSTEM.PUT( dadr, lval ); INC( dadr, dinc ); DEC( len ); END;
  6954. END AssignSZAZLoop;
  6955. OPERATOR ":="*(VAR dest: ARRAY [?] OF COMPLEX; right: COMPLEX);
  6956. BEGIN
  6957. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSZAZLoop );
  6958. END ":=";
  6959. (** LONGCOMPLEX *)
  6960. PROCEDURE AssignSLZALZLoop( ladr, dadr, dinc, len: LONGINT );
  6961. VAR lvalRe, lvalIm: LONGREAL;
  6962. BEGIN
  6963. SYSTEM.GET( ladr, lvalRe ); SYSTEM.GET( ladr+SIZEOF(LONGREAL), lvalIm );
  6964. WHILE (len > 0) DO SYSTEM.PUT( dadr, lvalRe ); SYSTEM.PUT( dadr+SIZEOF(LONGREAL), lvalIm ); INC( dadr, dinc ); DEC( len ); END;
  6965. END AssignSLZALZLoop;
  6966. OPERATOR ":="*(VAR dest: ARRAY [?] OF LONGCOMPLEX; right: LONGCOMPLEX);
  6967. BEGIN
  6968. ApplyUnarySAOp( ADDRESSOF( dest ), ADDRESSOF( right ), AssignSLZALZLoop );
  6969. END ":=";
  6970. (*** matrix multipliation ********************************************************************)
  6971. PROCEDURE AllocateMatrix( dest: Address;
  6972. rows, cols, elementsize: LONGINT ): ANY;
  6973. VAR p: ANY;
  6974. BEGIN
  6975. (*
  6976. KernelLog.String( "ALLOCATE MATRIX WAS CALLED" ); KernelLog.Ln;
  6977. *)
  6978. SYSTEM.NEW( p, rows * cols * elementsize ); PutLen( dest, 1, cols );
  6979. PutLen( dest, 0, rows ); PutInc( dest, 1, elementsize );
  6980. PutInc( dest, 0, elementsize * cols ); PutAdr( dest, SYSTEM.VAL( LONGINT, p ) );
  6981. PutPtr( dest, SYSTEM.VAL( LONGINT, p ) ); RETURN p;
  6982. END AllocateMatrix;
  6983. PROCEDURE AllocateVector( dest: Address; l0, elementsize: LONGINT ): ANY;
  6984. VAR p: ANY;
  6985. BEGIN
  6986. SYSTEM.NEW( p, l0 * elementsize ); PutLen( dest, 0, l0 );
  6987. PutInc( dest, 0, elementsize ); PutAdr( dest, SYSTEM.VAL( LONGINT, p ) );
  6988. PutPtr( dest, SYSTEM.VAL( LONGINT, p ) ); RETURN p;
  6989. END AllocateVector;
  6990. PROCEDURE ApplyMatMulLoop( dest, left, right: Address; Size: LONGINT;
  6991. loop: BinaryAASLoop;
  6992. fast: FastMatMul ); (* Size= element-size *)
  6993. VAR ladr, radr, dadr, dadri, radri, rowsL, colsL, rowsR, colsR, incL, incR, incD, strideR, strideL, strideD, colsRi: LONGINT;
  6994. p: ANY; overlap: BOOLEAN; destOld, destNew: LONGINT;
  6995. BEGIN
  6996. (*
  6997. <- 1 ->
  6998. xxx xxxx -> xxxx
  6999. ^ xxx xxxx xxxx
  7000. 0 xxx xxxx xxxx
  7001. v xxx xxxx
  7002. xxx xxxx
  7003. Len(..,1): #columns ; Inc(..,1): inc in rows
  7004. Len(..,0): #rows ; Inc(..,0): inc between rows
  7005. *)
  7006. (* apply multiplication D = L * R *)
  7007. rowsL := GetLen( left, 0 ); (* # left rows = # dest rows*)
  7008. colsL := GetLen( left, 1 ); (* # left columns *)
  7009. rowsR := GetLen( right, 0 ); (* # right rows =!= left columns *)
  7010. colsR := GetLen( right, 1 ); (* # right columns = # dest columns*)
  7011. (* check geometric restriction *)
  7012. IF colsL # rowsR THEN Halt( GeometryMismatch, left, right, 0 ); END;
  7013. IF GetAdr( dest ) = 0 THEN p := AllocateMatrix( dest, rowsL, colsR, Size );
  7014. ELSIF (GetLen( dest, 0 ) # rowsL) OR (GetLen( dest, 1 ) # colsR) THEN
  7015. IF RangeFlag IN GetFlags( dest ) THEN
  7016. Halt( GeometryMismatch, left, right, dest )
  7017. ELSE p := AllocateMatrix( dest, rowsL, colsR, Size );
  7018. END;
  7019. END;
  7020. overlap := Overlap( left, dest ) OR Overlap( right, dest );
  7021. IF overlap THEN
  7022. destOld := dest; destNew := 0;
  7023. p := AllocateSame( destNew, destOld, Size );
  7024. CopyContent( destNew, destOld, Size ); (* for INCMUL ! *)
  7025. dest := destNew;
  7026. END;
  7027. IF (GetLen( dest, 0 ) # rowsL) OR (GetLen( dest, 1 ) # colsR) THEN
  7028. HALT( 9999 )
  7029. END;
  7030. ladr := GetAdr( left ); radr := GetAdr( right ); dadr := GetAdr( dest );
  7031. incL := GetIncr( left, 1 ); strideL := GetIncr( left, 0 ); (* increment and stride of left matrix *)
  7032. incR := GetIncr( right, 1 ); strideR := GetIncr( right, 0 ); (* increment and stride of right matrix *)
  7033. incD := GetIncr( dest, 1 ); strideD := GetIncr( dest, 0 ); (* increment and stride of dest matrix *)
  7034. (*
  7035. KernelLog.String("incD="); KernelLog.Int(incD,10); KernelLog.Ln;
  7036. KernelLog.String("strideD="); KernelLog.Int(strideD,10); KernelLog.Ln;
  7037. KernelLog.String("Len(dest,0) [rows]="); KernelLog.Int(GetLen(dest,0),10); KernelLog.Ln;
  7038. KernelLog.String("Len(dest,1) [cols]="); KernelLog.Int(GetLen(dest,1),10); KernelLog.Ln;
  7039. *)
  7040. IF rowsL = 0 THEN RETURN
  7041. ELSIF colsL=0 THEN RETURN
  7042. ELSIF colsR=0 THEN RETURN
  7043. ELSIF (fast = NIL ) OR
  7044. ~(fast( ladr, radr, dadr, incL, strideL, incR, strideR, incD, strideD, rowsL, colsL, rowsR, colsR )) THEN
  7045. WHILE (rowsL > 0) DO (* outer loop: traverse rows of left matrix *)
  7046. radri := radr; dadri := dadr; colsRi := colsR;
  7047. WHILE (colsRi > 0) DO (* inner loop: traverse columns of right matrix *)
  7048. loop( ladr, radri, dadri, incL, strideR, colsL ); INC( radri, incR );
  7049. INC( dadri, incD ); DEC( colsRi );
  7050. END;
  7051. INC( ladr, strideL ); INC( dadr, strideD ); DEC( rowsL );
  7052. END;
  7053. END;
  7054. IF overlap THEN CopyContent( destOld, dest, Size );
  7055. END;
  7056. END ApplyMatMulLoop;
  7057. PROCEDURE ApplyMatVecMulLoop( dest, left, right: Address;
  7058. Size: LONGINT; loop: BinaryAASLoop;
  7059. fast: FastMatMul ); (* Size= element-size *)
  7060. VAR ladr, radr, dadr, li1, li0, ri0, di0, l1, l2: LONGINT; p: ANY;
  7061. overlap: BOOLEAN; destOld, destNew: LONGINT;
  7062. BEGIN
  7063. (*
  7064. <- 0 ->
  7065. xxx T(xxx) -> T(xxxxx)
  7066. xxx
  7067. 1 xxx
  7068. xxx
  7069. xxx
  7070. Len(..,0): #columns ; Inc(..,0): inc in rows
  7071. Len(..,1): #rows ; Inc(..,1): inc between rows
  7072. *)
  7073. (* check geometric restriction *)
  7074. IF GetLen( left, 1 ) # GetLen( right, 0 ) THEN
  7075. Halt( GeometryMismatch, left, right,0 );
  7076. END;
  7077. l1 := GetLen( left, 0 ); (* number of destination's rows *)
  7078. l2 := GetLen( left, 1 ); (* inner loop len *)
  7079. IF GetAdr( dest ) = 0 THEN p := AllocateVector( dest, l1, Size );
  7080. ELSIF (GetLen( dest, 0 ) # l1) THEN
  7081. IF RangeFlag IN GetFlags( dest ) THEN
  7082. Halt( GeometryMismatch, left, right, dest );
  7083. ELSE p := AllocateVector( dest, l1, Size );
  7084. END;
  7085. END;
  7086. overlap := Overlap( left, dest ) OR Overlap( right, dest );
  7087. IF overlap THEN
  7088. destOld := dest; destNew := 0;
  7089. p := AllocateSame( destNew, destOld, Size );
  7090. CopyContent( destNew, destOld, Size ); (* for INCMUL ! *)
  7091. dest := destNew;
  7092. END;
  7093. (*
  7094. IF GetAdr( dest ) = -1 THEN p := AllocateVector( dest, l1, Size ); ELSE
  7095. IF (GetLen( dest, 0 ) # l1) THEN HALT( 102 ) END;
  7096. END;
  7097. *)
  7098. ladr := GetAdr( left ); radr := GetAdr( right ); dadr := GetAdr( dest );
  7099. li0 := GetIncr( left, 1 ); li1 := GetIncr( left, 0 ); ri0 := GetIncr( right, 0 );
  7100. di0 := GetIncr( dest, 0 );
  7101. IF l1=0 THEN RETURN
  7102. ELSIF l2=0 THEN RETURN
  7103. ELSIF (fast = NIL ) OR
  7104. ~(fast( ladr, radr, dadr, li0, li1, ri0, ri0, di0, di0, l1, l2, l2, 1 )) THEN
  7105. WHILE (l1 > 0) DO (* inner loop: traverse columns of right matrix *)
  7106. loop( ladr, radr, dadr, li0, ri0, l2 ); INC( ladr, li1 ); INC( dadr, di0 );
  7107. DEC( l1 );
  7108. END;
  7109. END;
  7110. IF overlap THEN CopyContent( destOld, dest, Size );
  7111. END;
  7112. END ApplyMatVecMulLoop;
  7113. PROCEDURE ApplyVecMatMulLoop( dest, left, right: Address;
  7114. Size: LONGINT; loop: BinaryAASLoop;
  7115. fast: FastMatMul ); (* Size= element-size *)
  7116. VAR ladr, radr, dadr, li0, ri1, ri0, di0, l0, l2: LONGINT; p: ANY;
  7117. overlap: BOOLEAN; destOld, destNew: LONGINT;
  7118. BEGIN
  7119. (*
  7120. <- 0 ->
  7121. xxx xxxx -> xxxx
  7122. xxxx
  7123. 1 xxxx
  7124. Len(..,0): #columns ; Inc(..,0): inc in rows
  7125. Len(..,1): #rows ; Inc(..,1): inc between rows
  7126. *)
  7127. (* check geometric restriction *)
  7128. IF GetLen( left, 0 ) # GetLen( right, 0 ) THEN HALT( GeometryMismatch ); END;
  7129. l0 := GetLen( right, 1 ); (* number of destination's column *)
  7130. l2 := GetLen( right, 0 ); (* inner loop len *)
  7131. IF GetAdr( dest ) = 0 THEN p := AllocateVector( dest, l0, Size );
  7132. ELSIF (GetLen( dest, 0 ) # l0) THEN
  7133. IF RangeFlag IN GetFlags( dest ) THEN HALT( GeometryMismatch )
  7134. ELSE p := AllocateVector( dest, l0, Size );
  7135. END;
  7136. END;
  7137. overlap := Overlap( left, dest ) OR Overlap( right, dest );
  7138. IF overlap THEN
  7139. destOld := dest; destNew := 0;
  7140. p := AllocateSame( destNew, destOld, Size );
  7141. CopyContent( destNew, destOld, Size ); (* for INCMUL ! *)
  7142. dest := destNew;
  7143. END;
  7144. (*
  7145. IF GetAdr( dest ) = -1 THEN p := AllocateVector( dest, l0, Size ); ELSE
  7146. IF (GetLen( dest, 0 ) # l0) THEN HALT( 102 ) END;
  7147. END;
  7148. *)
  7149. ladr := GetAdr( left ); radr := GetAdr( right ); dadr := GetAdr( dest );
  7150. li0 := GetIncr( left, 0 ); ri0 := GetIncr( right, 1 ); ri1 := GetIncr( right, 0 );
  7151. di0 := GetIncr( dest, 0 );
  7152. IF l2=0 THEN RETURN
  7153. ELSIF l0=0 THEN RETURN
  7154. ELSIF (fast = NIL ) OR ~fast( ladr, radr, dadr, li0, li0, ri0, ri1, di0, di0, 1, l2, l2, l0 ) THEN
  7155. WHILE (l0 > 0) DO (* inner loop: traverse columns of right matrix *)
  7156. loop( ladr, radr, dadr, li0, ri1, l2 ); INC( radr, ri0 ); INC( dadr, di0 );
  7157. DEC( l0 );
  7158. END;
  7159. END;
  7160. IF overlap THEN CopyContent( destOld, dest, Size );
  7161. END;
  7162. END ApplyVecMatMulLoop;
  7163. (** SHORTINT *)
  7164. PROCEDURE MatMulASASLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7165. VAR lval, rval, dval: SHORTINT;
  7166. BEGIN
  7167. dval := 0;
  7168. WHILE (len > 0) DO
  7169. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7170. (* KernelLog.String("mul with: "); KernelLog.Int(lval,10); KernelLog.Int(rval,10); KernelLog.Ln; *)
  7171. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7172. END;
  7173. SYSTEM.PUT( dadr, dval );
  7174. END MatMulASASLoop;
  7175. OPERATOR "*"*(CONST left, right: ARRAY [ * , * ] OF SHORTINT ): ARRAY [ * , * ] OF SHORTINT;
  7176. BEGIN
  7177. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7178. SIZEOF( SHORTINT ), MatMulASASLoop, NIL );
  7179. RETURN RESULT
  7180. END "*";
  7181. OPERATOR "*"*(CONST left: ARRAY [ * , * ] OF SHORTINT; CONST right: ARRAY [ * ] OF SHORTINT): ARRAY [ * ] OF SHORTINT;
  7182. BEGIN
  7183. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7184. SIZEOF( SHORTINT ), MatMulASASLoop, NIL );
  7185. RETURN RESULT
  7186. END "*";
  7187. OPERATOR "*"*( CONST left: ARRAY [ * ] OF SHORTINT; CONST right: ARRAY [ * , * ] OF SHORTINT ): ARRAY [ * ] OF SHORTINT;
  7188. BEGIN
  7189. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7190. SIZEOF( SHORTINT ), MatMulASASLoop, NIL );
  7191. RETURN RESULT
  7192. END "*";
  7193. (** INTEGER *)
  7194. PROCEDURE MatMulAIAILoop( ladr, radr, dadr, linc, rinc, len: Address );
  7195. VAR lval, rval, dval: INTEGER;
  7196. BEGIN
  7197. dval := 0;
  7198. WHILE (len > 0) DO
  7199. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7200. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7201. END;
  7202. SYSTEM.PUT( dadr, dval );
  7203. END MatMulAIAILoop;
  7204. OPERATOR "*"*( CONST left, right: ARRAY [ * , * ] OF INTEGER ): ARRAY [ * , * ] OF INTEGER;
  7205. BEGIN
  7206. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7207. SIZEOF( INTEGER ), MatMulAIAILoop, NIL );
  7208. RETURN RESULT
  7209. END "*";
  7210. OPERATOR "*"*(CONST left: ARRAY [ * , * ] OF INTEGER;
  7211. CONST right: ARRAY [ * ] OF INTEGER ): ARRAY [ * ] OF INTEGER;
  7212. BEGIN
  7213. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7214. SIZEOF( INTEGER ), MatMulAIAILoop, NIL );
  7215. RETURN RESULT
  7216. END "*";
  7217. OPERATOR "*"*(CONST left: ARRAY [ * ] OF INTEGER;
  7218. CONST right: ARRAY [ * , * ] OF INTEGER ): ARRAY [ * ] OF INTEGER;
  7219. BEGIN
  7220. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7221. SIZEOF( INTEGER ), MatMulAIAILoop, NIL );
  7222. RETURN RESULT
  7223. END "*";
  7224. (** LONGINT *)
  7225. PROCEDURE MatMulALALLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7226. VAR lval, rval, dval: LONGINT;
  7227. BEGIN
  7228. dval := 0;
  7229. WHILE (len > 0) DO
  7230. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7231. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7232. END;
  7233. SYSTEM.PUT( dadr, dval );
  7234. END MatMulALALLoop;
  7235. OPERATOR "*"*(CONST left, right: ARRAY [ * , * ] OF LONGINT ): ARRAY [ * , * ] OF LONGINT;
  7236. BEGIN
  7237. (*
  7238. KernelLog.String("MatMulALAL");
  7239. KernelLog.Int(SYSTEM.VAL(LONGINT,dest),10);
  7240. KernelLog.Int(SYSTEM.VAL(LONGINT,left),10);
  7241. KernelLog.Int(SYSTEM.VAL(LONGINT,right),10);
  7242. KernelLog.Ln;
  7243. *)
  7244. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7245. SIZEOF( LONGINT ), MatMulALALLoop, NIL );
  7246. RETURN RESULT
  7247. END "*";
  7248. OPERATOR "*"*(CONST left: ARRAY [ * , * ] OF LONGINT; CONST right: ARRAY [ * ] OF LONGINT ): ARRAY [ * ] OF LONGINT;
  7249. BEGIN
  7250. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7251. SIZEOF( LONGINT ), MatMulALALLoop, NIL );
  7252. RETURN RESULT
  7253. END "*";
  7254. OPERATOR "*"*(CONST left: ARRAY [ * ] OF LONGINT;
  7255. CONST right: ARRAY [ * , * ] OF LONGINT): ARRAY [ * ] OF LONGINT;
  7256. BEGIN
  7257. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7258. SIZEOF( LONGINT ), MatMulALALLoop, NIL );
  7259. RETURN RESULT
  7260. END "*";
  7261. (** REAL *)
  7262. PROCEDURE MatMulARARLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7263. VAR lval, rval, dval: REAL;
  7264. BEGIN
  7265. dval := 0;
  7266. WHILE (len > 0) DO
  7267. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7268. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7269. END;
  7270. SYSTEM.PUT( dadr, dval );
  7271. END MatMulARARLoop;
  7272. (*
  7273. Optimized for small matrices (Alexey Morozov)
  7274. use of CONST for left, right makes execution slower, it seems that a new descriptor is created in this case
  7275. *)
  7276. OPERATOR "*"*(CONST left, right: ARRAY [ * , * ] OF REAL ): ARRAY [ * , * ] OF REAL;
  7277. VAR flags: SET; dadr, ladr, radr: LONGINT;
  7278. BEGIN
  7279. dadr := GetAdr(ADDRESSOF(RESULT));
  7280. ladr := GetAdr(ADDRESSOF(left));
  7281. radr := GetAdr(ADDRESSOF(right));
  7282. (* account possible inplace left := left*right, right := left*right, left := left*left, right := right*right *)
  7283. IF (ladr # dadr) & (radr # dadr) THEN
  7284. flags := SmallArrayMask * SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(left)+MathFlagsOffset)) * SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(right)+MathFlagsOffset));
  7285. CASE SYSTEM.VAL(LONGINT,flags) OF
  7286. Mat2x2:
  7287. IF SYSTEM.VAL(LONGINT,SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset)) * SmallArrayMask) # Mat2x2 THEN
  7288. IF dadr = 0 THEN NEW(RESULT,2,2); dadr := GetAdr(ADDRESSOF(RESULT));
  7289. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7290. END;
  7291. END;
  7292. IF matMulR2x2 # NIL THEN matMulR2x2(dadr,ladr,radr);
  7293. ELSE
  7294. RESULT[0,0] := left[0,0]*right[0,0] + left[0,1]*right[1,0];
  7295. RESULT[0,1] := left[0,0]*right[0,1] + left[0,1]*right[1,1];
  7296. RESULT[1,0] := left[1,0]*right[0,0] + left[1,1]*right[1,0];
  7297. RESULT[1,1] := left[1,0]*right[0,1] + left[1,1]*right[1,1];
  7298. END;
  7299. |Mat3x3:
  7300. IF SYSTEM.VAL(LONGINT,SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset)) * SmallArrayMask) # Mat3x3 THEN
  7301. IF dadr = 0 THEN NEW(RESULT,3,3);dadr := GetAdr(ADDRESSOF(RESULT));
  7302. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7303. END;
  7304. END;
  7305. IF matMulR3x3 # NIL THEN matMulR3x3(dadr,ladr,radr);
  7306. ELSE
  7307. RESULT[0,0] := left[0,0]*right[0,0] + left[0,1]*right[1,0] + left[0,2]*right[2,0];
  7308. RESULT[0,1] := left[0,0]*right[0,1] + left[0,1]*right[1,1] + left[0,2]*right[2,1];
  7309. RESULT[0,2] := left[0,0]*right[0,2] + left[0,1]*right[1,2] + left[0,2]*right[2,2];
  7310. RESULT[1,0] := left[1,0]*right[0,0] + left[1,1]*right[1,0] + left[1,2]*right[2,0];
  7311. RESULT[1,1] := left[1,0]*right[0,1] + left[1,1]*right[1,1] + left[1,2]*right[2,1];
  7312. RESULT[1,2] := left[1,0]*right[0,2] + left[1,1]*right[1,2] + left[1,2]*right[2,2];
  7313. RESULT[2,0] := left[2,0]*right[0,0] + left[2,1]*right[1,0] + left[2,2]*right[2,0];
  7314. RESULT[2,1] := left[2,0]*right[0,1] + left[2,1]*right[1,1] + left[2,2]*right[2,1];
  7315. RESULT[2,2] := left[2,0]*right[0,2] + left[2,1]*right[1,2] + left[2,2]*right[2,2];
  7316. END;
  7317. |Mat4x4:
  7318. IF SYSTEM.VAL(LONGINT,SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset)) * SmallArrayMask) # Mat4x4 THEN
  7319. IF dadr = 0 THEN NEW(RESULT,4,4); dadr := GetAdr(ADDRESSOF(RESULT));
  7320. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7321. END;
  7322. END;
  7323. IF matMulR4x4 # NIL THEN matMulR4x4(dadr,ladr,radr);
  7324. ELSE
  7325. RESULT[0,0] := left[0,0]*right[0,0] + left[0,1]*right[1,0] + left[0,2]*right[2,0] + left[0,3]*right[3,0];
  7326. RESULT[0,1] := left[0,0]*right[0,1] + left[0,1]*right[1,1] + left[0,2]*right[2,1] + left[0,3]*right[3,1];
  7327. RESULT[0,2] := left[0,0]*right[0,2] + left[0,1]*right[1,2] + left[0,2]*right[2,2] + left[0,3]*right[3,2];
  7328. RESULT[0,3] := left[0,0]*right[0,3] + left[0,1]*right[1,3] + left[0,2]*right[2,3] + left[0,3]*right[3,3];
  7329. RESULT[1,0] := left[1,0]*right[0,0] + left[1,1]*right[1,0] + left[1,2]*right[2,0] + left[1,3]*right[3,0];
  7330. RESULT[1,1] := left[1,0]*right[0,1] + left[1,1]*right[1,1] + left[1,2]*right[2,1] + left[1,3]*right[3,1];
  7331. RESULT[1,2] := left[1,0]*right[0,2] + left[1,1]*right[1,2] + left[1,2]*right[2,2] + left[1,3]*right[3,2];
  7332. RESULT[1,3] := left[1,0]*right[0,3] + left[1,1]*right[1,3] + left[1,2]*right[2,3] + left[1,3]*right[3,3];
  7333. RESULT[2,0] := left[2,0]*right[0,0] + left[2,1]*right[1,0] + left[2,2]*right[2,0] + left[2,3]*right[3,0];
  7334. RESULT[2,1] := left[2,0]*right[0,1] + left[2,1]*right[1,1] + left[2,2]*right[2,1] + left[2,3]*right[3,1];
  7335. RESULT[2,2] := left[2,0]*right[0,2] + left[2,1]*right[1,2] + left[2,2]*right[2,2] + left[2,3]*right[3,2];
  7336. RESULT[2,3] := left[2,0]*right[0,3] + left[2,1]*right[1,3] + left[2,2]*right[2,3] + left[2,3]*right[3,3];
  7337. RESULT[3,0] := left[3,0]*right[0,0] + left[3,1]*right[1,0] + left[3,2]*right[2,0] + left[3,3]*right[3,0];
  7338. RESULT[3,1] := left[3,0]*right[0,1] + left[3,1]*right[1,1] + left[3,2]*right[2,1] + left[3,3]*right[3,1];
  7339. RESULT[3,2] := left[3,0]*right[0,2] + left[3,1]*right[1,2] + left[3,2]*right[2,2] + left[3,3]*right[3,2];
  7340. RESULT[3,3] := left[3,0]*right[0,3] + left[3,1]*right[1,3] + left[3,2]*right[2,3] + left[3,3]*right[3,3];
  7341. END;
  7342. ELSE
  7343. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  7344. loopMatMulARAR, matMulR );
  7345. END;
  7346. ELSE
  7347. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  7348. loopMatMulARAR, matMulR );
  7349. END;
  7350. RETURN RESULT
  7351. END "*";
  7352. (*
  7353. Optimized for small arrays (Alexey Morozov)
  7354. use of CONST for left, right makes execution slower, it seems that a new descriptor is created in this case
  7355. *)
  7356. OPERATOR "*"*(CONST left: ARRAY [ * , * ] OF REAL; CONST right: ARRAY [ * ] OF REAL ): ARRAY [ * ] OF REAL;
  7357. VAR
  7358. flags: SET; dadr, ladr, radr: LONGINT;
  7359. v0, v1, v2: REAL;
  7360. BEGIN
  7361. dadr := GetAdr(ADDRESSOF(RESULT));
  7362. ladr := GetAdr(ADDRESSOF(left));
  7363. radr := GetAdr(ADDRESSOF(right));
  7364. flags := SmallArrayMask * SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(left)+MathFlagsOffset)) * SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(right)+MathFlagsOffset));
  7365. CASE SYSTEM.VAL(LONGINT,flags) OF
  7366. MatVec2x2:
  7367. IF SYSTEM.VAL(LONGINT,SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset)) * SmallArrayMask) # Vec2 THEN
  7368. IF dadr = 0 THEN NEW(RESULT,2);dadr := GetAdr(ADDRESSOF(RESULT));
  7369. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7370. END;
  7371. END;
  7372. IF matVecMulR2x2 # NIL THEN matVecMulR2x2(dadr,ladr,radr);
  7373. ELSE
  7374. (* account possible overlapping *)
  7375. v0 := right[0];
  7376. RESULT[0] := left[0,0]*v0 + left[0,1]*right[1];
  7377. RESULT[1] := left[1,0]*v0 + left[1,1]*right[1];
  7378. END;
  7379. |MatVec3x3:
  7380. IF SYSTEM.VAL(LONGINT,SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset)) * SmallArrayMask) # Vec3 THEN
  7381. IF dadr = 0 THEN NEW(RESULT,3);dadr := GetAdr(ADDRESSOF(RESULT));
  7382. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7383. END;
  7384. END;
  7385. IF matVecMulR3x3 # NIL THEN matVecMulR3x3(dadr,ladr,radr);
  7386. ELSE
  7387. (* account possible overlapping *)
  7388. v0 := right[0]; v1 := right[1];
  7389. RESULT[0] := left[0,0]*v0 + left[0,1]*v1 + left[0,2]*right[2];
  7390. RESULT[1] := left[1,0]*v0 + left[1,1]*v1 + left[1,2]*right[2];
  7391. RESULT[2] := left[2,0]*v0 + left[2,1]*v1 + left[2,2]*right[2];
  7392. END;
  7393. |MatVec4x4:
  7394. IF SYSTEM.VAL(LONGINT,SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset)) * SmallArrayMask) # Vec4 THEN
  7395. IF dadr = 0 THEN NEW(RESULT,4);dadr := GetAdr(ADDRESSOF(RESULT));
  7396. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7397. END;
  7398. END;
  7399. IF matVecMulR4x4 # NIL THEN matVecMulR4x4(dadr,ladr,radr);
  7400. ELSE
  7401. (* account possible overlapping *)
  7402. v0 := right[0]; v1 := right[1]; v2 := right[2];
  7403. RESULT[0] := left[0,0]*v0 + left[0,1]*v1 + left[0,2]*v2 + left[0,3]*right[3];
  7404. RESULT[1] := left[1,0]*v0 + left[1,1]*v1 + left[1,2]*v2 + left[1,3]*right[3];
  7405. RESULT[2] := left[2,0]*v0 + left[2,1]*v1 + left[2,2]*v2 + left[2,3]*right[3];
  7406. RESULT[3] := left[3,0]*v0 + left[3,1]*v1 + left[3,2]*v2 + left[3,3]*right[3];
  7407. END;
  7408. ELSE
  7409. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7410. SIZEOF( REAL ), loopMatMulARAR, matMulR );
  7411. END;
  7412. RETURN RESULT
  7413. END "*";
  7414. OPERATOR "*"*( CONST left: ARRAY [ * ] OF REAL;
  7415. CONST right: ARRAY [ * , * ] OF REAL ): ARRAY [ * ] OF REAL;
  7416. BEGIN
  7417. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7418. SIZEOF( REAL ), loopMatMulARAR, matMulR );
  7419. RETURN RESULT
  7420. END "*";
  7421. (** LONGREAL *)
  7422. PROCEDURE MatMulAXAXLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7423. VAR lval, rval, dval: LONGREAL;
  7424. BEGIN
  7425. dval := 0;
  7426. WHILE (len > 0) DO
  7427. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7428. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7429. END;
  7430. SYSTEM.PUT( dadr, dval );
  7431. END MatMulAXAXLoop;
  7432. (*
  7433. Optimized for small matrices (Alexey Morozov)
  7434. use of CONST for left, right makes execution slower, it seems that a new descriptor is created in this case
  7435. *)
  7436. OPERATOR "*"*( CONST left, right: ARRAY [ * , * ] OF LONGREAL): ARRAY [ * , * ] OF LONGREAL;
  7437. VAR
  7438. flags: SET; dadr, ladr, radr: LONGINT;
  7439. BEGIN
  7440. dadr := GetAdr(ADDRESSOF(RESULT));
  7441. ladr := GetAdr(ADDRESSOF(left));
  7442. radr := GetAdr(ADDRESSOF(right));
  7443. IF (ladr # dadr) & (radr # dadr) THEN
  7444. flags := SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(left)+MathFlagsOffset)) * SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(right)+MathFlagsOffset));
  7445. CASE SYSTEM.VAL(LONGINT,flags) OF
  7446. Mat2x2:
  7447. IF SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset) # Mat2x2 THEN
  7448. IF dadr = 0 THEN NEW(RESULT,2,2);
  7449. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7450. END;
  7451. END;
  7452. IF matMulLR2x2 # NIL THEN matMulLR2x2(dadr,ladr,radr);
  7453. ELSE
  7454. RESULT[0,0] := left[0,0]*right[0,0] + left[0,1]*right[1,0];
  7455. RESULT[0,1] := left[0,0]*right[0,1] + left[0,1]*right[1,1];
  7456. RESULT[1,0] := left[1,0]*right[0,0] + left[1,1]*right[1,0];
  7457. RESULT[1,1] := left[1,0]*right[0,1] + left[1,1]*right[1,1];
  7458. END;
  7459. |Mat3x3:
  7460. IF SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset) # Mat3x3 THEN
  7461. IF dadr = 0 THEN NEW(RESULT,3,3);
  7462. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7463. END;
  7464. END;
  7465. IF matMulLR3x3 # NIL THEN matMulLR3x3(dadr,ladr,radr);
  7466. ELSE
  7467. RESULT[0,0] := left[0,0]*right[0,0] + left[0,1]*right[1,0] + left[0,2]*right[2,0];
  7468. RESULT[0,1] := left[0,0]*right[0,1] + left[0,1]*right[1,1] + left[0,2]*right[2,1];
  7469. RESULT[0,2] := left[0,0]*right[0,2] + left[0,1]*right[1,2] + left[0,2]*right[2,2];
  7470. RESULT[1,0] := left[1,0]*right[0,0] + left[1,1]*right[1,0] + left[1,2]*right[2,0];
  7471. RESULT[1,1] := left[1,0]*right[0,1] + left[1,1]*right[1,1] + left[1,2]*right[2,1];
  7472. RESULT[1,2] := left[1,0]*right[0,2] + left[1,1]*right[1,2] + left[1,2]*right[2,2];
  7473. RESULT[2,0] := left[2,0]*right[0,0] + left[2,1]*right[1,0] + left[2,2]*right[2,0];
  7474. RESULT[2,1] := left[2,0]*right[0,1] + left[2,1]*right[1,1] + left[2,2]*right[2,1];
  7475. RESULT[2,2] := left[2,0]*right[0,2] + left[2,1]*right[1,2] + left[2,2]*right[2,2];
  7476. END;
  7477. |Mat4x4:
  7478. IF SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset) # Mat4x4 THEN
  7479. IF dadr = 0 THEN NEW(RESULT,4,4);
  7480. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7481. END;
  7482. END;
  7483. IF matMulLR4x4 # NIL THEN matMulLR4x4(dadr,ladr,radr);
  7484. ELSE
  7485. RESULT[0,0] := left[0,0]*right[0,0] + left[0,1]*right[1,0] + left[0,2]*right[2,0] + left[0,3]*right[3,0];
  7486. RESULT[0,1] := left[0,0]*right[0,1] + left[0,1]*right[1,1] + left[0,2]*right[2,1] + left[0,3]*right[3,1];
  7487. RESULT[0,2] := left[0,0]*right[0,2] + left[0,1]*right[1,2] + left[0,2]*right[2,2] + left[0,3]*right[3,2];
  7488. RESULT[0,3] := left[0,0]*right[0,3] + left[0,1]*right[1,3] + left[0,2]*right[2,3] + left[0,3]*right[3,3];
  7489. RESULT[1,0] := left[1,0]*right[0,0] + left[1,1]*right[1,0] + left[1,2]*right[2,0] + left[1,3]*right[3,0];
  7490. RESULT[1,1] := left[1,0]*right[0,1] + left[1,1]*right[1,1] + left[1,2]*right[2,1] + left[1,3]*right[3,1];
  7491. RESULT[1,2] := left[1,0]*right[0,2] + left[1,1]*right[1,2] + left[1,2]*right[2,2] + left[1,3]*right[3,2];
  7492. RESULT[1,3] := left[1,0]*right[0,3] + left[1,1]*right[1,3] + left[1,2]*right[2,3] + left[1,3]*right[3,3];
  7493. RESULT[2,0] := left[2,0]*right[0,0] + left[2,1]*right[1,0] + left[2,2]*right[2,0] + left[2,3]*right[3,0];
  7494. RESULT[2,1] := left[2,0]*right[0,1] + left[2,1]*right[1,1] + left[2,2]*right[2,1] + left[2,3]*right[3,1];
  7495. RESULT[2,2] := left[2,0]*right[0,2] + left[2,1]*right[1,2] + left[2,2]*right[2,2] + left[2,3]*right[3,2];
  7496. RESULT[2,3] := left[2,0]*right[0,3] + left[2,1]*right[1,3] + left[2,2]*right[2,3] + left[2,3]*right[3,3];
  7497. RESULT[3,0] := left[3,0]*right[0,0] + left[3,1]*right[1,0] + left[3,2]*right[2,0] + left[3,3]*right[3,0];
  7498. RESULT[3,1] := left[3,0]*right[0,1] + left[3,1]*right[1,1] + left[3,2]*right[2,1] + left[3,3]*right[3,1];
  7499. RESULT[3,2] := left[3,0]*right[0,2] + left[3,1]*right[1,2] + left[3,2]*right[2,2] + left[3,3]*right[3,2];
  7500. RESULT[3,3] := left[3,0]*right[0,3] + left[3,1]*right[1,3] + left[3,2]*right[2,3] + left[3,3]*right[3,3];
  7501. END;
  7502. ELSE
  7503. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGREAL ),
  7504. loopMatMulAXAX, matMulX );
  7505. END;
  7506. ELSE
  7507. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGREAL ),
  7508. loopMatMulAXAX, matMulX );
  7509. END;
  7510. RETURN RESULT
  7511. END "*";
  7512. (*
  7513. Optimized for small arrays (Alexey Morozov)
  7514. use of CONST for left, right makes execution slower, it seems that a new descriptor is created in this case
  7515. *)
  7516. OPERATOR "*"*(CONST left: ARRAY [ * , * ] OF LONGREAL;
  7517. CONST right: ARRAY [ * ] OF LONGREAL ): ARRAY [ * ] OF LONGREAL;
  7518. VAR
  7519. flags: SET; dadr, ladr, radr: LONGINT;
  7520. v0, v1, v2: LONGREAL;
  7521. BEGIN
  7522. dadr := GetAdr(ADDRESSOF(RESULT));
  7523. ladr := GetAdr(ADDRESSOF(left));
  7524. radr := GetAdr(ADDRESSOF(right));
  7525. flags := SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(left)+MathFlagsOffset)) * SYSTEM.VAL(SET,SYSTEM.GET32(ADDRESSOF(right)+MathFlagsOffset));
  7526. CASE SYSTEM.VAL(LONGINT,flags) OF
  7527. MatVec2x2:
  7528. IF SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset) # Vec2 THEN
  7529. IF dadr = 0 THEN NEW(RESULT,2);
  7530. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7531. END;
  7532. END;
  7533. IF matVecMulLR2x2 # NIL THEN matVecMulLR2x2(dadr,ladr,radr);
  7534. ELSE
  7535. (* account possible overlapping *)
  7536. v0 := right[0];
  7537. RESULT[0] := left[0,0]*v0 + left[0,1]*right[1];
  7538. RESULT[1] := left[1,0]*v0 + left[1,1]*right[1];
  7539. END;
  7540. |MatVec3x3:
  7541. IF SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset) # Vec3 THEN
  7542. IF dadr = 0 THEN NEW(RESULT,3);
  7543. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7544. END;
  7545. END;
  7546. IF matVecMulLR3x3 # NIL THEN matVecMulLR3x3(dadr,ladr,radr);
  7547. ELSE
  7548. (* account possible overlapping *)
  7549. v0 := right[0]; v1 := right[1];
  7550. RESULT[0] := left[0,0]*v0 + left[0,1]*v1 + left[0,2]*right[2];
  7551. RESULT[1] := left[1,0]*v0 + left[1,1]*v1 + left[1,2]*right[2];
  7552. RESULT[2] := left[2,0]*v0 + left[2,1]*v1 + left[2,2]*right[2];
  7553. END;
  7554. |MatVec4x4:
  7555. IF SYSTEM.GET32(ADDRESSOF(RESULT)+MathFlagsOffset) # Vec4 THEN
  7556. IF dadr = 0 THEN NEW(RESULT,4);
  7557. ELSE Halt(GeometryMismatch,ADDRESSOF(left),ADDRESSOF(right),0);
  7558. END;
  7559. END;
  7560. IF matVecMulLR4x4 # NIL THEN matVecMulLR4x4(dadr,ladr,radr);
  7561. ELSE
  7562. (* account possible overlapping *)
  7563. v0 := right[0]; v1 := right[1]; v2 := right[2];
  7564. RESULT[0] := left[0,0]*v0 + left[0,1]*v1 + left[0,2]*v2 + left[0,3]*right[3];
  7565. RESULT[1] := left[1,0]*v0 + left[1,1]*v1 + left[1,2]*v2 + left[1,3]*right[3];
  7566. RESULT[2] := left[2,0]*v0 + left[2,1]*v1 + left[2,2]*v2 + left[2,3]*right[3];
  7567. RESULT[3] := left[3,0]*v0 + left[3,1]*v1 + left[3,2]*v2 + left[3,3]*right[3];
  7568. END;
  7569. ELSE
  7570. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7571. SIZEOF( LONGREAL ), loopMatMulAXAX, matMulX );
  7572. END;
  7573. RETURN RESULT
  7574. END "*";
  7575. OPERATOR "*"*( CONST left: ARRAY [ * ] OF LONGREAL;
  7576. CONST right: ARRAY [ * , * ] OF LONGREAL ): ARRAY [ * ] OF LONGREAL;
  7577. BEGIN
  7578. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7579. SIZEOF( LONGREAL ), loopMatMulAXAX, matMulX );
  7580. RETURN RESULT
  7581. END "*";
  7582. (** SHORTINT *)
  7583. PROCEDURE MatMulIncASASLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7584. VAR lval, rval, dval: SHORTINT;
  7585. BEGIN
  7586. SYSTEM.GET( dadr, dval );
  7587. WHILE (len > 0) DO
  7588. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7589. (* KernelLog.String("mul with: "); KernelLog.Int(lval,10); KernelLog.Int(rval,10); KernelLog.Ln; *)
  7590. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7591. END;
  7592. SYSTEM.PUT( dadr, dval );
  7593. END MatMulIncASASLoop;
  7594. OPERATOR "@MulInc"*(CONST left, right: ARRAY [ * , * ] OF SHORTINT ): ARRAY [ * , * ] OF SHORTINT;
  7595. BEGIN
  7596. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7597. SIZEOF( SHORTINT ), MatMulIncASASLoop, NIL );
  7598. RETURN RESULT
  7599. END "@MulInc";
  7600. OPERATOR "@MulInc"*(CONST left: ARRAY [ * , * ] OF SHORTINT;
  7601. CONST right: ARRAY [ * ] OF SHORTINT ): ARRAY [ * ] OF SHORTINT;
  7602. BEGIN
  7603. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7604. SIZEOF( SHORTINT ), MatMulIncASASLoop, NIL );
  7605. RETURN RESULT
  7606. END "@MulInc";
  7607. OPERATOR "@MulInc"*( CONST left: ARRAY [ * ] OF SHORTINT;
  7608. CONST right: ARRAY [ * , * ] OF SHORTINT ): ARRAY [ * ] OF SHORTINT;
  7609. BEGIN
  7610. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7611. SIZEOF( SHORTINT ), MatMulIncASASLoop, NIL );
  7612. RETURN RESULT
  7613. END "@MulInc";
  7614. OPERATOR "@MulDec"*(CONST left, right: ARRAY [ * , * ] OF SHORTINT ): ARRAY [ * , * ] OF SHORTINT;
  7615. BEGIN
  7616. RESULT := -RESULT;
  7617. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7618. SIZEOF( SHORTINT ), MatMulIncASASLoop, NIL );
  7619. RESULT := -RESULT;
  7620. RETURN RESULT
  7621. END "@MulDec";
  7622. OPERATOR "@MulDec"*(CONST left: ARRAY [ * , * ] OF SHORTINT;
  7623. CONST right: ARRAY [ * ] OF SHORTINT ): ARRAY [ * ] OF SHORTINT;
  7624. BEGIN
  7625. RESULT := -RESULT;
  7626. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7627. SIZEOF( SHORTINT ), MatMulIncASASLoop, NIL );
  7628. RESULT := -RESULT;
  7629. RETURN RESULT
  7630. END "@MulDec";
  7631. OPERATOR "@MulDec"*( CONST left: ARRAY [ * ] OF SHORTINT;
  7632. CONST right: ARRAY [ * , * ] OF SHORTINT ): ARRAY [ * ] OF SHORTINT;
  7633. BEGIN
  7634. RESULT := -RESULT;
  7635. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7636. SIZEOF( SHORTINT ), MatMulIncASASLoop, NIL );
  7637. RESULT := -RESULT;
  7638. RETURN RESULT
  7639. END "@MulDec";
  7640. (** INTEGER *)
  7641. PROCEDURE MatMulIncAIAILoop( ladr, radr, dadr, linc, rinc, len: Address );
  7642. VAR lval, rval, dval: INTEGER;
  7643. BEGIN
  7644. SYSTEM.GET( dadr, dval );
  7645. WHILE (len > 0) DO
  7646. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7647. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7648. END;
  7649. SYSTEM.PUT( dadr, dval );
  7650. END MatMulIncAIAILoop;
  7651. OPERATOR "@MulInc"*(CONST left, right: ARRAY [ * , * ] OF INTEGER ): ARRAY [ * , * ] OF INTEGER;
  7652. BEGIN
  7653. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7654. SIZEOF( INTEGER ), MatMulIncAIAILoop, NIL );
  7655. RETURN RESULT
  7656. END "@MulInc";
  7657. OPERATOR "@MulInc"*(CONST left: ARRAY [ * , * ] OF INTEGER; CONST right: ARRAY [ * ] OF INTEGER): ARRAY [ * ] OF INTEGER;
  7658. BEGIN
  7659. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7660. SIZEOF( INTEGER ), MatMulIncAIAILoop, NIL );
  7661. RETURN RESULT
  7662. END "@MulInc";
  7663. OPERATOR "@MulInc"*( CONST left: ARRAY [ * ] OF INTEGER; CONST right: ARRAY [ * , * ] OF INTEGER ): ARRAY [ * ] OF INTEGER;
  7664. BEGIN
  7665. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7666. SIZEOF( INTEGER ), MatMulIncAIAILoop, NIL );
  7667. RETURN RESULT
  7668. END "@MulInc";
  7669. OPERATOR "@MulDec"*(CONST left, right: ARRAY [ * , * ] OF INTEGER ): ARRAY [ * , * ] OF INTEGER;
  7670. BEGIN
  7671. RESULT := -RESULT;
  7672. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7673. SIZEOF( INTEGER ), MatMulIncAIAILoop, NIL );
  7674. RESULT := -RESULT;
  7675. RETURN RESULT
  7676. END "@MulDec";
  7677. OPERATOR "@MulDec"*( CONST left: ARRAY [ * , * ] OF INTEGER; CONST right: ARRAY [ * ] OF INTEGER ): ARRAY [ * ] OF INTEGER;
  7678. BEGIN
  7679. RESULT := -RESULT;
  7680. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7681. SIZEOF( INTEGER ), MatMulIncAIAILoop, NIL );
  7682. RESULT := -RESULT;
  7683. RETURN RESULT
  7684. END "@MulDec";
  7685. OPERATOR "@MulDec"*( CONST left: ARRAY [ * ] OF INTEGER; CONST right: ARRAY [ * , * ] OF INTEGER ): ARRAY [ * ] OF INTEGER;
  7686. BEGIN
  7687. RESULT := -RESULT;
  7688. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7689. SIZEOF( INTEGER ), MatMulIncAIAILoop, NIL );
  7690. RESULT := -RESULT;
  7691. RETURN RESULT
  7692. END "@MulDec";
  7693. (** LONGINT *)
  7694. PROCEDURE MatMulIncALALLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7695. VAR lval, rval, dval: LONGINT;
  7696. BEGIN
  7697. SYSTEM.GET( dadr, dval );
  7698. WHILE (len > 0) DO
  7699. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7700. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7701. END;
  7702. SYSTEM.PUT( dadr, dval );
  7703. END MatMulIncALALLoop;
  7704. OPERATOR "@MulInc"*(CONST left, right: ARRAY [ * , * ] OF LONGINT ): ARRAY [ * , * ] OF LONGINT;
  7705. BEGIN
  7706. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7707. SIZEOF( LONGINT ), MatMulIncALALLoop, NIL );
  7708. RETURN RESULT
  7709. END "@MulInc";
  7710. OPERATOR "@MulInc"*(CONST left: ARRAY [ * , * ] OF LONGINT; CONST right: ARRAY [ * ] OF LONGINT ): ARRAY [ * ] OF LONGINT;
  7711. BEGIN
  7712. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7713. SIZEOF( LONGINT ), MatMulIncALALLoop, NIL );
  7714. RETURN RESULT
  7715. END "@MulInc";
  7716. OPERATOR "@MulInc"*( CONST left: ARRAY [ * ] OF LONGINT; CONST right: ARRAY [ * , * ] OF LONGINT ): ARRAY [ * ] OF LONGINT;
  7717. BEGIN
  7718. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7719. SIZEOF( LONGINT ), MatMulIncALALLoop, NIL );
  7720. RETURN RESULT
  7721. END "@MulInc";
  7722. OPERATOR "@MulDec"*( CONST left, right: ARRAY [ * , * ] OF LONGINT ): ARRAY [ * , * ] OF LONGINT;
  7723. BEGIN
  7724. RESULT := -RESULT;
  7725. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7726. SIZEOF( LONGINT ), MatMulIncALALLoop, NIL );
  7727. RESULT := -RESULT;
  7728. RETURN RESULT
  7729. END "@MulDec";
  7730. OPERATOR "@MulDec"*(CONST left: ARRAY [ * , * ] OF LONGINT; CONST right: ARRAY [ * ] OF LONGINT ): ARRAY [ * ] OF LONGINT;
  7731. BEGIN
  7732. RESULT := -RESULT;
  7733. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7734. SIZEOF( LONGINT ), MatMulIncALALLoop, NIL );
  7735. RESULT := -RESULT;
  7736. RETURN RESULT
  7737. END "@MulDec";
  7738. OPERATOR "@MulDec"*(CONST left: ARRAY [ * ] OF LONGINT; CONST right: ARRAY [ * , * ] OF LONGINT ): ARRAY [ * ] OF LONGINT;
  7739. BEGIN
  7740. RESULT := -RESULT;
  7741. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7742. SIZEOF( LONGINT ), MatMulIncALALLoop, NIL );
  7743. RESULT := -RESULT;
  7744. RETURN RESULT
  7745. END "@MulDec";
  7746. (** REAL *)
  7747. PROCEDURE MatMulIncARARLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7748. VAR lval, rval, dval: REAL;
  7749. BEGIN
  7750. SYSTEM.GET( dadr, dval );
  7751. WHILE (len > 0) DO
  7752. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7753. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7754. END;
  7755. SYSTEM.PUT( dadr, dval );
  7756. END MatMulIncARARLoop;
  7757. OPERATOR "@MulInc"*(CONST left, right: ARRAY [ * , * ] OF REAL ): ARRAY [ * , * ] OF REAL;
  7758. BEGIN
  7759. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  7760. loopMatMulIncARAR, matMulIncR );
  7761. RETURN RESULT
  7762. END "@MulInc";
  7763. OPERATOR "@MulInc"*(CONST left: ARRAY [ * , * ] OF REAL;CONST right: ARRAY [ * ] OF REAL ): ARRAY [ * ] OF REAL;
  7764. BEGIN
  7765. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7766. SIZEOF( REAL ), loopMatMulIncARAR, matMulIncR );
  7767. RETURN RESULT
  7768. END "@MulInc";
  7769. OPERATOR "@MulInc"*( CONST left: ARRAY [ * ] OF REAL; CONST right: ARRAY [ * , * ] OF REAL ): ARRAY [ * ] OF REAL;
  7770. BEGIN
  7771. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7772. SIZEOF( REAL ), loopMatMulIncARAR, matMulIncR );
  7773. RETURN RESULT
  7774. END "@MulInc";
  7775. OPERATOR "@MulDec"*(CONST left, right: ARRAY [ * , * ] OF REAL ): ARRAY [ * , * ] OF REAL;
  7776. BEGIN
  7777. RESULT := -RESULT;
  7778. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  7779. loopMatMulIncARAR, matMulIncR );
  7780. RESULT := -RESULT;
  7781. RETURN RESULT
  7782. END "@MulDec";
  7783. OPERATOR "@MulDec"*( CONST left: ARRAY [ * , * ] OF REAL; CONST right: ARRAY [ * ] OF REAL ): ARRAY [ * ] OF REAL;
  7784. BEGIN
  7785. RESULT := -RESULT;
  7786. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7787. SIZEOF( REAL ), loopMatMulIncARAR, matMulIncR );
  7788. RESULT := -RESULT;
  7789. RETURN RESULT
  7790. END "@MulDec";
  7791. OPERATOR "@MulDec"*(CONST left: ARRAY [ * ] OF REAL; CONST right: ARRAY [ * , * ] OF REAL ): ARRAY [ * ] OF REAL;
  7792. BEGIN
  7793. RESULT := -RESULT;
  7794. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7795. SIZEOF( REAL ), loopMatMulIncARAR, matMulIncR );
  7796. RESULT := -RESULT;
  7797. RETURN RESULT
  7798. END "@MulDec";
  7799. (** LONGREAL *)
  7800. PROCEDURE MatMulIncAXAXLoop( ladr, radr, dadr, linc, rinc, len: Address );
  7801. VAR lval, rval, dval: LONGREAL;
  7802. BEGIN
  7803. SYSTEM.GET( dadr, dval );
  7804. WHILE (len > 0) DO
  7805. SYSTEM.GET( ladr, lval ); SYSTEM.GET( radr, rval ); dval := dval + lval * rval;
  7806. INC( ladr, linc ); INC( radr, rinc ); DEC( len );
  7807. END;
  7808. SYSTEM.PUT( dadr, dval );
  7809. END MatMulIncAXAXLoop;
  7810. OPERATOR "@MulInc"*(CONST left, right: ARRAY [ * , * ] OF LONGREAL ): ARRAY [ * , * ] OF LONGREAL;
  7811. BEGIN
  7812. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7813. SIZEOF( LONGREAL ), loopMatMulIncAXAX, matMulIncX );
  7814. RETURN RESULT
  7815. END "@MulInc";
  7816. OPERATOR "@MulInc"*(CONST left: ARRAY [ * , * ] OF LONGREAL; CONST right: ARRAY [ * ] OF LONGREAL ): ARRAY [ * ] OF LONGREAL;
  7817. BEGIN
  7818. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7819. SIZEOF( LONGREAL ), loopMatMulIncAXAX, matMulIncX );
  7820. RETURN RESULT
  7821. END "@MulInc";
  7822. OPERATOR "@MulInc"*( CONST left: ARRAY [ * ] OF LONGREAL; CONST right: ARRAY [ * , * ] OF LONGREAL ): ARRAY [ * ] OF LONGREAL;
  7823. BEGIN
  7824. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7825. SIZEOF( LONGREAL ), loopMatMulIncAXAX, matMulIncX );
  7826. RETURN RESULT
  7827. END "@MulInc";
  7828. OPERATOR "@MulDec"*(CONST left, right: ARRAY [ * , * ] OF LONGREAL ): ARRAY [ * , * ] OF LONGREAL;
  7829. BEGIN
  7830. RESULT := -RESULT;
  7831. ApplyMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7832. SIZEOF( LONGREAL ), loopMatMulIncAXAX, matMulIncX );
  7833. RESULT := -RESULT;
  7834. RETURN RESULT
  7835. END "@MulDec";
  7836. OPERATOR "@MulDec"*( CONST left: ARRAY [ * , * ] OF LONGREAL; CONST right: ARRAY [ * ] OF LONGREAL ): ARRAY [ * ] OF LONGREAL;
  7837. BEGIN
  7838. RESULT := -RESULT;
  7839. ApplyMatVecMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7840. SIZEOF( LONGREAL ), loopMatMulIncAXAX, matMulIncX );
  7841. RESULT := -RESULT;
  7842. RETURN RESULT
  7843. END "@MulDec";
  7844. OPERATOR "@MulDec"*( CONST left: ARRAY [ * ] OF LONGREAL; CONST right: ARRAY [ * , * ] OF LONGREAL ): ARRAY [ * ] OF LONGREAL;
  7845. BEGIN
  7846. RESULT := -RESULT;
  7847. ApplyVecMatMulLoop( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  7848. SIZEOF( LONGREAL ), loopMatMulIncAXAX, matMulIncX );
  7849. RESULT := -RESULT;
  7850. RETURN RESULT
  7851. END "@MulDec";
  7852. (*** Cross product ********************************************************************)
  7853. OPERATOR "*"*(CONST left, right: ARRAY [ * ] OF SHORTINT ): ARRAY [ * ] OF SHORTINT;
  7854. VAR vl1, vl2, vl3, vr1, vr2, vr3: SHORTINT;
  7855. BEGIN
  7856. IF (LEN( left,0 ) # 3) OR (LEN( right,0 ) # 3) THEN
  7857. Halt( GeometryMismatch, ADDRESSOF( left ), ADDRESSOF( right ), 0 )
  7858. END;
  7859. IF LEN( RESULT,0 ) # 3 THEN NEW( RESULT, 3 ) END; (* will trap if not allowed *)
  7860. vl1 := left[0]; vl2 := left[1]; vl3 := left[2]; vr1 := right[0]; vr2 := right[1];
  7861. vr3 := right[2]; RESULT[0] := vl2 * vr3 - vl3 * vr2;
  7862. RESULT[1] := vl3 * vr1 - vl1 * vr3; RESULT[2] := vl1 * vr2 - vl2 * vr1;
  7863. RETURN RESULT
  7864. END "*";
  7865. OPERATOR "*"*(CONST left, right: ARRAY [ * ] OF INTEGER ): ARRAY [ * ] OF INTEGER;
  7866. VAR vl1, vl2, vl3, vr1, vr2, vr3: INTEGER;
  7867. BEGIN
  7868. IF (LEN( left,0 ) # 3) OR (LEN( right,0 ) # 3) THEN
  7869. Halt( GeometryMismatch, ADDRESSOF( left ), ADDRESSOF( right ), 0 )
  7870. END;
  7871. IF LEN( RESULT,0 ) # 3 THEN NEW( RESULT, 3 ) END; (* will trap if not allowed *)
  7872. vl1 := left[0]; vl2 := left[1]; vl3 := left[2]; vr1 := right[0]; vr2 := right[1];
  7873. vr3 := right[2]; RESULT[0] := vl2 * vr3 - vl3 * vr2;
  7874. RESULT[1] := vl3 * vr1 - vl1 * vr3; RESULT[2] := vl1 * vr2 - vl2 * vr1;
  7875. RETURN RESULT
  7876. END "*";
  7877. OPERATOR "*"*(CONST left, right: ARRAY [ * ] OF LONGINT ): ARRAY [ * ] OF LONGINT;
  7878. VAR vl1, vl2, vl3, vr1, vr2, vr3: LONGINT;
  7879. BEGIN
  7880. IF (LEN( left,0 ) # 3) OR (LEN( right,0 ) # 3) THEN
  7881. Halt( GeometryMismatch, ADDRESSOF( left ), ADDRESSOF( right ), 0 )
  7882. END;
  7883. IF LEN( RESULT,0 ) # 3 THEN NEW( RESULT, 3 ) END; (* will trap if not allowed *)
  7884. vl1 := left[0]; vl2 := left[1]; vl3 := left[2]; vr1 := right[0]; vr2 := right[1];
  7885. vr3 := right[2]; RESULT[0] := vl2 * vr3 - vl3 * vr2;
  7886. RESULT[1] := vl3 * vr1 - vl1 * vr3; RESULT[2] := vl1 * vr2 - vl2 * vr1;
  7887. RETURN RESULT
  7888. END "*";
  7889. OPERATOR "*"*(CONST left, right: ARRAY [ * ] OF REAL ): ARRAY [ * ] OF REAL;
  7890. VAR vl1, vl2, vl3, vr1, vr2, vr3: REAL;
  7891. BEGIN
  7892. IF (LEN( left,0 ) # 3) OR (LEN( right,0 ) # 3) THEN
  7893. Halt( GeometryMismatch, ADDRESSOF( left ), ADDRESSOF( right ), 0 )
  7894. END;
  7895. IF LEN( RESULT,0 ) # 3 THEN NEW( RESULT, 3 ) END; (* will trap if not allowed *)
  7896. vl1 := left[0]; vl2 := left[1]; vl3 := left[2]; vr1 := right[0]; vr2 := right[1];
  7897. vr3 := right[2]; RESULT[0] := vl2 * vr3 - vl3 * vr2;
  7898. RESULT[1] := vl3 * vr1 - vl1 * vr3; RESULT[2] := vl1 * vr2 - vl2 * vr1;
  7899. RETURN RESULT
  7900. END "*";
  7901. OPERATOR "*"*(CONST left, right: ARRAY [ * ] OF LONGREAL ): ARRAY [ * ] OF LONGREAL;
  7902. VAR vl1, vl2, vl3, vr1, vr2, vr3: LONGREAL;
  7903. BEGIN
  7904. IF (LEN( left,0 ) # 3) OR (LEN( right,0 ) # 3) THEN
  7905. Halt( GeometryMismatch, ADDRESSOF( left ), ADDRESSOF( right ), 0 )
  7906. END;
  7907. IF LEN( RESULT,0 ) # 3 THEN NEW( RESULT, 3 ) END; (* will trap if not allowed *)
  7908. vl1 := left[0]; vl2 := left[1]; vl3 := left[2]; vr1 := right[0]; vr2 := right[1];
  7909. vr3 := right[2]; RESULT[0] := vl2 * vr3 - vl3 * vr2;
  7910. RESULT[1] := vl3 * vr1 - vl1 * vr3; RESULT[2] := vl1 * vr2 - vl2 * vr1;
  7911. RETURN RESULT
  7912. END "*";
  7913. (** Transpose ********************************************************************)
  7914. PROCEDURE Overlap( src1, src2: Address ): BOOLEAN;
  7915. VAR from1, from2, to1, to2: Address; dim: LONGINT;
  7916. BEGIN
  7917. from1 := GetAdr( src1 ); from2 := GetAdr( src2 ); to1 := from1; to2 := from2;
  7918. dim := GetDim( src1 ) - 1;
  7919. WHILE (dim > 0) DO
  7920. to1 := to1 + (GetLen( src1, dim ) - 1) * GetIncr( src1, dim ); DEC( dim );
  7921. END;
  7922. dim := GetDim( src2 ) - 1;
  7923. WHILE (dim > 0) DO
  7924. to2 := to2 + (GetLen( src2, dim ) - 1) * GetIncr( src2, dim ); DEC( dim );
  7925. END;
  7926. IF from1 < from2 THEN RETURN to1 >= from2;
  7927. ELSIF from2 < from1 THEN RETURN to2 >= from1;
  7928. ELSE RETURN TRUE;
  7929. END;
  7930. END Overlap;
  7931. (*
  7932. PROCEDURE Overlap( src1, src2, dim: Address ): BOOLEAN;
  7933. VAR from1, from2, to1, to2: Address;
  7934. BEGIN
  7935. from1 := GetAdr( src1 ); from2 := GetAdr( src2 ); to1 := from1; to2 := from2;
  7936. DEC( dim );
  7937. WHILE (dim > 0) DO
  7938. to1 := to1 + (GetLen( src1, dim ) - 1) * GetIncr( src1, dim );
  7939. to2 := to2 + (GetLen( src2, dim ) - 1) * GetIncr( src2, dim ); DEC( dim );
  7940. END;
  7941. IF from1 < from2 THEN RETURN to1 >= from2;
  7942. ELSIF from2 < from1 THEN RETURN to2 >= from1;
  7943. ELSE RETURN TRUE;
  7944. END;
  7945. END Overlap;
  7946. *)
  7947. PROCEDURE AllocateTransposed( VAR dest: LONGINT; src: LONGINT;
  7948. elementsize: LONGINT ): ANY;
  7949. VAR ptr, data: ANY; Size: LONGINT;
  7950. (* allocate a structure in dest compatible with src, if necessary. returns if allocation has taken place *)
  7951. PROCEDURE TransposedShape( l, r: LONGINT ): BOOLEAN;
  7952. VAR dim,max: LONGINT;
  7953. BEGIN
  7954. dim := GetDim( l );
  7955. IF dim # GetDim( r ) THEN RETURN FALSE END;
  7956. max := dim-1;
  7957. WHILE (dim > 0) DO
  7958. DEC( dim );
  7959. IF GetLen( l, max-dim ) # GetLen( r, dim ) THEN RETURN FALSE END;
  7960. END;
  7961. RETURN TRUE;
  7962. END TransposedShape;
  7963. PROCEDURE UseDescriptor;
  7964. VAR tag: LONGINT;
  7965. BEGIN
  7966. SYSTEM.GET( src - 4, tag );
  7967. Heaps.NewRec( ptr, tag, FALSE );
  7968. dest := SYSTEM.VAL( LONGINT, ptr );
  7969. END UseDescriptor;
  7970. PROCEDURE NewData;
  7971. VAR max,dim, len, size: LONGINT;
  7972. BEGIN
  7973. dim := GetDim( src ); size := elementsize;
  7974. PutDim( dest, dim );
  7975. PutSize( dest, elementsize );
  7976. max := dim-1;
  7977. WHILE (dim > 0) DO
  7978. DEC( dim );
  7979. len := GetLen( src, max-dim ); PutLen( dest, dim, len );
  7980. PutInc( dest, dim, size ); size := size * len;
  7981. END;
  7982. SYSTEM.NEW( data, size );
  7983. PutAdr( dest, SYSTEM.VAL( LONGINT, data ) );
  7984. PutPtr( dest, SYSTEM.VAL( LONGINT, data ) );
  7985. END NewData;
  7986. BEGIN
  7987. IF dest # 0 THEN Size := GetSize( dest ); ASSERT( Size = elementsize ); END;
  7988. IF debug THEN KernelLog.String( "Allocate same " ); Report( "allocation source", src ); Report( "allocation des", dest ); END;
  7989. IF dest = 0 THEN (* NIL pointer, guaranteed to be tensor *)
  7990. IF TensorFlag IN GetFlags( src ) THEN UseDescriptor();
  7991. ELSE ptr := GetArrayDesc( GetDim( src ) ); dest := SYSTEM.VAL( LONGINT, ptr );
  7992. END;
  7993. PutFlags(dest, {TensorFlag});
  7994. NewData(); RETURN ptr;
  7995. ELSIF GetDim( dest ) # GetDim( src ) THEN (* different dimension *)
  7996. (* check if re-allocation of descriptor is allowed *)
  7997. IF ~(TensorFlag IN GetFlags( dest )) &
  7998. ~(TemporaryFlag IN GetFlags( dest )) THEN (* no, not allowed*)
  7999. HALT( 100 );
  8000. END;
  8001. UseDescriptor();
  8002. PutFlags(dest, {TensorFlag});
  8003. NewData(); RETURN ptr;
  8004. ELSIF (GetAdr( dest ) = 0) OR ~TransposedShape( dest, src ) THEN
  8005. (* check if re-allocation of array data is allowed *)
  8006. IF RangeFlag IN GetFlags( dest ) THEN (* no! not allowed *)
  8007. HALT( 100 );
  8008. END;
  8009. NewData();
  8010. RETURN data;
  8011. ELSE (* nothing to do *)
  8012. RETURN NIL;
  8013. END;
  8014. END AllocateTransposed;
  8015. PROCEDURE Transpose*( dest, left: Address; Size: LONGINT );
  8016. VAR len0, len1, linc0, linc1, dinc0, dinc1, ladr, dadr: LONGINT; p: ANY;
  8017. PROCEDURE CopyLoop( src, dest, srcinc, destinc, len: LONGINT );
  8018. BEGIN
  8019. WHILE (len > 0) DO
  8020. SYSTEM.MOVE( src, dest, Size ); INC( src, srcinc ); INC( dest, destinc );
  8021. DEC( len );
  8022. END;
  8023. END CopyLoop;
  8024. BEGIN
  8025. IF TemporaryFlag IN GetFlags( dest ) THEN (* destination is on the stack: can optimize transposition *)
  8026. PutAdr( dest, GetAdr( left ) ); PutPtr( dest, GetPtr( left ) );
  8027. PutLen( dest, 1, GetLen( left, 0 ) ); PutLen( dest, 0, GetLen( left, 1 ) );
  8028. PutInc( dest, 1, GetIncr( left, 0 ) ); PutInc( dest, 0, GetIncr( left, 1 ) );
  8029. ELSE
  8030. len0 := GetLen( left, 0 ); len1 := GetLen( left, 1 );
  8031. p := AllocateTransposed(dest,left,Size);
  8032. IF Overlap( left, dest ) THEN (* copy data first, then transpose *)
  8033. SYSTEM.NEW( p, len0 * len1 * Size ); dinc0 := Size; dinc1 := len0 * Size;
  8034. dadr := SYSTEM.VAL( LONGINT, p ); linc0 := GetIncr( left, 0 );
  8035. linc1 := GetIncr( left, 1 ); ladr := GetAdr( left );
  8036. WHILE (len0 > 0) DO
  8037. CopyLoop( ladr, dadr, linc1, dinc1, len1 ); INC( ladr, linc0 );
  8038. INC( dadr, dinc0 ); DEC( len0 );
  8039. END;
  8040. len0 := GetLen( left, 0 ); linc0 := Size; linc1 := len0 * Size;
  8041. ladr := SYSTEM.VAL( LONGINT, p );
  8042. ELSE
  8043. linc0 := GetIncr( left, 0 ); linc1 := GetIncr( left, 1 ); ladr := GetAdr( left );
  8044. END;
  8045. dinc0 := GetIncr( dest, 0 ); dinc1 := GetIncr( dest, 1 );
  8046. dadr := GetAdr( dest );
  8047. IF (Size = 4) & (transpose4 # NIL ) THEN
  8048. transpose4( ladr, dadr, linc0, linc1, dinc0, dinc1, len0, len1 );
  8049. ELSIF (Size = 8) & (transpose8 # NIL ) THEN
  8050. transpose8( ladr, dadr, linc0, linc1, dinc0, dinc1, len0, len1 );
  8051. ELSE
  8052. WHILE (len0 > 0) DO
  8053. CopyLoop( ladr, dadr, linc1, dinc0, len1 ); INC( ladr, linc0 );
  8054. INC( dadr, dinc1 ); DEC( len0 );
  8055. END;
  8056. END;
  8057. END;
  8058. END Transpose;
  8059. OPERATOR "`"*(CONST left: ARRAY [ * , * ] OF SHORTINT): ARRAY [ * , * ] OF SHORTINT;
  8060. BEGIN
  8061. Transpose( ADDRESSOF( RESULT ), ADDRESSOF( left ), SIZEOF( SHORTINT ) );
  8062. RETURN RESULT
  8063. END "`";
  8064. OPERATOR "`"*( CONST left: ARRAY [ * , * ] OF INTEGER ):ARRAY [ * , * ] OF INTEGER ;
  8065. BEGIN
  8066. Transpose( ADDRESSOF( RESULT ), ADDRESSOF( left ), SIZEOF( INTEGER ) );
  8067. RETURN RESULT
  8068. END "`";
  8069. OPERATOR "`"*( CONST left: ARRAY [ * , * ] OF LONGINT ): ARRAY [ * , * ] OF LONGINT;
  8070. BEGIN
  8071. Transpose( ADDRESSOF( RESULT ), ADDRESSOF( left ), SIZEOF( LONGINT ) );
  8072. RETURN RESULT
  8073. END "`";
  8074. OPERATOR "`"*( CONST left: ARRAY [ * , * ] OF REAL ): ARRAY [ * , * ] OF REAL;
  8075. BEGIN
  8076. Transpose( ADDRESSOF( RESULT ), ADDRESSOF( left ), SIZEOF( REAL ) );
  8077. RETURN RESULT
  8078. END "`";
  8079. OPERATOR "`"*( CONST left: ARRAY [ * , * ] OF LONGREAL ): ARRAY [ * , * ] OF LONGREAL;
  8080. BEGIN
  8081. Transpose( ADDRESSOF( RESULT ), ADDRESSOF( left ), SIZEOF( LONGREAL ) );
  8082. RETURN RESULT
  8083. END "`";
  8084. PROCEDURE CheckTensorGeometry( left, right, dest: Address; ldim, rdim: LONGINT ): BOOLEAN;
  8085. VAR i: LONGINT;
  8086. BEGIN
  8087. FOR i := 0 TO rdim - 1 DO
  8088. IF GetLen( right, i ) # GetLen( dest, i ) THEN RETURN FALSE END;
  8089. END;
  8090. FOR i := 0 TO ldim - 1 DO
  8091. IF GetLen( left, i ) # GetLen( dest, rdim + i ) THEN RETURN FALSE END;
  8092. END;
  8093. RETURN TRUE;
  8094. END CheckTensorGeometry;
  8095. (*
  8096. PROCEDURE Zero(p: ANY; size: LONGINT);
  8097. VAR adr: LONGINT;
  8098. BEGIN
  8099. adr := SYSTEM.VAL(LONGINT,p);
  8100. WHILE(size>0) DO
  8101. SYSTEM.PUT8(adr,0); DEC(size);INC(adr);
  8102. END;
  8103. END Zero;
  8104. *)
  8105. PROCEDURE DoReshape*( VAR dest: LONGINT; src: LONGINT; CONST shape: ARRAY [ * ] OF LONGINT );
  8106. VAR i, Size: LONGINT; ptr, data: ANY; new: LONGINT;
  8107. oldSize, newSize: LONGINT; oldDim, newDim: LONGINT;
  8108. squeezingReshape: BOOLEAN;
  8109. PROCEDURE NewDescriptor;
  8110. BEGIN
  8111. ptr := GetArrayDesc( newDim ); new := SYSTEM.VAL( LONGINT, ptr );
  8112. END NewDescriptor;
  8113. (* Added by Alexey
  8114. Returns TRUE if the new shape is the result of squeezing (removing of singleton dimensions)
  8115. *)
  8116. PROCEDURE SqueezingReshape(): BOOLEAN;
  8117. VAR
  8118. i, j, n: LONGINT;
  8119. BEGIN
  8120. IF oldDim > newDim THEN
  8121. i := 0; j := 0;
  8122. WHILE (i < oldDim) & (j < newDim) DO
  8123. n := GetLen(src,i);
  8124. IF n = shape[j] THEN INC(j); END;
  8125. INC(i);
  8126. END;
  8127. WHILE (i < oldDim) & (GetLen(src,i) = 1) DO INC(i); END; (* account for a trailing sequence of 1 *)
  8128. ELSE
  8129. squeezingReshape := FALSE;
  8130. END;
  8131. squeezingReshape := (i = oldDim) & (j = newDim);
  8132. RETURN squeezingReshape;
  8133. END SqueezingReshape;
  8134. (*returns TRUE if the target is already allocated coninuous memory of correct length*)
  8135. PROCEDURE TargetContinuous(): BOOLEAN;
  8136. VAR
  8137. i, n: LONGINT;
  8138. continue: BOOLEAN;
  8139. BEGIN
  8140. i := GetDim(dest)-1; n := GetIncr(dest,i);
  8141. continue := TRUE;
  8142. WHILE (i > 0) & continue DO
  8143. n := n * GetLen(dest,i);
  8144. DEC(i);
  8145. continue := GetIncr(dest,i) = n;
  8146. END;
  8147. (*TRACE(i,continue,Size,GetSize(dest));*)
  8148. (*tod obviously size is not what I expect it to be*)
  8149. IF (i = 0) & continue & (Size=GetSize(dest)) THEN (* destination array is continuous memory of the proper lenght *)
  8150. RETURN TRUE;
  8151. ELSE
  8152. RETURN FALSE;
  8153. END;
  8154. END TargetContinuous;
  8155. (* returns TRUE if reshape preserves contiguity pattern and thus is valid even for subranged arrays *)
  8156. PROCEDURE PreservesContiguity(): BOOLEAN;
  8157. VAR
  8158. i, n: LONGINT;
  8159. continue: BOOLEAN;
  8160. BEGIN
  8161. i := oldDim-1; n := GetIncr(src,i);
  8162. continue := TRUE;
  8163. WHILE (i > 0) & continue DO
  8164. n := n * GetLen(src,i);
  8165. DEC(i);
  8166. continue := GetIncr(src,i) = n;
  8167. END;
  8168. IF (i = 0) & continue THEN (* array can be fully linearized and, therefore, can be reshaped to any size *)
  8169. RETURN TRUE;
  8170. ELSE Err("Not yet implemented!");
  8171. END;
  8172. END PreservesContiguity;
  8173. (* Added by Alexey *)
  8174. PROCEDURE NewDescriptorForSameData;
  8175. VAR len, size, i, j: LONGINT;
  8176. BEGIN
  8177. ptr := GetArrayDesc( newDim ); new := SYSTEM.VAL( LONGINT, ptr );
  8178. IF ~squeezingReshape THEN
  8179. size := Size;
  8180. FOR i := newDim - 1 TO 0 BY -1 DO
  8181. len := shape[i]; PutInc( new, i, size ); PutLen( new, i, len );
  8182. size := size * len;
  8183. END;
  8184. ELSE (* squeezing reshape *)
  8185. j := 0; len := shape[j];
  8186. FOR i := 0 TO oldDim-1 DO
  8187. IF GetLen(src,i) = len THEN
  8188. PutInc(new,j,GetIncr(src,i)); PutLen(new,j,len);
  8189. INC(j);
  8190. IF j < newDim THEN len := shape[j]; END;
  8191. END;
  8192. END;
  8193. END;
  8194. IF RangeFlag IN GetFlags(src) THEN (* keep range awareness for case of squeezing reshape and preservation of contiguity *)
  8195. PutFlags(new,GetFlags(new)+{RangeFlag});
  8196. END;
  8197. PutAdr( new, GetAdr(src) );
  8198. PutPtr( new, GetPtr(src) ); PutDim( new, newDim );
  8199. PutSize( new, Size );
  8200. END NewDescriptorForSameData;
  8201. PROCEDURE NewData;
  8202. VAR len, size, i: LONGINT;
  8203. BEGIN
  8204. size := Size;
  8205. FOR i := newDim - 1 TO 0 BY -1 DO
  8206. len := shape[i]; PutInc( new, i, size ); PutLen( new, i, len );
  8207. size := size * len;
  8208. END;
  8209. SYSTEM.NEW( data, size ); (* Zero(data,size*Size); *)
  8210. PutAdr( new, SYSTEM.VAL( LONGINT, data ) );
  8211. PutPtr( new, SYSTEM.VAL( LONGINT, data ) ); PutDim( new, newDim );
  8212. PutSize( new, Size );
  8213. END NewData;
  8214. PROCEDURE CopyData;
  8215. VAR d, s, dadr: LONGINT;
  8216. PROCEDURE Loop( dim: LONGINT; sadr: LONGINT );
  8217. VAR inc, len, i: LONGINT;
  8218. BEGIN
  8219. IF dim = d THEN
  8220. inc := GetIncr( src, dim ); len := GetLen( src, dim );
  8221. FOR i := 0 TO len - 1 DO
  8222. SYSTEM.MOVE( sadr, dadr, s ); INC( dadr, s ); INC( sadr, inc );
  8223. END;
  8224. ELSE
  8225. inc := GetIncr( src, dim ); len := GetLen( src, dim ); INC( dim );
  8226. FOR i := 0 TO len - 1 DO Loop( dim, sadr ); INC( sadr, inc ); END;
  8227. END;
  8228. END Loop;
  8229. BEGIN
  8230. s := Size; ASSERT( GetSize( src ) = s ); d := GetDim( src ) - 1;
  8231. WHILE (d >= 0) & (GetIncr( src, d ) = s) DO
  8232. s := s * GetLen( src, d ); DEC( d );
  8233. END;
  8234. IF d = -1 THEN (* special case: both continuous *)
  8235. SYSTEM.MOVE( GetAdr( src ), GetAdr( new ), s );
  8236. ELSE dadr := GetAdr( new ); Loop( 0, GetAdr( src ) );
  8237. END;
  8238. END CopyData;
  8239. PROCEDURE CopyDataBack;
  8240. VAR d, s: LONGINT; sadr: LONGINT;
  8241. PROCEDURE Loop( dim: LONGINT; dadr: LONGINT );
  8242. VAR inc, len, i: LONGINT;
  8243. BEGIN
  8244. IF dim = d THEN
  8245. inc := GetIncr( dest, dim ); len := GetLen( dest, dim );
  8246. FOR i := 0 TO len - 1 DO
  8247. SYSTEM.MOVE( sadr, dadr, s ); INC( dadr, inc ); INC( sadr, s );
  8248. END;
  8249. ELSE
  8250. inc := GetIncr( dest, dim ); len := GetLen( dest, dim ); INC( dim );
  8251. FOR i := 0 TO len - 1 DO Loop( dim, dadr ); INC( dadr, inc ); END;
  8252. END;
  8253. END Loop;
  8254. BEGIN
  8255. s := Size; ASSERT( GetSize( dest ) = s ); d := GetDim( dest ) - 1;
  8256. WHILE (d >= 0) & (GetIncr( dest, d ) = s) DO
  8257. s := s * GetLen( dest, d ); DEC( d );
  8258. END;
  8259. IF d = -1 THEN (* special case: both continuous *)
  8260. SYSTEM.MOVE( GetAdr( new ), GetAdr( dest ), s );
  8261. ELSE sadr := GetAdr( new ); Loop( 0, GetAdr( dest ) );
  8262. END;
  8263. END CopyDataBack;
  8264. PROCEDURE CopyDescriptor( src, dest: LONGINT );
  8265. BEGIN
  8266. ASSERT( GetDim( src ) = GetDim( dest ) );
  8267. SYSTEM.MOVE( src, dest, MathLenOffset + GetDim( src ) * 8 );
  8268. END CopyDescriptor;
  8269. PROCEDURE ShapeDiffers( ): BOOLEAN;
  8270. VAR i: LONGINT;
  8271. BEGIN
  8272. ASSERT(GetDim(dest) = newDim);
  8273. FOR i := 0 TO newDim - 1 DO
  8274. IF GetLen(dest,i) # shape[i] THEN RETURN TRUE END;
  8275. END;
  8276. RETURN FALSE;
  8277. END ShapeDiffers;
  8278. BEGIN
  8279. (*
  8280. cases
  8281. 1.) descriptor may be replaced = dimension may vary: dest = TENSOR
  8282. 2.) descriptor may be reshaped: dest = ARRAY but no RANGE
  8283. 3.) descriptor may not be reshaped: dest = RANGE
  8284. *)
  8285. (* first check invariants *)
  8286. oldDim := GetDim( src );
  8287. IF oldDim = 0 THEN oldSize := 0
  8288. ELSE
  8289. oldSize := 1;
  8290. FOR i := 0 TO oldDim - 1 DO oldSize := oldSize * GetLen( src, i ); END;
  8291. END;
  8292. newDim := LEN( shape, 0 );
  8293. IF newDim = 0 THEN newSize := 0
  8294. ELSE
  8295. newSize := 1;
  8296. FOR i := 0 TO newDim - 1 DO newSize := newSize * shape[i]; END;
  8297. END;
  8298. IF oldSize # newSize THEN Err( "RESHAPE: Total length mismatch" ); END;
  8299. Size := GetSize( src );
  8300. ASSERT( (Size > 0) & (Size < 128) ); (*! heuristic, remove upper bound *)
  8301. IF dest = src THEN (* added by Alexey *)
  8302. IF ~(RangeFlag IN GetFlags(dest)) OR PreservesContiguity() OR SqueezingReshape() THEN
  8303. NewDescriptorForSameData;
  8304. dest := new;
  8305. ELSIF ((newDim = oldDim) & ~ShapeDiffers()) THEN
  8306. (* create a copy of the original descriptor *)
  8307. ptr := GetArrayDesc(newDim); dest := SYSTEM.VAL(LONGINT,ptr); CopyDescriptor(src,dest);
  8308. ELSE
  8309. Err( "RESHAPE: given RANGE array can not be reshaped!" );
  8310. END;
  8311. ELSIF (dest = 0) THEN (* is tensor for sure *)
  8312. NewDescriptor; NewData; CopyData; dest := new;
  8313. ELSIF TargetContinuous() THEN
  8314. NewDescriptor; new:=dest; CopyData;
  8315. (*todo: check if target continous memory of correct size, if so don't allocate memory*)
  8316. ELSIF (newDim # GetDim( dest )) THEN (* must be tensor *)
  8317. IF ~(TensorFlag IN GetFlags( dest )) THEN (* no, not allowed*)
  8318. Err( "RESHAPE: new dimension only allowed for TENSOR" );
  8319. END;
  8320. NewDescriptor; NewData; CopyData; dest := new;
  8321. ELSIF ShapeDiffers() THEN (* same dim but shape of destination does not match *)
  8322. IF RangeFlag IN GetFlags( dest ) THEN Err( "RESHAPE: new shape not allowed for RANGE" ); END;
  8323. NewDescriptor; NewData; CopyData; CopyDescriptor( new, dest );
  8324. ELSIF ~SameShape( src, dest ) THEN (* shape for destination matches but that of src is different *)
  8325. NewDescriptor; NewData; CopyData; CopyDataBack;
  8326. ELSE (* same shape, just copy *)
  8327. CopyContent( src, dest, Size ); RETURN;
  8328. END;
  8329. END DoReshape;
  8330. PROCEDURE AllocateTensorA*( CONST a: ARRAY OF SIZE; elementSize: SIZE; tag: ADDRESS; VAR dest: ADDRESS );
  8331. VAR descr, data: ANY; same: BOOLEAN; i: LONGINT; dim: LONGINT;
  8332. PROCEDURE NewData;
  8333. VAR len, size, i: LONGINT;
  8334. BEGIN
  8335. size := elementSize;
  8336. FOR i := dim - 1 TO 0 BY -1 DO
  8337. len := a[i];
  8338. PutInc( dest, i, size ); PutLen( dest, i, len ); size := size * len;
  8339. END;
  8340. IF tag = 0 THEN
  8341. SYSTEM.NEW( data, size ); (* Zero(data,size*Size); *)
  8342. PutAdr( dest, SYSTEM.VAL( LONGINT, data ) );
  8343. ELSE
  8344. Heaps.NewArr(data, tag, size DIV elementSize,1,FALSE);
  8345. PutAdr( dest, SYSTEM.VAL( LONGINT, data ) + ArrDataArrayOffset );
  8346. END;
  8347. PutPtr( dest, SYSTEM.VAL( LONGINT, data ) ); PutSize( dest, elementSize );
  8348. END NewData;
  8349. PROCEDURE ClearData;
  8350. (*! todo *)
  8351. END ClearData;
  8352. BEGIN
  8353. dim := LEN( a,0 );
  8354. IF (dest = 0) OR (dim # GetDim( dest )) THEN
  8355. IF dest # 0 THEN
  8356. IF (~(TensorFlag IN GetFlags( dest ))) THEN Err( "Array's number of dimension must not be modified (no TENSOR !)" ); END;
  8357. END;
  8358. descr := GetArrayDesc( LEN( a,0 ) ); dest := SYSTEM.VAL( LONGINT, descr );
  8359. NewData;
  8360. ELSE
  8361. i := 0;
  8362. WHILE (i < dim) & same DO
  8363. IF GetLen( dest, i ) # a[i] THEN same := FALSE; END;
  8364. INC( i );
  8365. END;
  8366. IF ~same THEN
  8367. IF (RangeFlag IN GetFlags( dest )) THEN Err( "Array's shape must not be modified (is RANGE !) " ); END;
  8368. NewData
  8369. ELSE ClearData
  8370. END;
  8371. END;
  8372. END AllocateTensorA;
  8373. PROCEDURE AllocateArrayA*( CONST a: ARRAY OF SIZE; elementSize: SIZE; tag: ADDRESS; dest: ADDRESS );
  8374. BEGIN
  8375. AllocateTensorA(a,elementSize,tag,dest);
  8376. END AllocateArrayA;
  8377. PROCEDURE AllocateTensorX*( VAR destA: ARRAY [?]; CONST a: ARRAY [ * ] OF LONGINT; Size: LONGINT; tag: LONGINT );
  8378. VAR descr, data: ANY; same: BOOLEAN; i: LONGINT; dim: LONGINT; dest: Address;
  8379. PROCEDURE NewData;
  8380. VAR len, size, i: LONGINT;
  8381. BEGIN
  8382. size := Size;
  8383. FOR i := dim - 1 TO 0 BY -1 DO
  8384. len := a[i];
  8385. (*
  8386. KernelLog.Int(len,10); KernelLog.Ln;
  8387. *)
  8388. PutInc( dest, i, size ); PutLen( dest, i, len ); size := size * len;
  8389. END;
  8390. IF tag = 0 THEN
  8391. SYSTEM.NEW( data, size ); (* Zero(data,size*Size); *)
  8392. PutAdr( dest, SYSTEM.VAL( LONGINT, data ) );
  8393. ELSE
  8394. Heaps.NewArr(data, tag, size DIV Size,1,FALSE);
  8395. PutAdr( dest, SYSTEM.VAL( LONGINT, data ) + ArrDataArrayOffset );
  8396. END;
  8397. PutPtr( dest, SYSTEM.VAL( LONGINT, data ) ); PutSize( dest, Size );
  8398. END NewData;
  8399. PROCEDURE ClearData;
  8400. (*! todo *)
  8401. END ClearData;
  8402. BEGIN
  8403. dim := LEN( a,0 );
  8404. dest := SYSTEM.VAL(Address,destA);
  8405. (*! check range flag! *)
  8406. IF (dest = 0) OR (dim # GetDim( dest )) THEN
  8407. IF dest # 0 THEN
  8408. IF (~(TensorFlag IN GetFlags( dest ))) THEN Err( "Array's number of dimension must not be modified (no TENSOR !)" ); END;
  8409. END;
  8410. descr := GetArrayDesc( LEN( a,0 ) ); dest := SYSTEM.VAL( LONGINT, descr );
  8411. NewData;
  8412. ELSE
  8413. i := 0;
  8414. WHILE (i < dim) & same DO
  8415. IF GetLen( dest, i ) # a[i] THEN same := FALSE; END;
  8416. INC( i );
  8417. END;
  8418. IF ~same THEN
  8419. IF (RangeFlag IN GetFlags( dest )) THEN Err( "Array's shape must not be modified (is RANGE !) " ); END;
  8420. NewData
  8421. ELSE ClearData
  8422. END;
  8423. END;
  8424. SYSTEM.PUT(ADDRESSOF(destA),dest);
  8425. END AllocateTensorX;
  8426. PROCEDURE LenA*( VAR dest: ARRAY [ * ] OF LONGINT; src: Address );
  8427. VAR dim, i: LONGINT;
  8428. BEGIN
  8429. dim := GetDim( src );
  8430. IF LEN( dest, 0 ) # dim THEN NEW( dest, dim ); END;
  8431. FOR i := 0 TO dim - 1 DO dest[i] := GetLen( src, i ); END;
  8432. END LenA;
  8433. PROCEDURE IncrA*( VAR dest: ARRAY [ * ] OF LONGINT; src: Address );
  8434. VAR dim, i, len: LONGINT;
  8435. BEGIN
  8436. dim := GetDim( src ); len := LEN( dest, 0 );
  8437. IF len # dim THEN NEW( dest, dim ); END;
  8438. FOR i := 0 TO dim - 1 DO dest[i] := GetIncr( src, i ); END;
  8439. END IncrA;
  8440. PROCEDURE Len*(src: Address; d: LONGINT): LONGINT;
  8441. VAR dim: LONGINT;
  8442. BEGIN
  8443. dim := GetDim(src);
  8444. IF (d<0) OR (d>=dim) THEN HALT(100)
  8445. ELSE
  8446. RETURN GetLen(src,d);
  8447. END;
  8448. END Len;
  8449. PROCEDURE Incr*(src: Address; d: LONGINT): LONGINT;
  8450. VAR dim: LONGINT;
  8451. BEGIN
  8452. dim := GetDim(src);
  8453. IF (d<0) OR (d>=dim) THEN HALT(100)
  8454. ELSE
  8455. RETURN GetIncr(src,d);
  8456. END;
  8457. END Incr;
  8458. PROCEDURE AllocateTensor( VAR dest: LONGINT; left, right: Address;
  8459. Size: LONGINT ): ANY;
  8460. VAR ldim, rdim: LONGINT; ptr, data: ANY;
  8461. PROCEDURE NewData;
  8462. VAR len, size, i: LONGINT;
  8463. BEGIN
  8464. size := 1;
  8465. FOR i := 0 TO ldim - 1 DO
  8466. len := GetLen( left, i ); size := size * len; PutLen( dest, i, len );
  8467. END;
  8468. FOR i := 0 TO rdim - 1 DO
  8469. len := GetLen( right, i ); size := size * len; PutLen( dest, ldim + i, len );
  8470. END;
  8471. SYSTEM.NEW( data, size * Size ); (* Zero(data,size*Size); *)
  8472. (*
  8473. KernelLog.String("adr data="); KernelLog.Int(SYSTEM.VAL(LONGINT,data),10); KernelLog.Ln;
  8474. KernelLog.String("adr dest="); KernelLog.Int(dest,10); KernelLog.Ln;
  8475. *)
  8476. size := Size;
  8477. FOR i := ldim + rdim - 1 TO 0 BY -1 DO
  8478. PutInc( dest, i, size ); size := size * GetLen( dest, i );
  8479. END;
  8480. PutAdr( dest, SYSTEM.VAL( LONGINT, data ) );
  8481. PutPtr( dest, SYSTEM.VAL( LONGINT, data ) );
  8482. END NewData;
  8483. BEGIN
  8484. ldim := GetDim( left ); rdim := GetDim( right );
  8485. IF dest = 0 THEN (* NIL pointer, guaranteed to be tensor *)
  8486. ptr := GetArrayDesc( ldim + rdim ); dest := SYSTEM.VAL( LONGINT, ptr );
  8487. NewData(); RETURN ptr;
  8488. ELSIF (ldim + rdim # GetDim( dest )) THEN
  8489. IF ~(TensorFlag IN GetFlags( dest )) &
  8490. ~(TemporaryFlag IN GetFlags( dest )) THEN (* no, not allowed*)
  8491. HALT( 100 );
  8492. END;
  8493. ptr := GetArrayDesc( ldim + rdim ); dest := SYSTEM.VAL( LONGINT, ptr );
  8494. NewData(); RETURN ptr;
  8495. ELSIF ~CheckTensorGeometry( left, right, dest, ldim, rdim ) THEN (* dimension matches but not geometry *)
  8496. IF RangeFlag IN GetFlags( dest ) THEN (* no! not allowed *)
  8497. HALT( 100 );
  8498. END;
  8499. NewData(); RETURN data;
  8500. END;
  8501. RETURN NIL;
  8502. END AllocateTensor;
  8503. (* find the largest block with a regular pattern of the form offset+{i*linc: 0<=i<len} for two arrays simultaneously. d is dimension applying to the resulting loop *)
  8504. PROCEDURE FindPatternTensor( left, right: Address;
  8505. VAR rdim, len, linc, ri: LONGINT );
  8506. (* geometric precondition: lengths must coincide *)
  8507. VAR ldim: LONGINT;
  8508. BEGIN
  8509. ldim := GetDim( left ) - 1; rdim := GetDim( right ) - 1;
  8510. len := GetLen( left, ldim ); ASSERT( len = GetLen( right, rdim ) );
  8511. WHILE (len = 1) & (ldim > 0) & (rdim > 0) DO
  8512. DEC( ldim ); DEC( rdim ); len := GetLen( left, ldim );
  8513. ASSERT( GetLen( left, ldim ) = GetLen( right, rdim ) );
  8514. END;
  8515. linc := GetIncr( left, ldim ); ri := GetIncr( right, rdim ); DEC( rdim );
  8516. DEC( ldim );
  8517. WHILE (ldim >= 0) & (rdim >= 0) & (GetIncr( left, ldim ) = len * linc) &
  8518. (GetIncr( right, rdim ) = len * ri) DO
  8519. len := len * GetLen( left, ldim );
  8520. ASSERT( GetLen( left, ldim ) = GetLen( right, rdim ) ); DEC( rdim );
  8521. DEC( ldim );
  8522. END;
  8523. INC( ldim ); INC( rdim );
  8524. IF debug THEN
  8525. KernelLog.String( "FindPatternTensor: " ); KernelLog.Int( rdim, 10 ); KernelLog.Int( len, 10 );
  8526. KernelLog.Int( linc, 10 ); KernelLog.Int( ri, 10 ); KernelLog.Ln;
  8527. END;
  8528. END FindPatternTensor;
  8529. PROCEDURE ApplyTensorAAAOp( d, l, r: Address; elementSize: LONGINT;
  8530. Loop: BinaryASALoop );
  8531. VAR loopd, looplen, loopri, loopdi, lDim, rDim: LONGINT; p: ANY;
  8532. origdest: LONGINT; left, right, dest: Address;
  8533. PROCEDURE Traverse( ladr, radr, dadr: Address; ldim, rdim: LONGINT );
  8534. VAR len: LONGINT; linc, rinc, dinc: LONGINT;
  8535. BEGIN
  8536. IF (ldim < lDim) THEN
  8537. len := GetLen( left, ldim ); linc := GetIncr( left, ldim );
  8538. dinc := GetIncr( dest, ldim + rdim ); INC( ldim );
  8539. WHILE (len > 0) DO
  8540. Traverse( ladr, radr, dadr, ldim, rdim ); INC( ladr, linc );
  8541. INC( dadr, dinc ); DEC( len );
  8542. END;
  8543. ELSIF (rdim # loopd) THEN
  8544. len := GetLen( right, rdim ); rinc := GetIncr( right, rdim );
  8545. dinc := GetIncr( dest, ldim + rdim ); INC( rdim );
  8546. WHILE (len > 0) DO
  8547. Traverse( ladr, radr, dadr, ldim, rdim ); INC( radr, rinc );
  8548. INC( dadr, dinc ); DEC( len );
  8549. END;
  8550. ELSE
  8551. (*
  8552. KernelLog.String("MulALSLLoop"); KernelLog.Int(dadr,10); KernelLog.Int(loopdi,10); KernelLog.Int(looplen,10);
  8553. KernelLog.Int(GetAdr(dest),10);
  8554. KernelLog.Int(GetAdr(dest)+clen,10);
  8555. KernelLog.Ln;
  8556. *)
  8557. Loop( radr, ladr, dadr, loopri, loopdi, looplen );
  8558. (* loop over right matrix and destination highest continuous dimension D[x,y,z,..] := L[x,y] ** R[z,..] *)
  8559. END;
  8560. END Traverse;
  8561. BEGIN
  8562. SYSTEM.GET( d, dest ); SYSTEM.GET( l, left ); SYSTEM.GET( r, right );
  8563. (* check array lengths *)
  8564. origdest := 0; lDim := GetDim( left ); rDim := GetDim( right );
  8565. p := AllocateTensor( dest, left, right, elementSize );
  8566. (*
  8567. IF (dest = 0) OR (GetPtr( dest ) = 0) THEN
  8568. p := AllocateTensor( left, right, dest, elementSize )
  8569. ELSIF ~CheckTensorGeometry( left, right, dest, lDim, rDim ) THEN
  8570. IF GetPtr( dest ) = -1 THEN HALT( GeometryMismatch )
  8571. ELSE p := AllocateTensor( left, right, dest, elementSize );
  8572. END;
  8573. (*! to be done: treat overlapping memory *)
  8574. END;
  8575. *)
  8576. (* debugging *)
  8577. IF debug THEN Report( "AAA:left", left ); Report( "AAA:right", right ); Report( "AAA:dest", dest ); END;
  8578. (* check pattern: longest piece that can be done with a loop *)
  8579. FindPatternTensor( dest, right, loopd, looplen, loopri, loopdi );
  8580. (* run through dimensions *)
  8581. Traverse( GetAdr( left ), GetAdr( right ), GetAdr( dest ), 0, 0 );
  8582. SYSTEM.PUT( d, dest );
  8583. END ApplyTensorAAAOp;
  8584. OPERATOR "**"*(CONST left,right: ARRAY [?] OF SHORTINT): ARRAY [?] OF SHORTINT;
  8585. BEGIN
  8586. ApplyTensorAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  8587. SIZEOF( SHORTINT ), MulASSSLoop );
  8588. RETURN RESULT
  8589. END "**";
  8590. OPERATOR "**"*(CONST left,right: ARRAY [?] OF INTEGER): ARRAY [?] OF INTEGER;
  8591. BEGIN
  8592. ApplyTensorAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  8593. SIZEOF( INTEGER ), MulAISILoop );
  8594. RETURN RESULT
  8595. END "**";
  8596. OPERATOR "**"*(CONST left,right: ARRAY [?] OF LONGINT): ARRAY [?] OF LONGINT;
  8597. BEGIN
  8598. ApplyTensorAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  8599. SIZEOF( LONGINT ), MulALSLLoop );
  8600. RETURN RESULT
  8601. END "**";
  8602. OPERATOR "**"*(CONST left,right: ARRAY [?] OF REAL): ARRAY [?] OF REAL;
  8603. BEGIN
  8604. ApplyTensorAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( REAL ),
  8605. loopMulARSR );
  8606. RETURN RESULT
  8607. END "**";
  8608. OPERATOR "**"*(CONST left,right: ARRAY [?] OF LONGREAL): ARRAY [?] OF LONGREAL;
  8609. BEGIN
  8610. ApplyTensorAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ),
  8611. SIZEOF( LONGREAL ), loopMulAXSX );
  8612. RETURN RESULT
  8613. END "**";
  8614. OPERATOR "**"*(CONST left,right: ARRAY [?] OF COMPLEX): ARRAY [?] OF COMPLEX;
  8615. BEGIN
  8616. ApplyTensorAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( COMPLEX ),
  8617. loopMulAZSZ );
  8618. RETURN RESULT
  8619. END "**";
  8620. OPERATOR "**"*(CONST left,right: ARRAY [?] OF LONGCOMPLEX): ARRAY [?] OF LONGCOMPLEX;
  8621. BEGIN
  8622. ApplyTensorAAAOp( ADDRESSOF( RESULT ), ADDRESSOF( left ), ADDRESSOF( right ), SIZEOF( LONGCOMPLEX ),
  8623. loopMulALZSLZ );
  8624. RETURN RESULT
  8625. END "**";
  8626. PROCEDURE InitOptimization;
  8627. VAR p: PROCEDURE;
  8628. BEGIN
  8629. GETPROCEDURE("FoxArrayBaseOptimized","Install",p);
  8630. IF p # NIL THEN
  8631. p;
  8632. ELSE
  8633. KernelLog.String( "Warning: ArrayBase runtime library optimizer not installed." ); KernelLog.Ln;
  8634. END;
  8635. END InitOptimization;
  8636. PROCEDURE CopyDescriptor*(VAR destPtr: ANY; src: LONGINT; prefixIndices, prefixRanges, suffixIndices, suffixRanges: LONGINT);
  8637. VAR size: SIZE; srcDim, destDim,i,len,incr: LONGINT; dest: Address;
  8638. BEGIN
  8639. IF src = 0 THEN
  8640. HALT(100);
  8641. ELSE
  8642. srcDim := GetDim(src);
  8643. destDim := srcDim - prefixIndices - suffixIndices;
  8644. (*
  8645. KernelLog.String("srcDim "); KernelLog.Int(srcDim,1); KernelLog.Ln;
  8646. KernelLog.String("prefixIndices "); KernelLog.Int(prefixIndices,1); KernelLog.Ln;
  8647. KernelLog.String("prefixRanges "); KernelLog.Int(prefixRanges,1); KernelLog.Ln;
  8648. KernelLog.String("suffixIndices "); KernelLog.Int(suffixIndices,1); KernelLog.Ln;
  8649. KernelLog.String("suffixRanges "); KernelLog.Int(suffixRanges,1); KernelLog.Ln;
  8650. KernelLog.String("destDim "); KernelLog.Int(destDim,1); KernelLog.Ln;
  8651. *)
  8652. destPtr := GetArrayDesc(destDim);
  8653. dest := SYSTEM.VAL(LONGINT,destPtr);
  8654. (* SYSTEM.MOVE(src,dest,MathLenOffset); *)
  8655. PutAdr(dest,GetAdr(src));
  8656. PutPtr(dest,GetPtr(src));
  8657. PutFlags(dest,GetFlags(src));
  8658. PutSize(dest,GetSize(src));
  8659. FOR i := 0 TO srcDim-suffixIndices-suffixRanges-prefixIndices-prefixRanges-1 DO
  8660. srcDim := i + prefixIndices + prefixRanges;
  8661. destDim := i + prefixRanges;
  8662. len := GetLen(src,srcDim);
  8663. incr := GetIncr(src,srcDim);
  8664. PutLen(dest,destDim,len);
  8665. PutInc(dest,destDim,incr);
  8666. END;
  8667. (*
  8668. Report("copy descriptor src",src);
  8669. Report("copy descriptor dest",dest);
  8670. *)
  8671. END;
  8672. END CopyDescriptor;
  8673. (* when Reshape is called by a compiler, the arguments are - for the compiler - replaced as follows, this makes them compatible
  8674. VAR dest: ARRAY [?] OF basetype
  8675. CONST src: ARRAY [?] OF basetype
  8676. CONST shape: ARRAY [*] OF LONGINT
  8677. *)
  8678. PROCEDURE Reshape*(CONST left: ARRAY [?]; CONST right: ARRAY [*] OF LONGINT): ARRAY [?];
  8679. BEGIN
  8680. DoReshape(SYSTEM.VAL(LONGINT,RESULT), SYSTEM.VAL(LONGINT,left), right);
  8681. RETURN RESULT
  8682. END Reshape;
  8683. (* OLIVIER *)
  8684. (** creates a degenerated range from an integer.
  8685. - makes it possible to convert the result of an integer-valued procedure F() into a range
  8686. without executing the procedure twice as it would happen in "(F() .. F() BY 1)"
  8687. **)
  8688. PROCEDURE RangeFromInteger*(CONST integer: LONGINT): RANGE;
  8689. BEGIN RETURN (integer .. integer BY 1)
  8690. END RangeFromInteger;
  8691. (* OLIVIER *)
  8692. (** create an array with the same data but with more dimensions
  8693. - each element in the array 'keptDimensions' corresponds to a dimension in the resulting array
  8694. - if element = TRUE: use a dimension from the source array, i.e. reuse length and increment
  8695. - if element = FALSE: insert a new dimension having length = 1 and increment = 0
  8696. e.g.:
  8697. ExpandDimensions(array, [FALSE, TRUE, FALSE, FALSE, TRUE])
  8698. performs the following type transformation:
  8699. ARRAY [10, 20] OF REAL -> ARRAY [1, 10, 1, 1, 20] OF REAL
  8700. **)
  8701. PROCEDURE ExpandDimensions*(CONST sourceArray: ARRAY [?]; CONST keptDimensions: ARRAY [*] OF BOOLEAN): ARRAY [?];
  8702. VAR
  8703. targetDimensionality, sourceIndex, targetIndex: LONGINT;
  8704. sourceAddress, targetAddress: LONGINT;
  8705. targetArrayDescriptor: ANY;
  8706. BEGIN
  8707. sourceAddress := SYSTEM.VAL(LONGINT, sourceArray);
  8708. targetDimensionality := LEN(keptDimensions, 0);
  8709. targetArrayDescriptor := GetArrayDesc(targetDimensionality); (* create a new array descriptor *)
  8710. SYSTEM.PUT(ADDRESSOF(RESULT), targetArrayDescriptor);
  8711. targetAddress := SYSTEM.VAL(LONGINT, RESULT);
  8712. PutAdr(targetAddress, GetAdr(sourceAddress));
  8713. PutPtr(targetAddress, GetPtr(sourceAddress));
  8714. PutFlags(targetAddress, {TensorFlag});
  8715. PutSize(targetAddress, GetSize(sourceAddress));
  8716. (* set increments and lengths *)
  8717. sourceIndex := 0;
  8718. FOR targetIndex := 0 TO targetDimensionality - 1 DO
  8719. IF keptDimensions[targetIndex] THEN
  8720. (* reuse length and increment from source array *)
  8721. ASSERT(sourceIndex < DIM(sourceArray));
  8722. PutLen(targetAddress, targetIndex, GetLen(sourceAddress, sourceIndex));
  8723. PutInc(targetAddress, targetIndex, GetIncr(sourceAddress, sourceIndex));
  8724. INC(sourceIndex)
  8725. ELSE
  8726. (* set length = 1 and increment = 0 *)
  8727. PutLen(targetAddress, targetIndex, 1);
  8728. PutInc(targetAddress, targetIndex, 0);
  8729. END
  8730. END;
  8731. (* Report("expand dimensions: ", targetAddress); *)
  8732. RETURN RESULT
  8733. END ExpandDimensions;
  8734. (* index ranges *)
  8735. (* the length of a range, i.e. the number of indices that it stands for *)
  8736. OPERATOR "LEN"*(CONST range: RANGE): LONGINT;
  8737. VAR
  8738. temp, result: LONGINT;
  8739. BEGIN
  8740. IF (LAST(range) < FIRST(range)) OR (FIRST(range) < 0) OR (STEP(range) < 1) THEN
  8741. (* invalid range *)
  8742. result := 0
  8743. ELSIF LAST(range) = MAX(LONGINT) THEN
  8744. (* open-ended range *)
  8745. result := MAX(LONGINT)
  8746. ELSE
  8747. temp := 1 + LAST(range) - FIRST(range);
  8748. result := temp DIV STEP(range);
  8749. IF (temp MOD STEP(range)) # 0 THEN
  8750. INC(result)
  8751. END
  8752. END;
  8753. RETURN result
  8754. END "LEN";
  8755. (* complex numbers *)
  8756. OPERATOR "+"*(CONST left, right: COMPLEX): COMPLEX;
  8757. VAR result: COMPLEX;
  8758. BEGIN
  8759. RE(result) := RE(left) + RE(right);
  8760. IM(result) := IM(left) + IM(right);
  8761. RETURN result
  8762. END "+";
  8763. OPERATOR "+"*(CONST left, right: LONGCOMPLEX): LONGCOMPLEX;
  8764. VAR result: LONGCOMPLEX;
  8765. BEGIN
  8766. RE(result) := RE(left) + RE(right);
  8767. IM(result) := IM(left) + IM(right);
  8768. RETURN result
  8769. END "+";
  8770. OPERATOR "-"*(CONST left, right: COMPLEX): COMPLEX;
  8771. VAR result: COMPLEX;
  8772. BEGIN
  8773. RE(result) := RE(left) - RE(right);
  8774. IM(result) := IM(left) - IM(right);
  8775. RETURN result
  8776. END "-";
  8777. OPERATOR "-"*(CONST left, right: LONGCOMPLEX): LONGCOMPLEX;
  8778. VAR result: LONGCOMPLEX;
  8779. BEGIN
  8780. RE(result) := RE(left) - RE(right);
  8781. IM(result) := IM(left) - IM(right);
  8782. RETURN result
  8783. END "-";
  8784. OPERATOR "*"*(CONST left, right: COMPLEX): COMPLEX;
  8785. VAR result: COMPLEX;
  8786. BEGIN
  8787. RE(result) := RE(left) * RE(right) - IM(left) * IM(right);
  8788. IM(result) := RE(left) * IM(right) + IM(left) * RE(right);
  8789. RETURN result
  8790. END "*";
  8791. OPERATOR "*"*(CONST left, right: LONGCOMPLEX): LONGCOMPLEX;
  8792. VAR result: LONGCOMPLEX;
  8793. BEGIN
  8794. RE(result) := RE(left) * RE(right) - IM(left) * IM(right);
  8795. IM(result) := RE(left) * IM(right) + IM(left) * RE(right);
  8796. RETURN result
  8797. END "*";
  8798. OPERATOR "/"*(CONST left, right: COMPLEX): COMPLEX;
  8799. VAR result: COMPLEX; iDivisor: REAL;
  8800. BEGIN
  8801. iDivisor := 1.0 / (RE(right) * RE(right) + IM(right) * IM(right));
  8802. RE(result) := (RE(left) * RE(right) + IM(left) * IM(right)) * iDivisor;
  8803. IM(result) := (IM(left) * RE(right) - RE(left) * IM(right)) * iDivisor;
  8804. RETURN result
  8805. END "/";
  8806. OPERATOR "/"*(CONST left, right: LONGCOMPLEX): LONGCOMPLEX;
  8807. VAR result: LONGCOMPLEX; iDivisor: LONGREAL;
  8808. BEGIN
  8809. iDivisor := 1.0D0 / (RE(right) * RE(right) + IM(right) * IM(right));
  8810. RE(result) := (RE(left) * RE(right) + IM(left) * IM(right)) * iDivisor;
  8811. IM(result) := (IM(left) * RE(right) - RE(left) * IM(right)) * iDivisor;
  8812. RETURN result
  8813. END "/";
  8814. OPERATOR "ABS"*(CONST arg: COMPLEX): REAL;
  8815. BEGIN RETURN Math.sqrt(RE(arg) * RE(arg) + IM(arg) * IM(arg))
  8816. END "ABS";
  8817. OPERATOR "ABS"*(CONST arg: LONGCOMPLEX): LONGREAL;
  8818. BEGIN RETURN MathL.sqrt(RE(arg) * RE(arg) + IM(arg) * IM(arg))
  8819. END "ABS";
  8820. OPERATOR "~"*(CONST left: COMPLEX): COMPLEX;
  8821. BEGIN
  8822. RETURN RE(left) - IM(left) * IMAG
  8823. END "~";
  8824. OPERATOR "~"*(CONST left: LONGCOMPLEX): LONGCOMPLEX;
  8825. BEGIN
  8826. RETURN RE(left) - IM(left) * IMAG
  8827. END "~";
  8828. OPERATOR "<="*(CONST x, y: COMPLEX): BOOLEAN; BEGIN RETURN ABS(x) <= ABS(y); END "<=";
  8829. OPERATOR ">="*(CONST x, y: COMPLEX): BOOLEAN; BEGIN RETURN ABS(x) >= ABS(y); END ">=";
  8830. OPERATOR "<"*(CONST x, y: COMPLEX): BOOLEAN; BEGIN RETURN ABS(x) < ABS(y); END "<";
  8831. OPERATOR ">"*(CONST x, y: COMPLEX): BOOLEAN; BEGIN RETURN ABS(x) > ABS(y); END ">";
  8832. OPERATOR "<="*(CONST x, y: LONGCOMPLEX): BOOLEAN; BEGIN RETURN ABS(x) <= ABS(y); END "<=";
  8833. OPERATOR ">="*(CONST x, y: LONGCOMPLEX): BOOLEAN; BEGIN RETURN ABS(x) >= ABS(y); END ">=";
  8834. OPERATOR "<"*(CONST x, y: LONGCOMPLEX): BOOLEAN; BEGIN RETURN ABS(x) < ABS(y); END "<";
  8835. OPERATOR ">"*(CONST x, y: LONGCOMPLEX): BOOLEAN; BEGIN RETURN ABS(x) > ABS(y); END ">";
  8836. OPERATOR "ALL"*(CONST x: ARRAY [?] OF SHORTINT; op: PROCEDURE(x: SHORTINT): SHORTINT): ARRAY[?] OF SHORTINT; (*should also accept operator ?*)
  8837. BEGIN
  8838. ApplyGenericUnaryAAOpS(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(SHORTINT),GenericLoopS,op);
  8839. RETURN RESULT;
  8840. END "ALL";
  8841. OPERATOR "ALL"*(CONST x: ARRAY [?] OF INTEGER; op: PROCEDURE(x: INTEGER): INTEGER): ARRAY[?] OF INTEGER; (*should also accept operator ?*)
  8842. BEGIN
  8843. ApplyGenericUnaryAAOpI(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(INTEGER),GenericLoopI,op);
  8844. RETURN RESULT;
  8845. END "ALL";
  8846. OPERATOR "ALL"*(CONST x: ARRAY [?] OF LONGINT; op: PROCEDURE(x: LONGINT): LONGINT): ARRAY[?] OF LONGINT; (*should also accept operator ?*)
  8847. BEGIN
  8848. ApplyGenericUnaryAAOpL(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(LONGINT),GenericLoopL,op);
  8849. RETURN RESULT;
  8850. END "ALL";
  8851. OPERATOR "ALL"*(CONST x: ARRAY [?] OF HUGEINT; op: PROCEDURE(x: HUGEINT): HUGEINT): ARRAY[?] OF HUGEINT; (*should also accept operator ?*)
  8852. BEGIN
  8853. ApplyGenericUnaryAAOpH(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(HUGEINT),GenericLoopH,op);
  8854. RETURN RESULT;
  8855. END "ALL";
  8856. OPERATOR "ALL"*(CONST x: ARRAY [?] OF REAL; op: PROCEDURE(x: REAL): REAL): ARRAY[?] OF REAL; (*should also accept operator ?*)
  8857. BEGIN
  8858. ApplyGenericUnaryAAOpR(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(REAL),GenericLoopR,op);
  8859. RETURN RESULT;
  8860. END "ALL";
  8861. OPERATOR "ALL"*(CONST x: ARRAY [?] OF LONGREAL; op: PROCEDURE(x: LONGREAL): LONGREAL): ARRAY[?] OF LONGREAL; (*should also accept operator ?*)
  8862. BEGIN
  8863. ApplyGenericUnaryAAOpX(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(LONGREAL),GenericLoopX,op);
  8864. RETURN RESULT;
  8865. END "ALL";
  8866. OPERATOR "ALL"*(CONST x: ARRAY [?] OF COMPLEX; op: PROCEDURE(x: COMPLEX): COMPLEX): ARRAY[?] OF COMPLEX; (*should also accept operator ?*)
  8867. BEGIN
  8868. ApplyGenericUnaryAAOpZ(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(COMPLEX),GenericLoopZ,op);
  8869. RETURN RESULT;
  8870. END "ALL";
  8871. OPERATOR "ALL"*(CONST x: ARRAY [?] OF LONGCOMPLEX; op: PROCEDURE(x: LONGCOMPLEX): LONGCOMPLEX): ARRAY[?] OF LONGCOMPLEX; (*should also accept operator ?*)
  8872. BEGIN
  8873. ApplyGenericUnaryAAOpLZ(ADDRESSOF(RESULT),ADDRESSOF(x),SIZEOF(LONGCOMPLEX),GenericLoopLZ,op);
  8874. RETURN RESULT;
  8875. END "ALL";
  8876. BEGIN
  8877. alloc := 0; SetDefaults(); InitOptimization(); (* CreateTypePool; *)
  8878. END FoxArrayBase.
  8879. Compiler.Compile FoxArrayBase.Mod ~
  8880. SystemTools.ListModules