source: Sophya/trunk/Eval/Speed/matrix.cc@ 1088

Last change on this file since 1088 was 991, checked in by ansari, 25 years ago

Creation du module Eval/Speed - Chronometrage de temps CPU pour le
calcul floattant C/C++/Fortran ... Reza 2/5/2000
File size: 12.6 KB
Line 
1#include <stdlib.h>
2#include <stdio.h>
3
4#include <exception>
5#include <string>
6
7#ifdef USEVECSTL
8#include <vector>
9#endif
10
11class MyException : public exception
12{
13public:
14 MyException(const char * msg) { _msg = msg; }
15// ~MyException() { }
16 string Msg() { return(_msg); }
17private:
18string _msg;
19};
20
21template<class T> class Matrix
22{
23 T* data;
24 int siz_x, siz_y, offset, step_x, step_y;
25 int size;
26
27public:
28 Matrix (int sx, int sy, int step=0, int offset=0, bool fg=false);
29 ~Matrix ();
30
31 inline T operator [] (int k) const { return data[k]; }
32 inline T& operator [] (int k) { return data[k]; }
33
34 inline T operator () (int ix, int iy) const { return data[ix+iy*siz_x]; }
35 inline T& operator () (int ix, int iy) { return data[ix+iy*siz_x]; }
36
37 inline T elem (int ix, int iy) const { return data[offset+ix*step_x+iy*step_y]; }
38 inline T& elem (int ix, int iy) { return data[offset+ix*step_x+iy*step_y]; }
39
40 inline T elemCk (int ix, int iy) const
41 { if ((ix < 0) || (ix >= siz_x) || (iy < 0) || (iy >= siz_y))
42 throw MyException("Matrix<T> Out of bound");
43 return data[offset+ix*step_x+iy*step_y]; }
44
45 inline T& elemCk (int ix, int iy)
46 { if ((ix < 0) || (ix >= siz_x) || (iy < 0) || (iy >= siz_y))
47 throw MyException("Matrix<T> Out of bound");
48 return data[offset+ix*step_x+iy*step_y]; }
49
50 inline int getSize () const { return size; }
51 inline int getSizeX () const { return siz_x; }
52 inline int getSizeY () const { return siz_y; }
53
54 // Addition et multiplication en utilisant elem()
55 Matrix<T> * Add(Matrix<T> & v1, Matrix<T> & v2);
56 Matrix<T> * Mult(Matrix<T> & v1, Matrix<T> & v2);
57 // Addition et multiplication en utilisant elemCk()
58 Matrix<T> * AddCk(Matrix<T> & v1, Matrix<T> & v2);
59 Matrix<T> * MultCk(Matrix<T> & v1, Matrix<T> & v2);
60 // Addition et multiplication en utilisant l'operateur []
61 Matrix<T> * AddO1(Matrix<T> & v1, Matrix<T> & v2);
62 Matrix<T> * MultO1(Matrix<T> & v1, Matrix<T> & v2);
63 // Addition et multiplication en utilisant l'operateur ()
64 Matrix<T> * AddO2(Matrix<T> & v1, Matrix<T> & v2);
65 Matrix<T> * MultO2(Matrix<T> & v1, Matrix<T> & v2);
66};
67
68template<class T> Matrix<T>::Matrix (int sx, int sy, int step, int off, bool fg)
69{
70 int k;
71 int s = offset+sx*sy*step;
72 if (s < 1) s = 1;
73 size = s;
74 siz_x = sx;
75 siz_y = sy;
76 offset = off;
77 step_x = step;
78 step_y = step*siz_x;
79 data = new T[size];
80 if (!fg) return;
81
82 T * p = data;
83 for(k=0; k<s; k++) p[k] = (T)0;
84}
85
86template<class T> Matrix<T>::~Matrix()
87{
88delete[] data;
89}
90
91
92
93template<class T> Matrix<T> * Matrix<T>::Add(Matrix<T> &v1, Matrix<T> &v2)
94{
95int i,j;
96
97for (i = 0; i < siz_x; i++)
98 for (j = 0; j < siz_y; j++)
99 elem(i,j) = v1.elem(i,j)+v2.elem(i,j);
100return (this);
101}
102
103template<class T> Matrix<T> * Matrix<T>::Mult(Matrix<T> &v1, Matrix<T> &v2)
104{
105int i,j;
106
107for (i = 0; i < siz_x; i++)
108 for (j = 0; j < siz_y; j++)
109 elem(i,j) = v1.elem(i,j)*v2.elem(i,j);
110return (this);
111}
112
113
114template<class T> Matrix<T> * Matrix<T>::AddCk(Matrix<T> &v1, Matrix<T> &v2)
115{
116int i,j;
117
118for (i = 0; i < siz_x; i++)
119 for (j = 0; j < siz_y; j++)
120 elem(i,j) = v1.elemCk(i,j)+v2.elemCk(i,j);
121return (this);
122}
123
124template<class T> Matrix<T> * Matrix<T>::MultCk(Matrix<T> &v1, Matrix<T> &v2)
125{
126int i,j;
127
128for (i = 0; i < siz_x; i++)
129 for (j = 0; j < siz_y; j++)
130 elem(i,j) = v1.elemCk(i,j)*v2.elemCk(i,j);
131return (this);
132}
133
134template<class T> Matrix<T> * Matrix<T>::AddO1(Matrix<T> &v1, Matrix<T> &v2)
135{
136int i;
137 for (i = 0; i < size; i++) (*this)[i] = v1[i] + v2[i];
138return (this);
139}
140
141template<class T> Matrix<T> * Matrix<T>::MultO1(Matrix<T> &v1, Matrix<T> &v2)
142{
143int i;
144 for (i = 0; i < size; i++) (*this)[i] = v1[i] * v2[i];
145return (this);
146}
147
148template<class T> Matrix<T> * Matrix<T>::AddO2(Matrix<T> &v1, Matrix<T> &v2)
149{
150int i,j;
151
152for (i = 0; i < siz_x; i++)
153 for (j = 0; j < siz_y; j++) (*this)(i,j) = v1(i,j) + v2(i,j);
154return (this);
155}
156
157template<class T> Matrix<T> * Matrix<T>::MultO2(Matrix<T> &v1, Matrix<T> &v2)
158{
159int i,j;
160
161for (i = 0; i < siz_x; i++)
162 for (j = 0; j < siz_y; j++) (*this)(i,j) = v1(i,j) * v2(i,j);
163return (this);
164}
165
166
167extern "C" void InitTim();
168extern "C" void PrtTim(char *Comm);
169
170/* --------------------------------------------------------------------- */
171/* --------------------------- Main Program ---------------------------- */
172/* --------------------------------------------------------------------- */
173
174int main (int narg, char *arg[])
175{
176
177int pos, N, M, Mx, My, Off, Step, OPT, OPE, i;
178
179
180if (narg < 2) {
181 printf("\n Usage: vectorC++ Type(=1,2,3 Int,Float,Double) Ope(=1...10) [N [Mx,My,...] ] \n");
182 printf("Ope: 1=Create/Delete 2=1+FillVect \n");
183 printf("Ope: 3=AddO1 4=MultO1 (Using operator [k]) \n");
184 printf("Ope: 5=AddO2 6=MultO2 (Using operator (i,j)) \n");
185 printf("Ope: 7=Add 8=Mult (Using elem()) \n");
186 printf("Ope: 9=AddCk 10=MultCk (Using elemCk() - with bound checking) \n");
187 printf("N: Number of operations (def= 100) \n");
188 printf("Mx,My,Step,Offset: Matrix size (def= 300,200,1,0) \n\n");
189 exit(0);
190}
191
192 InitTim();
193
194OPT = 1; OPE = 1;
195if (narg > 1) OPT = atoi(arg[1]);
196if ( (OPT < 1) || (OPT > 3) ) OPT = 1;
197
198if (narg > 2) OPE = atoi(arg[2]);
199if ( (OPE < 1) || (OPE > 10) ) OPE = 1;
200
201N = 100;
202if (narg > 3) N = atoi(arg[3]);
203if (N < 1) N = 1;
204if (N > 100000) N = 100000;
205Mx = 300;
206My = 200;
207Off = 0;
208Step = 1;
209if (narg > 4) sscanf(arg[4], "%d,%d,%d,%d", &Mx, &My, &Step, &Off);
210if (Mx < 100) Mx = 100;
211if (My < 100) My = 100;
212if (Mx > 10000) Mx = 10000;
213if (My > 10000) My = 10000;
214if (Step < 1) Step = 1;
215if (Step > 5) Step = 5;
216if (Off < 0) Off = 0;
217if (Off > 1000) Off = 1000;
218
219M = Mx*My*Step;
220
221
222printf(" MatrixC++ TestSpeed Typ=%d Ope=%d N=%d MSz=%d\n", OPT, OPE, N,M);
223printf(" Matrix Size X= %d Y = %d Step= %d Offset= %d \n", Mx, My, Step, Off);
224if (OPE < 3) { /* Test creation / destruction */
225int fg = OPE-1;
226bool fgf = (fg != 0) ? true : false;
227printf("\n\n Test new/delete Matrix<T> - fg= %d ( <> 0 ---> FillVec) \n", fg);
228 switch (OPT)
229 {
230 case 1 :
231 {
232 Matrix<int> * v;
233 printf("Test %d new/delete Matrix<int>[%d] \n",N,M);
234 for(i=0; i<N; i++) {
235 v = new Matrix<int>(Mx, My, Step, Off, fgf);
236 delete v;
237 }
238 }
239 break;
240 case 2 :
241 {
242 Matrix<float> * v;
243 printf("Test %d new/delete Matrix<float>[%d] \n",N,M);
244 for(i=0; i<N; i++) {
245 v = new Matrix<float>(Mx, My, Step, Off, fgf);
246 delete v;
247 }
248 }
249 break;
250 case 3 :
251 {
252 Matrix<double> * v;
253 printf("Test %d new/delete Matrix<double>[%d] \n",N,M);
254 for(i=0; i<N; i++) {
255 v = new Matrix<double>(Mx, My, Step, Off, fgf);
256 delete v;
257 }
258 }
259 break;
260 }
261 PrtTim("Fin New/Delete ");
262 printf(" .......... Fin de MatrixC++ ........... \n");
263 return (0);
264}
265
266// ---------- Test Addition, Multiplication -------------
267
268switch (OPT)
269 {
270 case 1 :
271 {
272 printf("\n\n Test %d operations Matrix<int>[%d] \n",N,M);
273
274 Matrix<int> *v1,*v2,*v3;
275 v1 = new Matrix<int>(Mx, My, Step, Off);
276 v2 = new Matrix<int>(Mx, My, Step, Off);
277 v3 = new Matrix<int>(Mx, My, Step, Off);
278 PrtTim("Fin_Creation ");
279
280 for(pos=0; pos<M; pos++)
281 { (*v1)[pos] = random()%1000;
282 (*v2)[pos] = random()%5000; }
283
284 PrtTim("Fin remplissage ");
285
286 if (OPE == 3) {
287 for(pos=0; pos<N; pos++)
288 v3->AddO1(*v1, *v2);
289 PrtTim("Fin Addition AddO1 operator [k]");
290 }
291 else if (OPE == 4) {
292 for(pos=0; pos<N; pos++)
293 v3->MultO1(*v1, *v2);
294 PrtTim("Fin Multiplication MultO1 operator [k]");
295 }
296 else if (OPE == 5) {
297 for(pos=0; pos<N; pos++)
298 v3->AddO2(*v1, *v2);
299 PrtTim("Fin Addition AddO2 operator (i,j)");
300 }
301 else if (OPE == 6) {
302 for(pos=0; pos<N; pos++)
303 v3->MultO2(*v1, *v2);
304 PrtTim("Fin Multiplication MultO2 operator (i,j)");
305 }
306 else if (OPE == 7) {
307 for(pos=0; pos<N; pos++)
308 v3->Add(*v1, *v2);
309 PrtTim("Fin Addition Add");
310 }
311 else if (OPE == 8) {
312 for(pos=0; pos<N; pos++)
313 v3->Mult(*v1, *v2);
314 PrtTim("Fin Multiplication Mult");
315 }
316 else if (OPE == 9) {
317 for(pos=0; pos<N; pos++)
318 v3->AddCk(*v1, *v2);
319 PrtTim("Fin Addition AddCk");
320 }
321 else if (OPE == 10) {
322 for(pos=0; pos<N; pos++)
323 v3->MultCk(*v1, *v2);
324 PrtTim("Fin Multiplication MultCk");
325 }
326
327 printf("Result[1.2] I1= %d %d I2= %d %d I3= %d %d \n",
328 v1->elem(1,0),v1->elem(2,0), v2->elem(1,0),v2->elem(2,0),
329 v3->elem(1,0),v3->elem(2,0));
330 printf("ResAdd[991-2] I1= %d %d I2= %d %d I3= %d %d \n",
331 v1->elem(991,0),v1->elem(992,0), v2->elem(991,0),v2->elem(992,0),
332 v3->elem(991,0),v3->elem(992,0));
333 }
334 break;
335
336 case 2 :
337 {
338 printf("\n\n Test %d operations Matrix<float>[%d] \n",N,M);
339 Matrix<float> *v1,*v2,*v3;
340 v1 = new Matrix<float>(Mx, My, Step, Off);
341 v2 = new Matrix<float>(Mx, My, Step, Off);
342 v3 = new Matrix<float>(Mx, My, Step, Off);
343 PrtTim("Fin_Creation ");
344
345 for(pos=0; pos<M; pos++)
346 { (*v1)[pos] = (float)(random()%1000)/250.;
347 (*v2)[pos] = (float)(random()%5000)/250.; }
348
349 PrtTim("Fin remplissage ");
350
351 if (OPE == 3) {
352 for(pos=0; pos<N; pos++)
353 v3->AddO1(*v1, *v2);
354 PrtTim("Fin Addition AddO1 operator [k]");
355 }
356 else if (OPE == 4) {
357 for(pos=0; pos<N; pos++)
358 v3->MultO1(*v1, *v2);
359 PrtTim("Fin Multiplication MultO1 operator [k]");
360 }
361 else if (OPE == 5) {
362 for(pos=0; pos<N; pos++)
363 v3->AddO2(*v1, *v2);
364 PrtTim("Fin Addition AddO2 operator (i,j)");
365 }
366 else if (OPE == 6) {
367 for(pos=0; pos<N; pos++)
368 v3->MultO2(*v1, *v2);
369 PrtTim("Fin Multiplication MultO2 operator (i,j)");
370 }
371 else if (OPE == 7) {
372 for(pos=0; pos<N; pos++)
373 v3->Add(*v1, *v2);
374 PrtTim("Fin Addition Add");
375 }
376 else if (OPE == 8) {
377 for(pos=0; pos<N; pos++)
378 v3->Mult(*v1, *v2);
379 PrtTim("Fin Multiplication Mult");
380 }
381 else if (OPE == 9) {
382 for(pos=0; pos<N; pos++)
383 v3->AddCk(*v1, *v2);
384 PrtTim("Fin Addition AddCk");
385 }
386 else if (OPE == 10) {
387 for(pos=0; pos<N; pos++)
388 v3->MultCk(*v1, *v2);
389 PrtTim("Fin Multiplication MultCk");
390 }
391
392 printf("Result[1.2] F1= %g %g F2= %g %g F3= %g %g \n",
393 v1->elem(1,0),v1->elem(2,0), v2->elem(1,0),v2->elem(2,0),
394 v3->elem(1,0),v3->elem(2,0));
395 printf("Result[991-2] F1= %g %g F2= %g %g F3= %g %g \n",
396 v1->elem(991,0),v1->elem(992,0), v2->elem(991,0),v2->elem(992,0),
397 v3->elem(991,0),v3->elem(992,0));
398 }
399 break;
400
401 case 3 :
402 {
403 printf("\n\n Test %d operations Matrix<double>[%d] \n",N,M);
404 Matrix<double> *v1,*v2,*v3;
405 v1 = new Matrix<double>(Mx, My, Step, Off);
406 v2 = new Matrix<double>(Mx, My, Step, Off);
407 v3 = new Matrix<double>(Mx, My, Step, Off);
408 PrtTim("Fin_Creation ");
409
410
411 if (OPE == 3) {
412 for(pos=0; pos<N; pos++)
413 v3->AddO1(*v1, *v2);
414 PrtTim("Fin Addition AddO1 operator [k]");
415 }
416 else if (OPE == 4) {
417 for(pos=0; pos<N; pos++)
418 v3->MultO1(*v1, *v2);
419 PrtTim("Fin Multiplication MultO1 operator [k]");
420 }
421 else if (OPE == 5) {
422 for(pos=0; pos<N; pos++)
423 v3->AddO2(*v1, *v2);
424 PrtTim("Fin Addition AddO2 operator (i,j)");
425 }
426 else if (OPE == 6) {
427 for(pos=0; pos<N; pos++)
428 v3->MultO2(*v1, *v2);
429 PrtTim("Fin Multiplication MultO2 operator (i,j)");
430 }
431 else if (OPE == 7) {
432 for(pos=0; pos<N; pos++)
433 v3->Add(*v1, *v2);
434 PrtTim("Fin Addition Add");
435 }
436 else if (OPE == 8) {
437 for(pos=0; pos<N; pos++)
438 v3->Mult(*v1, *v2);
439 PrtTim("Fin Multiplication Mult");
440 }
441 else if (OPE == 9) {
442 for(pos=0; pos<N; pos++)
443 v3->AddCk(*v1, *v2);
444 PrtTim("Fin Addition AddCk");
445 }
446 else if (OPE == 10) {
447 for(pos=0; pos<N; pos++)
448 v3->MultCk(*v1, *v2);
449 PrtTim("Fin Multiplication MultCk");
450 }
451
452
453 printf("Result[1.2] D1= %g %g D2= %g %g D3= %g %g \n",
454 v1->elem(1,0),v1->elem(2,0), v2->elem(1,0),v2->elem(2,0),
455 v3->elem(1,0),v3->elem(2,0));
456 printf("Result[991-2] D1= %g %g D2= %g %g D3= %g %g \n",
457 v1->elem(991,0),v1->elem(992,0), v2->elem(991,0),v2->elem(992,0),
458 v3->elem(991,0),v3->elem(992,0));
459 }
460 break;
461
462 default:
463 puts("Erreur d'option !");
464 break;
465 }
466
467
468
469PrtTim("Fin de Matrix/C++ ");
470printf(" .......... Fin de MatrixC++ ........... \n");
471return (0);
472}
473
474/*
475#ifdef DECCXX
476#pragma define_template Matrix<int>
477#pragma define_template Matrix<float>
478#pragma define_template Matrix<double>
479#endif
480
481#if defined(GNUGCC) || defined (HPaCC)
482template class Matrix<int>;
483template class Matrix<float>;
484template class Matrix<double>;
485#endif
486
487*/
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