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April 7, 2017 08:49
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VSX.c
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| #ifdef __PPC64__ | |
| #include <altivec.h> | |
| #include <stddef.h> | |
| //-------------------------------------------------------------------------------------------------- | |
| // THDoubleVector_fill_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THDoubleVector_fill_VSX(double *x, const double c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| double val[2] = {c, c}; | |
| vector double fp64vec2 = vec_xl(0, val); | |
| for (i = 0; i <= n-128; i += 128) | |
| { | |
| vec_xst(fp64vec2, 0, x+(i )); | |
| vec_xst(fp64vec2, 0, x+(i+2 )); | |
| vec_xst(fp64vec2, 0, x+(i+4 )); | |
| vec_xst(fp64vec2, 0, x+(i+6 )); | |
| vec_xst(fp64vec2, 0, x+(i+8 )); | |
| vec_xst(fp64vec2, 0, x+(i+10 )); | |
| vec_xst(fp64vec2, 0, x+(i+12 )); | |
| vec_xst(fp64vec2, 0, x+(i+14 )); | |
| vec_xst(fp64vec2, 0, x+(i+16 )); | |
| vec_xst(fp64vec2, 0, x+(i+18 )); | |
| vec_xst(fp64vec2, 0, x+(i+20 )); | |
| vec_xst(fp64vec2, 0, x+(i+22 )); | |
| vec_xst(fp64vec2, 0, x+(i+24 )); | |
| vec_xst(fp64vec2, 0, x+(i+26 )); | |
| vec_xst(fp64vec2, 0, x+(i+28 )); | |
| vec_xst(fp64vec2, 0, x+(i+30 )); | |
| vec_xst(fp64vec2, 0, x+(i+32 )); | |
| vec_xst(fp64vec2, 0, x+(i+34 )); | |
| vec_xst(fp64vec2, 0, x+(i+36 )); | |
| vec_xst(fp64vec2, 0, x+(i+38 )); | |
| vec_xst(fp64vec2, 0, x+(i+40 )); | |
| vec_xst(fp64vec2, 0, x+(i+42 )); | |
| vec_xst(fp64vec2, 0, x+(i+44 )); | |
| vec_xst(fp64vec2, 0, x+(i+46 )); | |
| vec_xst(fp64vec2, 0, x+(i+48 )); | |
| vec_xst(fp64vec2, 0, x+(i+50 )); | |
| vec_xst(fp64vec2, 0, x+(i+52 )); | |
| vec_xst(fp64vec2, 0, x+(i+54 )); | |
| vec_xst(fp64vec2, 0, x+(i+56 )); | |
| vec_xst(fp64vec2, 0, x+(i+58 )); | |
| vec_xst(fp64vec2, 0, x+(i+60 )); | |
| vec_xst(fp64vec2, 0, x+(i+62 )); | |
| vec_xst(fp64vec2, 0, x+(i+64 )); | |
| vec_xst(fp64vec2, 0, x+(i+66 )); | |
| vec_xst(fp64vec2, 0, x+(i+68 )); | |
| vec_xst(fp64vec2, 0, x+(i+70 )); | |
| vec_xst(fp64vec2, 0, x+(i+72 )); | |
| vec_xst(fp64vec2, 0, x+(i+74 )); | |
| vec_xst(fp64vec2, 0, x+(i+76 )); | |
| vec_xst(fp64vec2, 0, x+(i+78 )); | |
| vec_xst(fp64vec2, 0, x+(i+80 )); | |
| vec_xst(fp64vec2, 0, x+(i+82 )); | |
| vec_xst(fp64vec2, 0, x+(i+84 )); | |
| vec_xst(fp64vec2, 0, x+(i+86 )); | |
| vec_xst(fp64vec2, 0, x+(i+88 )); | |
| vec_xst(fp64vec2, 0, x+(i+90 )); | |
| vec_xst(fp64vec2, 0, x+(i+92 )); | |
| vec_xst(fp64vec2, 0, x+(i+94 )); | |
| vec_xst(fp64vec2, 0, x+(i+96 )); | |
| vec_xst(fp64vec2, 0, x+(i+98 )); | |
| vec_xst(fp64vec2, 0, x+(i+100)); | |
| vec_xst(fp64vec2, 0, x+(i+102)); | |
| vec_xst(fp64vec2, 0, x+(i+104)); | |
| vec_xst(fp64vec2, 0, x+(i+106)); | |
| vec_xst(fp64vec2, 0, x+(i+108)); | |
| vec_xst(fp64vec2, 0, x+(i+110)); | |
| vec_xst(fp64vec2, 0, x+(i+112)); | |
| vec_xst(fp64vec2, 0, x+(i+114)); | |
| vec_xst(fp64vec2, 0, x+(i+116)); | |
| vec_xst(fp64vec2, 0, x+(i+118)); | |
| vec_xst(fp64vec2, 0, x+(i+120)); | |
| vec_xst(fp64vec2, 0, x+(i+122)); | |
| vec_xst(fp64vec2, 0, x+(i+124)); | |
| vec_xst(fp64vec2, 0, x+(i+126)); | |
| } | |
| for (; i <= n-16; i += 16) | |
| { | |
| vec_xst(fp64vec2, 0, x+(i )); | |
| vec_xst(fp64vec2, 0, x+(i+2 )); | |
| vec_xst(fp64vec2, 0, x+(i+4 )); | |
| vec_xst(fp64vec2, 0, x+(i+6 )); | |
| vec_xst(fp64vec2, 0, x+(i+8 )); | |
| vec_xst(fp64vec2, 0, x+(i+10 )); | |
| vec_xst(fp64vec2, 0, x+(i+12 )); | |
| vec_xst(fp64vec2, 0, x+(i+14 )); | |
| } | |
| for (; i <= n-2; i += 2) | |
| vec_xst(fp64vec2, 0, x+(i )); | |
| for (; i < n; i++) | |
| x[i] = c; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THDoubleVector_cadds_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THDoubleVector_cadd_VSX(double *z, const double *x, const double *y, const double c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| double val[2] = {c, c}; | |
| vector double c_fp64vec2 = vec_xl(0, val); | |
| vector double y0_fp64vec2, y1_fp64vec2, y2_fp64vec2, y3_fp64vec2, y4_fp64vec2, y5_fp64vec2, y6_fp64vec2, y7_fp64vec2; | |
| vector double y8_fp64vec2, y9_fp64vec2, y10_fp64vec2, y11_fp64vec2; | |
| vector double x0_fp64vec2, x1_fp64vec2, x2_fp64vec2, x3_fp64vec2, x4_fp64vec2, x5_fp64vec2, x6_fp64vec2, x7_fp64vec2; | |
| vector double x8_fp64vec2, x9_fp64vec2, x10_fp64vec2, x11_fp64vec2; | |
| for (i = 0; i <= n-24; i += 24) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| y1_fp64vec2 = vec_xl(0, y+(i+2 )); | |
| y2_fp64vec2 = vec_xl(0, y+(i+4 )); | |
| y3_fp64vec2 = vec_xl(0, y+(i+6 )); | |
| y4_fp64vec2 = vec_xl(0, y+(i+8 )); | |
| y5_fp64vec2 = vec_xl(0, y+(i+10)); | |
| y6_fp64vec2 = vec_xl(0, y+(i+12)); | |
| y7_fp64vec2 = vec_xl(0, y+(i+14)); | |
| y8_fp64vec2 = vec_xl(0, y+(i+16)); | |
| y9_fp64vec2 = vec_xl(0, y+(i+18)); | |
| y10_fp64vec2 = vec_xl(0, y+(i+20)); | |
| y11_fp64vec2 = vec_xl(0, y+(i+22)); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| x4_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x5_fp64vec2 = vec_xl(0, x+(i+10)); | |
| x6_fp64vec2 = vec_xl(0, x+(i+12)); | |
| x7_fp64vec2 = vec_xl(0, x+(i+14)); | |
| x8_fp64vec2 = vec_xl(0, x+(i+16)); | |
| x9_fp64vec2 = vec_xl(0, x+(i+18)); | |
| x10_fp64vec2 = vec_xl(0, x+(i+20)); | |
| x11_fp64vec2 = vec_xl(0, x+(i+22)); | |
| y0_fp64vec2 = vec_madd(y0_fp64vec2, c_fp64vec2, x0_fp64vec2); | |
| y1_fp64vec2 = vec_madd(y1_fp64vec2, c_fp64vec2, x1_fp64vec2); | |
| y2_fp64vec2 = vec_madd(y2_fp64vec2, c_fp64vec2, x2_fp64vec2); | |
| y3_fp64vec2 = vec_madd(y3_fp64vec2, c_fp64vec2, x3_fp64vec2); | |
| y4_fp64vec2 = vec_madd(y4_fp64vec2, c_fp64vec2, x4_fp64vec2); | |
| y5_fp64vec2 = vec_madd(y5_fp64vec2, c_fp64vec2, x5_fp64vec2); | |
| y6_fp64vec2 = vec_madd(y6_fp64vec2, c_fp64vec2, x6_fp64vec2); | |
| y7_fp64vec2 = vec_madd(y7_fp64vec2, c_fp64vec2, x7_fp64vec2); | |
| y8_fp64vec2 = vec_madd(y8_fp64vec2, c_fp64vec2, x8_fp64vec2); | |
| y9_fp64vec2 = vec_madd(y9_fp64vec2, c_fp64vec2, x9_fp64vec2); | |
| y10_fp64vec2 = vec_madd(y10_fp64vec2, c_fp64vec2,x10_fp64vec2); | |
| y11_fp64vec2 = vec_madd(y11_fp64vec2, c_fp64vec2,x11_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| vec_xst(y1_fp64vec2, 0, z+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, z+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, z+(i+6 )); | |
| vec_xst(y4_fp64vec2, 0, z+(i+8 )); | |
| vec_xst(y5_fp64vec2, 0, z+(i+10)); | |
| vec_xst(y6_fp64vec2, 0, z+(i+12)); | |
| vec_xst(y7_fp64vec2, 0, z+(i+14)); | |
| vec_xst(y8_fp64vec2, 0, z+(i+16)); | |
| vec_xst(y9_fp64vec2, 0, z+(i+18)); | |
| vec_xst(y10_fp64vec2, 0, z+(i+20)); | |
| vec_xst(y11_fp64vec2, 0, z+(i+22)); | |
| } | |
| for (; i <= n-8; i += 8) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| y1_fp64vec2 = vec_xl(0, y+(i+2 )); | |
| y2_fp64vec2 = vec_xl(0, y+(i+4 )); | |
| y3_fp64vec2 = vec_xl(0, y+(i+6 )); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| y0_fp64vec2 = vec_madd(y0_fp64vec2, c_fp64vec2, x0_fp64vec2); | |
| y1_fp64vec2 = vec_madd(y1_fp64vec2, c_fp64vec2, x1_fp64vec2); | |
| y2_fp64vec2 = vec_madd(y2_fp64vec2, c_fp64vec2, x2_fp64vec2); | |
| y3_fp64vec2 = vec_madd(y3_fp64vec2, c_fp64vec2, x3_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| vec_xst(y1_fp64vec2, 0, z+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, z+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, z+(i+6 )); | |
| } | |
| for (; i <= n-2; i += 2) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| y0_fp64vec2 = vec_madd(y0_fp64vec2, c_fp64vec2, x0_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| } | |
| for (; i < n; i++) | |
| z[i] = x[i] + c* y[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THDoubleVector_adds_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THDoubleVector_adds_VSX(double *y, const double *x, const double c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| double val[2] = {c, c}; | |
| vector double c_fp64vec2 = vec_xl(0, val); | |
| vector double y0_fp64vec2, y1_fp64vec2, y2_fp64vec2, y3_fp64vec2, y4_fp64vec2, y5_fp64vec2, y6_fp64vec2, y7_fp64vec2; | |
| vector double y8_fp64vec2, y9_fp64vec2, y10_fp64vec2, y11_fp64vec2; | |
| vector double x0_fp64vec2, x1_fp64vec2, x2_fp64vec2, x3_fp64vec2, x4_fp64vec2, x5_fp64vec2, x6_fp64vec2, x7_fp64vec2; | |
| vector double x8_fp64vec2, x9_fp64vec2, x10_fp64vec2, x11_fp64vec2; | |
| for (i = 0; i <= n-24; i += 24) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| x4_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x5_fp64vec2 = vec_xl(0, x+(i+10)); | |
| x6_fp64vec2 = vec_xl(0, x+(i+12)); | |
| x7_fp64vec2 = vec_xl(0, x+(i+14)); | |
| x8_fp64vec2 = vec_xl(0, x+(i+16)); | |
| x9_fp64vec2 = vec_xl(0, x+(i+18)); | |
| x10_fp64vec2 = vec_xl(0, x+(i+20)); | |
| x11_fp64vec2 = vec_xl(0, x+(i+22)); | |
| y0_fp64vec2 = vec_add(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_add(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_add(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_add(x3_fp64vec2, c_fp64vec2); | |
| y4_fp64vec2 = vec_add(x4_fp64vec2, c_fp64vec2); | |
| y5_fp64vec2 = vec_add(x5_fp64vec2, c_fp64vec2); | |
| y6_fp64vec2 = vec_add(x6_fp64vec2, c_fp64vec2); | |
| y7_fp64vec2 = vec_add(x7_fp64vec2, c_fp64vec2); | |
| y8_fp64vec2 = vec_add(x8_fp64vec2, c_fp64vec2); | |
| y9_fp64vec2 = vec_add(x9_fp64vec2, c_fp64vec2); | |
| y10_fp64vec2 = vec_add(x10_fp64vec2, c_fp64vec2); | |
| y11_fp64vec2 = vec_add(x11_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+6 )); | |
| vec_xst(y4_fp64vec2, 0, y+(i+8 )); | |
| vec_xst(y5_fp64vec2, 0, y+(i+10)); | |
| vec_xst(y6_fp64vec2, 0, y+(i+12)); | |
| vec_xst(y7_fp64vec2, 0, y+(i+14)); | |
| vec_xst(y8_fp64vec2, 0, y+(i+16)); | |
| vec_xst(y9_fp64vec2, 0, y+(i+18)); | |
| vec_xst(y10_fp64vec2, 0, y+(i+20)); | |
| vec_xst(y11_fp64vec2, 0, y+(i+22)); | |
| } | |
| for (; i <= n-8; i += 8) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| y0_fp64vec2 = vec_add(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_add(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_add(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_add(x3_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+6 )); | |
| } | |
| for (; i <= n-2; i += 2) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| y0_fp64vec2 = vec_add(x0_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| } | |
| for (; i < n; i++) | |
| y[i] = x[i] +c; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THDoubleVector_cmul_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THDoubleVector_cmul_VSX(double *z, const double *x, const double *y, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| vector double y0_fp64vec2, y1_fp64vec2, y2_fp64vec2, y3_fp64vec2, y4_fp64vec2, y5_fp64vec2, y6_fp64vec2, y7_fp64vec2; | |
| vector double y8_fp64vec2, y9_fp64vec2, y10_fp64vec2, y11_fp64vec2; | |
| vector double x0_fp64vec2, x1_fp64vec2, x2_fp64vec2, x3_fp64vec2, x4_fp64vec2, x5_fp64vec2, x6_fp64vec2, x7_fp64vec2; | |
| vector double x8_fp64vec2, x9_fp64vec2, x10_fp64vec2, x11_fp64vec2; | |
| for (i = 0; i <= n-24; i += 24) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| y1_fp64vec2 = vec_xl(0, y+(i+2 )); | |
| y2_fp64vec2 = vec_xl(0, y+(i+4 )); | |
| y3_fp64vec2 = vec_xl(0, y+(i+6 )); | |
| y4_fp64vec2 = vec_xl(0, y+(i+8 )); | |
| y5_fp64vec2 = vec_xl(0, y+(i+10)); | |
| y6_fp64vec2 = vec_xl(0, y+(i+12)); | |
| y7_fp64vec2 = vec_xl(0, y+(i+14)); | |
| y8_fp64vec2 = vec_xl(0, y+(i+16)); | |
| y9_fp64vec2 = vec_xl(0, y+(i+18)); | |
| y10_fp64vec2 = vec_xl(0, y+(i+20)); | |
| y11_fp64vec2 = vec_xl(0, y+(i+22)); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| x4_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x5_fp64vec2 = vec_xl(0, x+(i+10)); | |
| x6_fp64vec2 = vec_xl(0, x+(i+12)); | |
| x7_fp64vec2 = vec_xl(0, x+(i+14)); | |
| x8_fp64vec2 = vec_xl(0, x+(i+16)); | |
| x9_fp64vec2 = vec_xl(0, x+(i+18)); | |
| x10_fp64vec2 = vec_xl(0, x+(i+20)); | |
| x11_fp64vec2 = vec_xl(0, x+(i+22)); | |
| y0_fp64vec2 = vec_mul(y0_fp64vec2, x0_fp64vec2); | |
| y1_fp64vec2 = vec_mul(y1_fp64vec2, x1_fp64vec2); | |
| y2_fp64vec2 = vec_mul(y2_fp64vec2, x2_fp64vec2); | |
| y3_fp64vec2 = vec_mul(y3_fp64vec2, x3_fp64vec2); | |
| y4_fp64vec2 = vec_mul(y4_fp64vec2, x4_fp64vec2); | |
| y5_fp64vec2 = vec_mul(y5_fp64vec2, x5_fp64vec2); | |
| y6_fp64vec2 = vec_mul(y6_fp64vec2, x6_fp64vec2); | |
| y7_fp64vec2 = vec_mul(y7_fp64vec2, x7_fp64vec2); | |
| y8_fp64vec2 = vec_mul(y8_fp64vec2, x8_fp64vec2); | |
| y9_fp64vec2 = vec_mul(y9_fp64vec2, x9_fp64vec2); | |
| y10_fp64vec2 = vec_mul(y10_fp64vec2, x10_fp64vec2); | |
| y11_fp64vec2 = vec_mul(y11_fp64vec2, x11_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| vec_xst(y1_fp64vec2, 0, z+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, z+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, z+(i+6 )); | |
| vec_xst(y4_fp64vec2, 0, z+(i+8 )); | |
| vec_xst(y5_fp64vec2, 0, z+(i+10)); | |
| vec_xst(y6_fp64vec2, 0, z+(i+12)); | |
| vec_xst(y7_fp64vec2, 0, z+(i+14)); | |
| vec_xst(y8_fp64vec2, 0, z+(i+16)); | |
| vec_xst(y9_fp64vec2, 0, z+(i+18)); | |
| vec_xst(y10_fp64vec2, 0, z+(i+20)); | |
| vec_xst(y11_fp64vec2, 0, z+(i+22)); | |
| } | |
| for (; i <= n-8; i += 8) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| y1_fp64vec2 = vec_xl(0, y+(i+2 )); | |
| y2_fp64vec2 = vec_xl(0, y+(i+4 )); | |
| y3_fp64vec2 = vec_xl(0, y+(i+6 )); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| y0_fp64vec2 = vec_mul(y0_fp64vec2, x0_fp64vec2); | |
| y1_fp64vec2 = vec_mul(y1_fp64vec2, x1_fp64vec2); | |
| y2_fp64vec2 = vec_mul(y2_fp64vec2, x2_fp64vec2); | |
| y3_fp64vec2 = vec_mul(y3_fp64vec2, x3_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| vec_xst(y1_fp64vec2, 0, z+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, z+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, z+(i+6 )); | |
| } | |
| for (; i <= n-2; i += 2) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| y0_fp64vec2 = vec_mul(y0_fp64vec2, x0_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| } | |
| for (; i < n; i++) | |
| z[i] = x[i] * y[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THDoubleVector_muls_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THDoubleVector_muls_VSX(double *y, const double *x, const double c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| double val[2] = {c, c}; | |
| vector double c_fp64vec2 = vec_xl(0, val); | |
| vector double y0_fp64vec2, y1_fp64vec2, y2_fp64vec2, y3_fp64vec2, y4_fp64vec2, y5_fp64vec2, y6_fp64vec2, y7_fp64vec2; | |
| vector double y8_fp64vec2, y9_fp64vec2, y10_fp64vec2, y11_fp64vec2; | |
| vector double x0_fp64vec2, x1_fp64vec2, x2_fp64vec2, x3_fp64vec2, x4_fp64vec2, x5_fp64vec2, x6_fp64vec2, x7_fp64vec2; | |
| vector double x8_fp64vec2, x9_fp64vec2, x10_fp64vec2, x11_fp64vec2; | |
| for (i = 0; i <= n-24; i += 24) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| x4_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x5_fp64vec2 = vec_xl(0, x+(i+10)); | |
| x6_fp64vec2 = vec_xl(0, x+(i+12)); | |
| x7_fp64vec2 = vec_xl(0, x+(i+14)); | |
| x8_fp64vec2 = vec_xl(0, x+(i+16)); | |
| x9_fp64vec2 = vec_xl(0, x+(i+18)); | |
| x10_fp64vec2 = vec_xl(0, x+(i+20)); | |
| x11_fp64vec2 = vec_xl(0, x+(i+22)); | |
| y0_fp64vec2 = vec_mul(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_mul(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_mul(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_mul(x3_fp64vec2, c_fp64vec2); | |
| y4_fp64vec2 = vec_mul(x4_fp64vec2, c_fp64vec2); | |
| y5_fp64vec2 = vec_mul(x5_fp64vec2, c_fp64vec2); | |
| y6_fp64vec2 = vec_mul(x6_fp64vec2, c_fp64vec2); | |
| y7_fp64vec2 = vec_mul(x7_fp64vec2, c_fp64vec2); | |
| y8_fp64vec2 = vec_mul(x8_fp64vec2, c_fp64vec2); | |
| y9_fp64vec2 = vec_mul(x9_fp64vec2, c_fp64vec2); | |
| y10_fp64vec2 = vec_mul(x10_fp64vec2, c_fp64vec2); | |
| y11_fp64vec2 = vec_mul(x11_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+6 )); | |
| vec_xst(y4_fp64vec2, 0, y+(i+8 )); | |
| vec_xst(y5_fp64vec2, 0, y+(i+10)); | |
| vec_xst(y6_fp64vec2, 0, y+(i+12)); | |
| vec_xst(y7_fp64vec2, 0, y+(i+14)); | |
| vec_xst(y8_fp64vec2, 0, y+(i+16)); | |
| vec_xst(y9_fp64vec2, 0, y+(i+18)); | |
| vec_xst(y10_fp64vec2, 0, y+(i+20)); | |
| vec_xst(y11_fp64vec2, 0, y+(i+22)); | |
| } | |
| for (; i <= n-8; i += 8) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| y0_fp64vec2 = vec_mul(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_mul(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_mul(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_mul(x3_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+6 )); | |
| } | |
| for (; i <= n-2; i += 2) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| y0_fp64vec2 = vec_mul(x0_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| } | |
| for (; i < n; i++) | |
| y[i] = c * x[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THDoubleVector_cdiv_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THDoubleVector_cdiv_VSX(double *z, const double *x, const double *y, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| vector double y0_fp64vec2, y1_fp64vec2, y2_fp64vec2, y3_fp64vec2, y4_fp64vec2, y5_fp64vec2, y6_fp64vec2, y7_fp64vec2; | |
| vector double y8_fp64vec2, y9_fp64vec2, y10_fp64vec2, y11_fp64vec2; | |
| vector double x0_fp64vec2, x1_fp64vec2, x2_fp64vec2, x3_fp64vec2, x4_fp64vec2, x5_fp64vec2, x6_fp64vec2, x7_fp64vec2; | |
| vector double x8_fp64vec2, x9_fp64vec2, x10_fp64vec2, x11_fp64vec2; | |
| for (i = 0; i <= n-24; i += 24) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| y1_fp64vec2 = vec_xl(0, y+(i+2 )); | |
| y2_fp64vec2 = vec_xl(0, y+(i+4 )); | |
| y3_fp64vec2 = vec_xl(0, y+(i+6 )); | |
| y4_fp64vec2 = vec_xl(0, y+(i+8 )); | |
| y5_fp64vec2 = vec_xl(0, y+(i+10)); | |
| y6_fp64vec2 = vec_xl(0, y+(i+12)); | |
| y7_fp64vec2 = vec_xl(0, y+(i+14)); | |
| y8_fp64vec2 = vec_xl(0, y+(i+16)); | |
| y9_fp64vec2 = vec_xl(0, y+(i+18)); | |
| y10_fp64vec2 = vec_xl(0, y+(i+20)); | |
| y11_fp64vec2 = vec_xl(0, y+(i+22)); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| x4_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x5_fp64vec2 = vec_xl(0, x+(i+10)); | |
| x6_fp64vec2 = vec_xl(0, x+(i+12)); | |
| x7_fp64vec2 = vec_xl(0, x+(i+14)); | |
| x8_fp64vec2 = vec_xl(0, x+(i+16)); | |
| x9_fp64vec2 = vec_xl(0, x+(i+18)); | |
| x10_fp64vec2 = vec_xl(0, x+(i+20)); | |
| x11_fp64vec2 = vec_xl(0, x+(i+22)); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, y0_fp64vec2); | |
| y1_fp64vec2 = vec_div(x1_fp64vec2, y1_fp64vec2); | |
| y2_fp64vec2 = vec_div(x2_fp64vec2, y2_fp64vec2); | |
| y3_fp64vec2 = vec_div(x3_fp64vec2, y3_fp64vec2); | |
| y4_fp64vec2 = vec_div(x4_fp64vec2, y4_fp64vec2); | |
| y5_fp64vec2 = vec_div(x5_fp64vec2, y5_fp64vec2); | |
| y6_fp64vec2 = vec_div(x6_fp64vec2, y6_fp64vec2); | |
| y7_fp64vec2 = vec_div(x7_fp64vec2, y7_fp64vec2); | |
| y8_fp64vec2 = vec_div(x8_fp64vec2, y8_fp64vec2); | |
| y9_fp64vec2 = vec_div(x9_fp64vec2, y9_fp64vec2); | |
| y10_fp64vec2 = vec_div(x10_fp64vec2, y10_fp64vec2); | |
| y11_fp64vec2 = vec_div(x11_fp64vec2, y11_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| vec_xst(y1_fp64vec2, 0, z+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, z+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, z+(i+6 )); | |
| vec_xst(y4_fp64vec2, 0, z+(i+8 )); | |
| vec_xst(y5_fp64vec2, 0, z+(i+10)); | |
| vec_xst(y6_fp64vec2, 0, z+(i+12)); | |
| vec_xst(y7_fp64vec2, 0, z+(i+14)); | |
| vec_xst(y8_fp64vec2, 0, z+(i+16)); | |
| vec_xst(y9_fp64vec2, 0, z+(i+18)); | |
| vec_xst(y10_fp64vec2, 0, z+(i+20)); | |
| vec_xst(y11_fp64vec2, 0, z+(i+22)); | |
| } | |
| for (; i <= n-8; i += 8) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| y1_fp64vec2 = vec_xl(0, y+(i+2 )); | |
| y2_fp64vec2 = vec_xl(0, y+(i+4 )); | |
| y3_fp64vec2 = vec_xl(0, y+(i+6 )); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, y0_fp64vec2); | |
| y1_fp64vec2 = vec_div(x1_fp64vec2, y1_fp64vec2); | |
| y2_fp64vec2 = vec_div(x2_fp64vec2, y2_fp64vec2); | |
| y3_fp64vec2 = vec_div(x3_fp64vec2, y3_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| vec_xst(y1_fp64vec2, 0, z+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, z+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, z+(i+6 )); | |
| } | |
| for (; i <= n-2; i += 2) | |
| { | |
| y0_fp64vec2 = vec_xl(0, y+(i )); | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, y0_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, z+(i )); | |
| } | |
| for (; i < n; i++) | |
| z[i] = x[i] / y[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THDoubleVector_divs_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THDoubleVector_divs_VSX(double *y, const double *x, const double c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| double val[2] = {c, c}; | |
| vector double c_fp64vec2 = vec_xl(0, val); | |
| vector double y0_fp64vec2, y1_fp64vec2, y2_fp64vec2, y3_fp64vec2, y4_fp64vec2, y5_fp64vec2, y6_fp64vec2, y7_fp64vec2; | |
| vector double y8_fp64vec2, y9_fp64vec2, y10_fp64vec2, y11_fp64vec2; | |
| vector double x0_fp64vec2, x1_fp64vec2, x2_fp64vec2, x3_fp64vec2, x4_fp64vec2, x5_fp64vec2, x6_fp64vec2, x7_fp64vec2; | |
| vector double x8_fp64vec2, x9_fp64vec2, x10_fp64vec2, x11_fp64vec2; | |
| for (i = 0; i <= n-24; i += 24) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| x4_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x5_fp64vec2 = vec_xl(0, x+(i+10)); | |
| x6_fp64vec2 = vec_xl(0, x+(i+12)); | |
| x7_fp64vec2 = vec_xl(0, x+(i+14)); | |
| x8_fp64vec2 = vec_xl(0, x+(i+16)); | |
| x9_fp64vec2 = vec_xl(0, x+(i+18)); | |
| x10_fp64vec2 = vec_xl(0, x+(i+20)); | |
| x11_fp64vec2 = vec_xl(0, x+(i+22)); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_div(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_div(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_div(x3_fp64vec2, c_fp64vec2); | |
| y4_fp64vec2 = vec_div(x4_fp64vec2, c_fp64vec2); | |
| y5_fp64vec2 = vec_div(x5_fp64vec2, c_fp64vec2); | |
| y6_fp64vec2 = vec_div(x6_fp64vec2, c_fp64vec2); | |
| y7_fp64vec2 = vec_div(x7_fp64vec2, c_fp64vec2); | |
| y8_fp64vec2 = vec_div(x8_fp64vec2, c_fp64vec2); | |
| y9_fp64vec2 = vec_div(x9_fp64vec2, c_fp64vec2); | |
| y10_fp64vec2 = vec_div(x10_fp64vec2, c_fp64vec2); | |
| y11_fp64vec2 = vec_div(x11_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+6 )); | |
| vec_xst(y4_fp64vec2, 0, y+(i+8 )); | |
| vec_xst(y5_fp64vec2, 0, y+(i+10)); | |
| vec_xst(y6_fp64vec2, 0, y+(i+12)); | |
| vec_xst(y7_fp64vec2, 0, y+(i+14)); | |
| vec_xst(y8_fp64vec2, 0, y+(i+16)); | |
| vec_xst(y9_fp64vec2, 0, y+(i+18)); | |
| vec_xst(y10_fp64vec2, 0, y+(i+20)); | |
| vec_xst(y11_fp64vec2, 0, y+(i+22)); | |
| } | |
| for (; i <= n-8; i += 8) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+2 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+6 )); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_div(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_div(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_div(x3_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+6 )); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+2 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+6 )); | |
| } | |
| for (; i <= n-2; i += 2) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| } | |
| for (; i < n; i++) | |
| y[i] = x[i] / c; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THFloatVector_fill_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THFloatVector_fill_VSX(float *x, const float c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| float val[4] = {c, c, c, c}; | |
| vector float fp32vec4 = vec_xl(0, val); | |
| for (i = 0; i <= n-256; i += 256) | |
| { | |
| vec_xst(fp32vec4, 0, x+(i )); | |
| vec_xst(fp32vec4, 0, x+(i+4 )); | |
| vec_xst(fp32vec4, 0, x+(i+8 )); | |
| vec_xst(fp32vec4, 0, x+(i+12 )); | |
| vec_xst(fp32vec4, 0, x+(i+16 )); | |
| vec_xst(fp32vec4, 0, x+(i+20 )); | |
| vec_xst(fp32vec4, 0, x+(i+24 )); | |
| vec_xst(fp32vec4, 0, x+(i+28 )); | |
| vec_xst(fp32vec4, 0, x+(i+32 )); | |
| vec_xst(fp32vec4, 0, x+(i+36 )); | |
| vec_xst(fp32vec4, 0, x+(i+40 )); | |
| vec_xst(fp32vec4, 0, x+(i+44 )); | |
| vec_xst(fp32vec4, 0, x+(i+48 )); | |
| vec_xst(fp32vec4, 0, x+(i+52 )); | |
| vec_xst(fp32vec4, 0, x+(i+56 )); | |
| vec_xst(fp32vec4, 0, x+(i+60 )); | |
| vec_xst(fp32vec4, 0, x+(i+64 )); | |
| vec_xst(fp32vec4, 0, x+(i+68 )); | |
| vec_xst(fp32vec4, 0, x+(i+72 )); | |
| vec_xst(fp32vec4, 0, x+(i+76 )); | |
| vec_xst(fp32vec4, 0, x+(i+80 )); | |
| vec_xst(fp32vec4, 0, x+(i+84 )); | |
| vec_xst(fp32vec4, 0, x+(i+88 )); | |
| vec_xst(fp32vec4, 0, x+(i+92 )); | |
| vec_xst(fp32vec4, 0, x+(i+96 )); | |
| vec_xst(fp32vec4, 0, x+(i+100)); | |
| vec_xst(fp32vec4, 0, x+(i+104)); | |
| vec_xst(fp32vec4, 0, x+(i+108)); | |
| vec_xst(fp32vec4, 0, x+(i+112)); | |
| vec_xst(fp32vec4, 0, x+(i+116)); | |
| vec_xst(fp32vec4, 0, x+(i+120)); | |
| vec_xst(fp32vec4, 0, x+(i+124)); | |
| vec_xst(fp32vec4, 0, x+(i+128)); | |
| vec_xst(fp32vec4, 0, x+(i+132)); | |
| vec_xst(fp32vec4, 0, x+(i+136)); | |
| vec_xst(fp32vec4, 0, x+(i+140)); | |
| vec_xst(fp32vec4, 0, x+(i+144)); | |
| vec_xst(fp32vec4, 0, x+(i+148)); | |
| vec_xst(fp32vec4, 0, x+(i+152)); | |
| vec_xst(fp32vec4, 0, x+(i+156)); | |
| vec_xst(fp32vec4, 0, x+(i+160)); | |
| vec_xst(fp32vec4, 0, x+(i+164)); | |
| vec_xst(fp32vec4, 0, x+(i+168)); | |
| vec_xst(fp32vec4, 0, x+(i+172)); | |
| vec_xst(fp32vec4, 0, x+(i+176)); | |
| vec_xst(fp32vec4, 0, x+(i+180)); | |
| vec_xst(fp32vec4, 0, x+(i+184)); | |
| vec_xst(fp32vec4, 0, x+(i+188)); | |
| vec_xst(fp32vec4, 0, x+(i+192)); | |
| vec_xst(fp32vec4, 0, x+(i+196)); | |
| vec_xst(fp32vec4, 0, x+(i+200)); | |
| vec_xst(fp32vec4, 0, x+(i+204)); | |
| vec_xst(fp32vec4, 0, x+(i+208)); | |
| vec_xst(fp32vec4, 0, x+(i+212)); | |
| vec_xst(fp32vec4, 0, x+(i+216)); | |
| vec_xst(fp32vec4, 0, x+(i+220)); | |
| vec_xst(fp32vec4, 0, x+(i+224)); | |
| vec_xst(fp32vec4, 0, x+(i+228)); | |
| vec_xst(fp32vec4, 0, x+(i+232)); | |
| vec_xst(fp32vec4, 0, x+(i+236)); | |
| vec_xst(fp32vec4, 0, x+(i+240)); | |
| vec_xst(fp32vec4, 0, x+(i+244)); | |
| vec_xst(fp32vec4, 0, x+(i+248)); | |
| vec_xst(fp32vec4, 0, x+(i+252)); | |
| } | |
| for (; i <= n-32; i += 32) | |
| { | |
| vec_xst(fp32vec4, 0, x+(i )); | |
| vec_xst(fp32vec4, 0, x+(i+4 )); | |
| vec_xst(fp32vec4, 0, x+(i+8 )); | |
| vec_xst(fp32vec4, 0, x+(i+12 )); | |
| vec_xst(fp32vec4, 0, x+(i+16 )); | |
| vec_xst(fp32vec4, 0, x+(i+20 )); | |
| vec_xst(fp32vec4, 0, x+(i+24 )); | |
| vec_xst(fp32vec4, 0, x+(i+28 )); | |
| } | |
| for (; i <= n-4; i += 4) | |
| vec_xst(fp32vec4, 0, x+(i )); | |
| for (; i < n; i++) | |
| x[i] = c; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THFloatVector_cadd_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THFloatVector_cadd_VSX(float *z, const float *x, const float *y, const float c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| float val[4] = {c, c, c, c}; | |
| vector float c_fp32vec4 = vec_xl(0, val); | |
| vector float y0_fp32vec4, y1_fp32vec4, y2_fp32vec4, y3_fp32vec4, y4_fp32vec4, y5_fp32vec4, y6_fp32vec4, y7_fp32vec4; | |
| vector float y8_fp32vec4, y9_fp32vec4, y10_fp32vec4, y11_fp32vec4; | |
| vector float x0_fp32vec4, x1_fp32vec4, x2_fp32vec4, x3_fp32vec4, x4_fp32vec4, x5_fp32vec4, x6_fp32vec4, x7_fp32vec4; | |
| vector float x8_fp32vec4, x9_fp32vec4, x10_fp32vec4, x11_fp32vec4; | |
| for (i = 0; i <= n-48; i += 48) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| y1_fp32vec4 = vec_xl(0, y+(i+4 )); | |
| y2_fp32vec4 = vec_xl(0, y+(i+8 )); | |
| y3_fp32vec4 = vec_xl(0, y+(i+12)); | |
| y4_fp32vec4 = vec_xl(0, y+(i+16 )); | |
| y5_fp32vec4 = vec_xl(0, y+(i+20)); | |
| y6_fp32vec4 = vec_xl(0, y+(i+24)); | |
| y7_fp32vec4 = vec_xl(0, y+(i+28)); | |
| y8_fp32vec4 = vec_xl(0, y+(i+32)); | |
| y9_fp32vec4 = vec_xl(0, y+(i+36)); | |
| y10_fp32vec4 = vec_xl(0, y+(i+40)); | |
| y11_fp32vec4 = vec_xl(0, y+(i+44)); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12 )); | |
| x4_fp32vec4 = vec_xl(0, x+(i+16 )); | |
| x5_fp32vec4 = vec_xl(0, x+(i+20)); | |
| x6_fp32vec4 = vec_xl(0, x+(i+24)); | |
| x7_fp32vec4 = vec_xl(0, x+(i+28)); | |
| x8_fp32vec4 = vec_xl(0, x+(i+32)); | |
| x9_fp32vec4 = vec_xl(0, x+(i+36)); | |
| x10_fp32vec4 = vec_xl(0, x+(i+40)); | |
| x11_fp32vec4 = vec_xl(0, x+(i+44)); | |
| y0_fp32vec4 = vec_madd(y0_fp32vec4, c_fp32vec4, x0_fp32vec4); | |
| y1_fp32vec4 = vec_madd(y1_fp32vec4, c_fp32vec4, x1_fp32vec4); | |
| y2_fp32vec4 = vec_madd(y2_fp32vec4, c_fp32vec4, x2_fp32vec4); | |
| y3_fp32vec4 = vec_madd(y3_fp32vec4, c_fp32vec4, x3_fp32vec4); | |
| y4_fp32vec4 = vec_madd(y4_fp32vec4, c_fp32vec4, x4_fp32vec4); | |
| y5_fp32vec4 = vec_madd(y5_fp32vec4, c_fp32vec4, x5_fp32vec4); | |
| y6_fp32vec4 = vec_madd(y6_fp32vec4, c_fp32vec4, x6_fp32vec4); | |
| y7_fp32vec4 = vec_madd(y7_fp32vec4, c_fp32vec4, x7_fp32vec4); | |
| y8_fp32vec4 = vec_madd(y8_fp32vec4, c_fp32vec4, x8_fp32vec4); | |
| y9_fp32vec4 = vec_madd(y9_fp32vec4, c_fp32vec4, x9_fp32vec4); | |
| y10_fp32vec4 = vec_madd(y10_fp32vec4, c_fp32vec4, x10_fp32vec4); | |
| y11_fp32vec4 = vec_madd(y11_fp32vec4, c_fp32vec4, x11_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| vec_xst(y1_fp32vec4, 0, z+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, z+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, z+(i+12 )); | |
| vec_xst(y4_fp32vec4, 0, z+(i+16 )); | |
| vec_xst(y5_fp32vec4, 0, z+(i+20)); | |
| vec_xst(y6_fp32vec4, 0, z+(i+24)); | |
| vec_xst(y7_fp32vec4, 0, z+(i+28)); | |
| vec_xst(y8_fp32vec4, 0, z+(i+32)); | |
| vec_xst(y9_fp32vec4, 0, z+(i+36)); | |
| vec_xst(y10_fp32vec4, 0, z+(i+40)); | |
| vec_xst(y11_fp32vec4, 0, z+(i+44)); | |
| } | |
| for (; i <= n-16; i += 16) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| y1_fp32vec4 = vec_xl(0, y+(i+4 )); | |
| y2_fp32vec4 = vec_xl(0, y+(i+8 )); | |
| y3_fp32vec4 = vec_xl(0, y+(i+12 )); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12 )); | |
| y0_fp32vec4 = vec_madd(y0_fp32vec4, c_fp32vec4, x0_fp32vec4); | |
| y1_fp32vec4 = vec_madd(y1_fp32vec4, c_fp32vec4, x1_fp32vec4); | |
| y2_fp32vec4 = vec_madd(y2_fp32vec4, c_fp32vec4, x2_fp32vec4); | |
| y3_fp32vec4 = vec_madd(y3_fp32vec4, c_fp32vec4, x3_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| vec_xst(y1_fp32vec4, 0, z+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, z+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, z+(i+12 )); | |
| } | |
| for (; i <= n-4; i += 4) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| y0_fp32vec4 = vec_madd(y0_fp32vec4, c_fp32vec4, x0_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| } | |
| for (; i < n; i++) | |
| z[i] = x[i] + c* y[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THFloatVector_adds_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THFloatVector_adds_VSX(float *y, const float *x, const float c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| float val[4] = {c, c, c, c}; | |
| vector float c_fp32vec4 = vec_xl(0, val); | |
| vector float y0_fp32vec4, y1_fp32vec4, y2_fp32vec4, y3_fp32vec4, y4_fp32vec4, y5_fp32vec4, y6_fp32vec4, y7_fp32vec4; | |
| vector float y8_fp32vec4, y9_fp32vec4, y10_fp32vec4, y11_fp32vec4; | |
| vector float x0_fp32vec4, x1_fp32vec4, x2_fp32vec4, x3_fp32vec4, x4_fp32vec4, x5_fp32vec4, x6_fp32vec4, x7_fp32vec4; | |
| vector float x8_fp32vec4, x9_fp32vec4, x10_fp32vec4, x11_fp32vec4; | |
| for (i = 0; i <= n-48; i += 48) | |
| { | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12)); | |
| x4_fp32vec4 = vec_xl(0, x+(i+16)); | |
| x5_fp32vec4 = vec_xl(0, x+(i+20)); | |
| x6_fp32vec4 = vec_xl(0, x+(i+24)); | |
| x7_fp32vec4 = vec_xl(0, x+(i+28)); | |
| x8_fp32vec4 = vec_xl(0, x+(i+32)); | |
| x9_fp32vec4 = vec_xl(0, x+(i+36)); | |
| x10_fp32vec4 = vec_xl(0, x+(i+40)); | |
| x11_fp32vec4 = vec_xl(0, x+(i+44)); | |
| y0_fp32vec4 = vec_add(x0_fp32vec4, c_fp32vec4); | |
| y1_fp32vec4 = vec_add(x1_fp32vec4, c_fp32vec4); | |
| y2_fp32vec4 = vec_add(x2_fp32vec4, c_fp32vec4); | |
| y3_fp32vec4 = vec_add(x3_fp32vec4, c_fp32vec4); | |
| y4_fp32vec4 = vec_add(x4_fp32vec4, c_fp32vec4); | |
| y5_fp32vec4 = vec_add(x5_fp32vec4, c_fp32vec4); | |
| y6_fp32vec4 = vec_add(x6_fp32vec4, c_fp32vec4); | |
| y7_fp32vec4 = vec_add(x7_fp32vec4, c_fp32vec4); | |
| y8_fp32vec4 = vec_add(x8_fp32vec4, c_fp32vec4); | |
| y9_fp32vec4 = vec_add(x9_fp32vec4, c_fp32vec4); | |
| y10_fp32vec4 = vec_add(x10_fp32vec4, c_fp32vec4); | |
| y11_fp32vec4 = vec_add(x11_fp32vec4, c_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, y+(i )); | |
| vec_xst(y1_fp32vec4, 0, y+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, y+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, y+(i+12)); | |
| vec_xst(y4_fp32vec4, 0, y+(i+16)); | |
| vec_xst(y5_fp32vec4, 0, y+(i+20)); | |
| vec_xst(y6_fp32vec4, 0, y+(i+24)); | |
| vec_xst(y7_fp32vec4, 0, y+(i+28)); | |
| vec_xst(y8_fp32vec4, 0, y+(i+32)); | |
| vec_xst(y9_fp32vec4, 0, y+(i+36)); | |
| vec_xst(y10_fp32vec4, 0, y+(i+40)); | |
| vec_xst(y11_fp32vec4, 0, y+(i+44)); | |
| } | |
| for (; i <= n-16; i += 16) | |
| { | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12)); | |
| y0_fp32vec4 = vec_add(x0_fp32vec4, c_fp32vec4); | |
| y1_fp32vec4 = vec_add(x1_fp32vec4, c_fp32vec4); | |
| y2_fp32vec4 = vec_add(x2_fp32vec4, c_fp32vec4); | |
| y3_fp32vec4 = vec_add(x3_fp32vec4, c_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, y+(i )); | |
| vec_xst(y1_fp32vec4, 0, y+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, y+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, y+(i+12)); | |
| } | |
| for (; i <= n-4; i += 4) | |
| { | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| y0_fp32vec4 = vec_add(x0_fp32vec4, c_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, y+(i )); | |
| } | |
| for (; i < n; i++) | |
| y[i] = c + x[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THFloatVector_cmul_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THFloatVector_cmul_VSX(float *z, const float *y, const float *x, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| vector float y0_fp32vec4, y1_fp32vec4, y2_fp32vec4, y3_fp32vec4, y4_fp32vec4, y5_fp32vec4, y6_fp32vec4, y7_fp32vec4; | |
| vector float y8_fp32vec4, y9_fp32vec4, y10_fp32vec4, y11_fp32vec4; | |
| vector float x0_fp32vec4, x1_fp32vec4, x2_fp32vec4, x3_fp32vec4, x4_fp32vec4, x5_fp32vec4, x6_fp32vec4, x7_fp32vec4; | |
| vector float x8_fp32vec4, x9_fp32vec4, x10_fp32vec4, x11_fp32vec4; | |
| for (i = 0; i <= n-48; i += 48) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| y1_fp32vec4 = vec_xl(0, y+(i+4 )); | |
| y2_fp32vec4 = vec_xl(0, y+(i+8 )); | |
| y3_fp32vec4 = vec_xl(0, y+(i+12 )); | |
| y4_fp32vec4 = vec_xl(0, y+(i+16 )); | |
| y5_fp32vec4 = vec_xl(0, y+(i+20)); | |
| y6_fp32vec4 = vec_xl(0, y+(i+24)); | |
| y7_fp32vec4 = vec_xl(0, y+(i+28)); | |
| y8_fp32vec4 = vec_xl(0, y+(i+32)); | |
| y9_fp32vec4 = vec_xl(0, y+(i+36)); | |
| y10_fp32vec4 = vec_xl(0, y+(i+40)); | |
| y11_fp32vec4 = vec_xl(0, y+(i+44)); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12 )); | |
| x4_fp32vec4 = vec_xl(0, x+(i+16 )); | |
| x5_fp32vec4 = vec_xl(0, x+(i+20)); | |
| x6_fp32vec4 = vec_xl(0, x+(i+24)); | |
| x7_fp32vec4 = vec_xl(0, x+(i+28)); | |
| x8_fp32vec4 = vec_xl(0, x+(i+32)); | |
| x9_fp32vec4 = vec_xl(0, x+(i+36)); | |
| x10_fp32vec4 = vec_xl(0, x+(i+40)); | |
| x11_fp32vec4 = vec_xl(0, x+(i+44)); | |
| y0_fp32vec4 = vec_mul(y0_fp32vec4, x0_fp32vec4); | |
| y1_fp32vec4 = vec_mul(y1_fp32vec4, x1_fp32vec4); | |
| y2_fp32vec4 = vec_mul(y2_fp32vec4, x2_fp32vec4); | |
| y3_fp32vec4 = vec_mul(y3_fp32vec4, x3_fp32vec4); | |
| y4_fp32vec4 = vec_mul(y4_fp32vec4, x4_fp32vec4); | |
| y5_fp32vec4 = vec_mul(y5_fp32vec4, x5_fp32vec4); | |
| y6_fp32vec4 = vec_mul(y6_fp32vec4, x6_fp32vec4); | |
| y7_fp32vec4 = vec_mul(y7_fp32vec4, x7_fp32vec4); | |
| y8_fp32vec4 = vec_mul(y8_fp32vec4, x8_fp32vec4); | |
| y9_fp32vec4 = vec_mul(y9_fp32vec4, x9_fp32vec4); | |
| y10_fp32vec4 = vec_mul(y10_fp32vec4, x10_fp32vec4); | |
| y11_fp32vec4 = vec_mul(y11_fp32vec4, x11_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| vec_xst(y1_fp32vec4, 0, z+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, z+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, z+(i+12 )); | |
| vec_xst(y4_fp32vec4, 0, z+(i+16 )); | |
| vec_xst(y5_fp32vec4, 0, z+(i+20)); | |
| vec_xst(y6_fp32vec4, 0, z+(i+24)); | |
| vec_xst(y7_fp32vec4, 0, z+(i+28)); | |
| vec_xst(y8_fp32vec4, 0, z+(i+32)); | |
| vec_xst(y9_fp32vec4, 0, z+(i+36)); | |
| vec_xst(y10_fp32vec4, 0, z+(i+40)); | |
| vec_xst(y11_fp32vec4, 0, z+(i+44)); | |
| } | |
| for (; i <= n-16; i += 16) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| y1_fp32vec4 = vec_xl(0, y+(i+4 )); | |
| y2_fp32vec4 = vec_xl(0, y+(i+8 )); | |
| y3_fp32vec4 = vec_xl(0, y+(i+12 )); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12 )); | |
| y0_fp32vec4 = vec_mul(y0_fp32vec4, x0_fp32vec4); | |
| y1_fp32vec4 = vec_mul(y1_fp32vec4, x1_fp32vec4); | |
| y2_fp32vec4 = vec_mul(y2_fp32vec4, x2_fp32vec4); | |
| y3_fp32vec4 = vec_mul(y3_fp32vec4, x3_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| vec_xst(y1_fp32vec4, 0, z+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, z+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, z+(i+12 )); | |
| } | |
| for (; i <= n-4; i += 4) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| y0_fp32vec4 = vec_mul(y0_fp32vec4, x0_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| } | |
| for (; i < n; i++) | |
| z[i] = y[i] * x[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THFloatVector_muls_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THFloatVector_muls_VSX(float *y, const float *x, const float c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| float val[4] = {c, c, c, c}; | |
| vector float c_fp32vec4 = vec_xl(0, val); | |
| vector float y0_fp32vec4, y1_fp32vec4, y2_fp32vec4, y3_fp32vec4, y4_fp32vec4, y5_fp32vec4, y6_fp32vec4, y7_fp32vec4; | |
| vector float y8_fp32vec4, y9_fp32vec4, y10_fp32vec4, y11_fp32vec4; | |
| vector float x0_fp32vec4, x1_fp32vec4, x2_fp32vec4, x3_fp32vec4, x4_fp32vec4, x5_fp32vec4, x6_fp32vec4, x7_fp32vec4; | |
| vector float x8_fp32vec4, x9_fp32vec4, x10_fp32vec4, x11_fp32vec4; | |
| for (i = 0; i <= n-48; i += 48) | |
| { | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12)); | |
| x4_fp32vec4 = vec_xl(0, x+(i+16)); | |
| x5_fp32vec4 = vec_xl(0, x+(i+20)); | |
| x6_fp32vec4 = vec_xl(0, x+(i+24)); | |
| x7_fp32vec4 = vec_xl(0, x+(i+28)); | |
| x8_fp32vec4 = vec_xl(0, x+(i+32)); | |
| x9_fp32vec4 = vec_xl(0, x+(i+36)); | |
| x10_fp32vec4 = vec_xl(0, x+(i+40)); | |
| x11_fp32vec4 = vec_xl(0, x+(i+44)); | |
| y0_fp32vec4 = vec_mul(x0_fp32vec4, c_fp32vec4); | |
| y1_fp32vec4 = vec_mul(x1_fp32vec4, c_fp32vec4); | |
| y2_fp32vec4 = vec_mul(x2_fp32vec4, c_fp32vec4); | |
| y3_fp32vec4 = vec_mul(x3_fp32vec4, c_fp32vec4); | |
| y4_fp32vec4 = vec_mul(x4_fp32vec4, c_fp32vec4); | |
| y5_fp32vec4 = vec_mul(x5_fp32vec4, c_fp32vec4); | |
| y6_fp32vec4 = vec_mul(x6_fp32vec4, c_fp32vec4); | |
| y7_fp32vec4 = vec_mul(x7_fp32vec4, c_fp32vec4); | |
| y8_fp32vec4 = vec_mul(x8_fp32vec4, c_fp32vec4); | |
| y9_fp32vec4 = vec_mul(x9_fp32vec4, c_fp32vec4); | |
| y10_fp32vec4 = vec_mul(x10_fp32vec4, c_fp32vec4); | |
| y11_fp32vec4 = vec_mul(x11_fp32vec4, c_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, y+(i )); | |
| vec_xst(y1_fp32vec4, 0, y+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, y+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, y+(i+12)); | |
| vec_xst(y4_fp32vec4, 0, y+(i+16)); | |
| vec_xst(y5_fp32vec4, 0, y+(i+20)); | |
| vec_xst(y6_fp32vec4, 0, y+(i+24)); | |
| vec_xst(y7_fp32vec4, 0, y+(i+28)); | |
| vec_xst(y8_fp32vec4, 0, y+(i+32)); | |
| vec_xst(y9_fp32vec4, 0, y+(i+36)); | |
| vec_xst(y10_fp32vec4, 0, y+(i+40)); | |
| vec_xst(y11_fp32vec4, 0, y+(i+44)); | |
| } | |
| for (; i <= n-16; i += 16) | |
| { | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12)); | |
| y0_fp32vec4 = vec_mul(x0_fp32vec4, c_fp32vec4); | |
| y1_fp32vec4 = vec_mul(x1_fp32vec4, c_fp32vec4); | |
| y2_fp32vec4 = vec_mul(x2_fp32vec4, c_fp32vec4); | |
| y3_fp32vec4 = vec_mul(x3_fp32vec4, c_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, y+(i )); | |
| vec_xst(y1_fp32vec4, 0, y+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, y+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, y+(i+12)); | |
| } | |
| for (; i <= n-4; i += 4) | |
| { | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| y0_fp32vec4 = vec_mul(x0_fp32vec4, c_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, y+(i )); | |
| } | |
| for (; i < n; i++) | |
| y[i] = c * x[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THFloatVector_cdiv_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THFloatVector_cdiv_VSX(float *z, const float *x, const float *y, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| vector float y0_fp32vec4, y1_fp32vec4, y2_fp32vec4, y3_fp32vec4, y4_fp32vec4, y5_fp32vec4, y6_fp32vec4, y7_fp32vec4; | |
| vector float y8_fp32vec4, y9_fp32vec4, y10_fp32vec4, y11_fp32vec4; | |
| vector float x0_fp32vec4, x1_fp32vec4, x2_fp32vec4, x3_fp32vec4, x4_fp32vec4, x5_fp32vec4, x6_fp32vec4, x7_fp32vec4; | |
| vector float x8_fp32vec4, x9_fp32vec4, x10_fp32vec4, x11_fp32vec4; | |
| for (i = 0; i <= n-48; i += 48) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| y1_fp32vec4 = vec_xl(0, y+(i+4)); | |
| y2_fp32vec4 = vec_xl(0, y+(i+8)); | |
| y3_fp32vec4 = vec_xl(0, y+(i+12)); | |
| y4_fp32vec4 = vec_xl(0, y+(i+16)); | |
| y5_fp32vec4 = vec_xl(0, y+(i+20)); | |
| y6_fp32vec4 = vec_xl(0, y+(i+24)); | |
| y7_fp32vec4 = vec_xl(0, y+(i+28)); | |
| y8_fp32vec4 = vec_xl(0, y+(i+32)); | |
| y9_fp32vec4 = vec_xl(0, y+(i+36)); | |
| y10_fp32vec4 = vec_xl(0, y+(i+40)); | |
| y11_fp32vec4 = vec_xl(0, y+(i+44)); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12 )); | |
| x4_fp32vec4 = vec_xl(0, x+(i+16 )); | |
| x5_fp32vec4 = vec_xl(0, x+(i+20)); | |
| x6_fp32vec4 = vec_xl(0, x+(i+24)); | |
| x7_fp32vec4 = vec_xl(0, x+(i+28)); | |
| x8_fp32vec4 = vec_xl(0, x+(i+32)); | |
| x9_fp32vec4 = vec_xl(0, x+(i+36)); | |
| x10_fp32vec4 = vec_xl(0, x+(i+40)); | |
| x11_fp32vec4 = vec_xl(0, x+(i+44)); | |
| y0_fp32vec4 = vec_div(x0_fp32vec4, y0_fp32vec4); | |
| y1_fp32vec4 = vec_div(x1_fp32vec4, y1_fp32vec4); | |
| y2_fp32vec4 = vec_div(x2_fp32vec4, y2_fp32vec4); | |
| y3_fp32vec4 = vec_div(x3_fp32vec4, y3_fp32vec4); | |
| y4_fp32vec4 = vec_div(x4_fp32vec4, y4_fp32vec4); | |
| y5_fp32vec4 = vec_div(x5_fp32vec4, y5_fp32vec4); | |
| y6_fp32vec4 = vec_div(x6_fp32vec4, y6_fp32vec4); | |
| y7_fp32vec4 = vec_div(x7_fp32vec4, y7_fp32vec4); | |
| y8_fp32vec4 = vec_div(x8_fp32vec4, y8_fp32vec4); | |
| y9_fp32vec4 = vec_div(x9_fp32vec4, y9_fp32vec4); | |
| y10_fp32vec4 = vec_div(x10_fp32vec4, y10_fp32vec4); | |
| y11_fp32vec4 = vec_div(x11_fp32vec4, y11_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| vec_xst(y1_fp32vec4, 0, z+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, z+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, z+(i+12 )); | |
| vec_xst(y4_fp32vec4, 0, z+(i+16 )); | |
| vec_xst(y5_fp32vec4, 0, z+(i+20)); | |
| vec_xst(y6_fp32vec4, 0, z+(i+24)); | |
| vec_xst(y7_fp32vec4, 0, z+(i+28)); | |
| vec_xst(y8_fp32vec4, 0, z+(i+32)); | |
| vec_xst(y9_fp32vec4, 0, z+(i+36)); | |
| vec_xst(y10_fp32vec4, 0, z+(i+40)); | |
| vec_xst(y11_fp32vec4, 0, z+(i+44)); | |
| } | |
| for (; i <= n-16; i += 16) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| y1_fp32vec4 = vec_xl(0, y+(i+4 )); | |
| y2_fp32vec4 = vec_xl(0, y+(i+8 )); | |
| y3_fp32vec4 = vec_xl(0, y+(i+12 )); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| x1_fp32vec4 = vec_xl(0, x+(i+4 )); | |
| x2_fp32vec4 = vec_xl(0, x+(i+8 )); | |
| x3_fp32vec4 = vec_xl(0, x+(i+12 )); | |
| y0_fp32vec4 = vec_div(x0_fp32vec4, y0_fp32vec4); | |
| y1_fp32vec4 = vec_div(x1_fp32vec4, y1_fp32vec4); | |
| y2_fp32vec4 = vec_div(x2_fp32vec4, y2_fp32vec4); | |
| y3_fp32vec4 = vec_div(x3_fp32vec4, y3_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| vec_xst(y1_fp32vec4, 0, z+(i+4 )); | |
| vec_xst(y2_fp32vec4, 0, z+(i+8 )); | |
| vec_xst(y3_fp32vec4, 0, z+(i+12 )); | |
| } | |
| for (; i <= n-4; i += 4) | |
| { | |
| y0_fp32vec4 = vec_xl(0, y+(i )); | |
| x0_fp32vec4 = vec_xl(0, x+(i )); | |
| y0_fp32vec4 = vec_div(x0_fp32vec4, y0_fp32vec4); | |
| vec_xst(y0_fp32vec4, 0, z+(i )); | |
| } | |
| for (; i < n; i++) | |
| z[i] = x[i] / y[i]; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // THFloatVector_divs_VSX: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void THFloatVector_divs_VSX(float *y, const float*x, const float c, const ptrdiff_t n) | |
| { | |
| ptrdiff_t i; | |
| float val[4] = {c, c, c, c}; | |
| vector float c_fp64vec2 = vec_xl(0, val); | |
| vector float y0_fp64vec2, y1_fp64vec2, y2_fp64vec2, y3_fp64vec2, y4_fp64vec2, y5_fp64vec2, y6_fp64vec2, y7_fp64vec2; | |
| vector float y8_fp64vec2, y9_fp64vec2, y10_fp64vec2, y11_fp64vec2; | |
| vector float x0_fp64vec2, x1_fp64vec2, x2_fp64vec2, x3_fp64vec2, x4_fp64vec2, x5_fp64vec2, x6_fp64vec2, x7_fp64vec2; | |
| vector float x8_fp64vec2, x9_fp64vec2, x10_fp64vec2, x11_fp64vec2; | |
| for (i = 0; i <= n-48; i += 48) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+12 )); | |
| x4_fp64vec2 = vec_xl(0, x+(i+16 )); | |
| x5_fp64vec2 = vec_xl(0, x+(i+20)); | |
| x6_fp64vec2 = vec_xl(0, x+(i+24)); | |
| x7_fp64vec2 = vec_xl(0, x+(i+28)); | |
| x8_fp64vec2 = vec_xl(0, x+(i+32)); | |
| x9_fp64vec2 = vec_xl(0, x+(i+36)); | |
| x10_fp64vec2 = vec_xl(0, x+(i+40)); | |
| x11_fp64vec2 = vec_xl(0, x+(i+44)); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_div(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_div(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_div(x3_fp64vec2, c_fp64vec2); | |
| y4_fp64vec2 = vec_div(x4_fp64vec2, c_fp64vec2); | |
| y5_fp64vec2 = vec_div(x5_fp64vec2, c_fp64vec2); | |
| y6_fp64vec2 = vec_div(x6_fp64vec2, c_fp64vec2); | |
| y7_fp64vec2 = vec_div(x7_fp64vec2, c_fp64vec2); | |
| y8_fp64vec2 = vec_div(x8_fp64vec2, c_fp64vec2); | |
| y9_fp64vec2 = vec_div(x9_fp64vec2, c_fp64vec2); | |
| y10_fp64vec2 = vec_div(x10_fp64vec2, c_fp64vec2); | |
| y11_fp64vec2 = vec_div(x11_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+8 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+12 )); | |
| vec_xst(y4_fp64vec2, 0, y+(i+16 )); | |
| vec_xst(y5_fp64vec2, 0, y+(i+20)); | |
| vec_xst(y6_fp64vec2, 0, y+(i+24)); | |
| vec_xst(y7_fp64vec2, 0, y+(i+28)); | |
| vec_xst(y8_fp64vec2, 0, y+(i+32)); | |
| vec_xst(y9_fp64vec2, 0, y+(i+36)); | |
| vec_xst(y10_fp64vec2, 0, y+(i+40)); | |
| vec_xst(y11_fp64vec2, 0, y+(i+44)); | |
| } | |
| for (; i <= n-16; i += 16) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| x1_fp64vec2 = vec_xl(0, x+(i+4 )); | |
| x2_fp64vec2 = vec_xl(0, x+(i+8 )); | |
| x3_fp64vec2 = vec_xl(0, x+(i+12 )); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, c_fp64vec2); | |
| y1_fp64vec2 = vec_div(x1_fp64vec2, c_fp64vec2); | |
| y2_fp64vec2 = vec_div(x2_fp64vec2, c_fp64vec2); | |
| y3_fp64vec2 = vec_div(x3_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+8 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+12 )); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| vec_xst(y1_fp64vec2, 0, y+(i+4 )); | |
| vec_xst(y2_fp64vec2, 0, y+(i+8 )); | |
| vec_xst(y3_fp64vec2, 0, y+(i+16 )); | |
| } | |
| for (; i <= n-4; i += 4) | |
| { | |
| x0_fp64vec2 = vec_xl(0, x+(i )); | |
| y0_fp64vec2 = vec_div(x0_fp64vec2, c_fp64vec2); | |
| vec_xst(y0_fp64vec2, 0, y+(i )); | |
| } | |
| for (; i < n; i++) | |
| y[i] = x[i] / c; | |
| } | |
| //------------------------------------------------ | |
| // | |
| // Testing for correctness and performance | |
| // | |
| // If you want to run these tests, compile this | |
| // file with -DRUN_VSX_TESTS on a Power machine, | |
| // and then run the executable that is generated. | |
| // | |
| //------------------------------------------------ | |
| // | |
| // Example passing run (from a Power8 machine): | |
| // | |
| // $ gcc VSX.c -O2 -D RUN_VSX_TESTS -o vsxtest | |
| // $ ./vsxtest | |
| // | |
| // TODO | |
| // | |
| // | |
| // Finished runnning all tests. All tests PASSED. | |
| // | |
| //------------------------------------------------ | |
| #ifdef RUN_VSX_TESTS | |
| #include <stdio.h> | |
| #include <stdlib.h> | |
| #include <time.h> | |
| #include <assert.h> | |
| #include <math.h> | |
| #define VSX_PERF_NUM_TEST_ELEMENTS 100000000 | |
| #define VSX_FUNC_NUM_TEST_ELEMENTS 2507 | |
| //-------------------------------------------------------------------------------------------------- | |
| // Standard implementations: | |
| //-------------------------------------------------------------------------------------------------- | |
| static void standardDouble_fill(double *x, const double c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| x[i] = c; | |
| } | |
| static void standardFloat_fill(float *x, const float c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| x[i] = c; | |
| } | |
| static void standardDouble_cadd(double *z, const double *x, const double *y, const double c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| z[i] = x[i] + c * y[i]; | |
| } | |
| static void standardFloat_cadd(float *z, const float *x, const float *y, const float c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| z[i] = x[i] + c * y[i]; | |
| } | |
| static void standardDouble_adds(double *y, const double *x, const double c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| y[i] = c + x[i]; | |
| } | |
| static void standardFloat_adds(float *y, const float *x, const float c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| y[i] = c + x[i]; | |
| } | |
| static void standardDouble_cmul(double *z, const double *x, const double *y, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| z[i] = x[i] * y[i]; | |
| } | |
| static void standardFloat_cmul(float *z, const float *x, const float *y, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| z[i] = x[i] * y[i]; | |
| } | |
| static void standardDouble_muls(double *y, const double *x, const double c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| y[i] = c * x[i]; | |
| } | |
| static void standardFloat_muls(float *y, const float *x, const float c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| y[i] = c * x[i]; | |
| } | |
| static void standardDouble_cdiv(double *z, const double *x, const double *y, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| z[i] = x[i] / y[i]; | |
| } | |
| static void standardFloat_cdiv(float *z, const float *x, const float *y, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| z[i] = x[i] / y[i]; | |
| } | |
| static void standardDouble_divs(double *y, const double *x, const double c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| y[i] = x[i] / c; | |
| } | |
| static void standardFloat_divs(float *y, const float *x, const float c, const ptrdiff_t n) | |
| { | |
| for (ptrdiff_t i = 0; i < n; i++) | |
| y[i] = x[i] / c; | |
| } | |
| double randDouble() | |
| { | |
| return (double)(rand()%100)/(double)(rand()%100) * (rand()%2 ? -1.0 : 1.0); | |
| } | |
| int near(double a, double b) | |
| { | |
| int aClass = fpclassify(a); | |
| int bClass = fpclassify(b); | |
| if(aClass != bClass) // i.e. is it NAN, infinite, or finite...? | |
| return 0; | |
| if(aClass == FP_INFINITE) // if it is infinite, the sign must be the same, i.e. positive infinity is not near negative infinity | |
| return (signbit(a) == signbit(b)); | |
| else if(aClass == FP_NORMAL) // if it is a normal number then check the magnitude of the difference between the numbers | |
| return fabs(a - b) < 0.001; | |
| else // if both number are of the same class as each other and are of any other class (i.e. such as NAN), then they are near to each other. | |
| return 1; | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // Standard tests: | |
| //-------------------------------------------------------------------------------------------------- | |
| void test_THDoubleVector_fill_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| double *x_standard = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *x_optimized = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double yVal0 = 17.2; | |
| double yVal1 = 8.2; | |
| double yVal2 = 5.1; | |
| double yVal3 = -0.9; | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardDouble_fill(x_standard, yVal0, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardDouble_fill(x_standard, yVal1, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardDouble_fill(x_standard, yVal2, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardDouble_fill(x_standard, yVal3, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardDouble_fill() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THDoubleVector_fill_VSX(x_optimized, yVal0, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THDoubleVector_fill_VSX(x_optimized, yVal1, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THDoubleVector_fill_VSX(x_optimized, yVal2, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_fill_VSX(x_optimized, yVal3, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THDoubleVector_fill_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| yVal0 += 1.0; | |
| yVal1 += 1.0; | |
| yVal2 += 1.0; | |
| yVal3 -= 1.0; | |
| standardDouble_fill( x_standard, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS); | |
| THDoubleVector_fill_VSX(x_optimized, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| assert(x_optimized[i] == yVal0); | |
| standardDouble_fill( x_standard+1, yVal1, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_fill_VSX(x_optimized+1, yVal1, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardDouble_fill( x_standard+2, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THDoubleVector_fill_VSX(x_optimized+2, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardDouble_fill( x_standard+3, yVal3, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THDoubleVector_fill_VSX(x_optimized+3, yVal3, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardDouble_fill( x_standard+517, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THDoubleVector_fill_VSX(x_optimized+517, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardDouble_fill( x_standard+517+r, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THDoubleVector_fill_VSX(x_optimized+517+r, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| assert(x_optimized[i] == x_standard[i]); | |
| printf("All assertions PASSED for THDoubleVector_fill_VSX() test.\n\n"); | |
| free(x_standard); | |
| free(x_optimized); | |
| } | |
| void test_THFloatVector_fill_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| float *x_standard = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *x_optimized = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float yVal0 = 17.2; | |
| float yVal1 = 8.2; | |
| float yVal2 = 5.1; | |
| float yVal3 = -0.9; | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardFloat_fill(x_standard, yVal0, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardFloat_fill(x_standard, yVal1, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardFloat_fill(x_standard, yVal2, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardFloat_fill(x_standard, yVal3, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardFloat_fill() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THFloatVector_fill_VSX(x_optimized, yVal0, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THFloatVector_fill_VSX(x_optimized, yVal1, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THFloatVector_fill_VSX(x_optimized, yVal2, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_fill_VSX(x_optimized, yVal3, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THFloatVector_fill_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| yVal0 += 1.0; | |
| yVal1 += 1.0; | |
| yVal2 += 1.0; | |
| yVal3 -= 1.0; | |
| standardFloat_fill( x_standard, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS); | |
| THFloatVector_fill_VSX(x_optimized, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| assert(x_optimized[i] == yVal0); | |
| standardFloat_fill( x_standard+1, yVal1, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_fill_VSX(x_optimized+1, yVal1, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardFloat_fill( x_standard+2, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THFloatVector_fill_VSX(x_optimized+2, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardFloat_fill( x_standard+3, yVal3, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THFloatVector_fill_VSX(x_optimized+3, yVal3, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardFloat_fill( x_standard+517, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THFloatVector_fill_VSX(x_optimized+517, yVal0, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardFloat_fill( x_standard+517+r, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THFloatVector_fill_VSX(x_optimized+517+r, yVal2, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| assert(x_optimized[i] == x_standard[i]); | |
| printf("All assertions PASSED for THFloatVector_fill_VSX() test.\n\n"); | |
| free(x_standard); | |
| free(x_optimized); | |
| } | |
| void test_THDoubleVector_cadd_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| double *z_standard = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *z_optimized = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *x = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *y = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double c = randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = randDouble(); | |
| y[i] = randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardDouble_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardDouble_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardDouble_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardDouble_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardDouble_cadd() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THDoubleVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THDoubleVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THDoubleVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THDoubleVector_cadd_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardDouble_cadd( z_standard+1, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_cadd_VSX(z_optimized+1, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardDouble_cadd( z_standard+2, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THDoubleVector_cadd_VSX(z_optimized+2, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardDouble_cadd( z_standard+3, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THDoubleVector_cadd_VSX(z_optimized+3, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardDouble_cadd( z_standard+517, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THDoubleVector_cadd_VSX(z_optimized+517, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardDouble_cadd( z_standard+517+r, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THDoubleVector_cadd_VSX(z_optimized+517+r, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(z_optimized[i], z_standard[i])) | |
| printf("%d %f %f\n", i, z_optimized[i], z_standard[i]); | |
| assert(near(z_optimized[i], z_standard[i])); | |
| } | |
| printf("All assertions PASSED for THDoubleVector_cadd_VSX() test.\n\n"); | |
| free(z_standard); | |
| free(z_optimized); | |
| free(x); | |
| } | |
| void test_THFloatVector_cadd_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| float *z_standard = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *z_optimized = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *x = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *y = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float c = (float)randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = (float)randDouble(); | |
| y[i] = (float)randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardFloat_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardFloat_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardFloat_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardFloat_cadd(z_standard, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardFloat_cadd() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THFloatVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THFloatVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THFloatVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_cadd_VSX(z_optimized, x, y, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THFloatVector_cadd_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardFloat_cadd( z_standard+1, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_cadd_VSX(z_optimized+1, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardFloat_cadd( z_standard+2, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THFloatVector_cadd_VSX(z_optimized+2, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardFloat_cadd( z_standard+3, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THFloatVector_cadd_VSX(z_optimized+3, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardFloat_cadd( z_standard+517, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THFloatVector_cadd_VSX(z_optimized+517, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardFloat_cadd( z_standard+517+r, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THFloatVector_cadd_VSX(z_optimized+517+r, x, y, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(z_optimized[i], z_standard[i])) | |
| printf("%d %f %f\n", i, z_optimized[i], z_standard[i]); | |
| assert(near(z_optimized[i], z_standard[i])); | |
| } | |
| printf("All assertions PASSED for THFloatVector_cadd_VSX() test.\n\n"); | |
| free(z_standard); | |
| free(z_optimized); | |
| free(x); | |
| } | |
| void test_THDoubleVector_adds_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| double *y_standard = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *y_optimized = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *x = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double c = randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| x[i] = randDouble(); | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardDouble_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardDouble_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardDouble_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardDouble_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardDouble_adds() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THDoubleVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THDoubleVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THDoubleVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THDoubleVector_adds_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardDouble_adds( y_standard+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_adds_VSX(y_optimized+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardDouble_adds( y_standard+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THDoubleVector_adds_VSX(y_optimized+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardDouble_adds( y_standard+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THDoubleVector_adds_VSX(y_optimized+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardDouble_adds( y_standard+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THDoubleVector_adds_VSX(y_optimized+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardDouble_adds( y_standard+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THDoubleVector_adds_VSX(y_optimized+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(y_optimized[i], y_standard[i])) | |
| printf("%d %f %f\n", i, y_optimized[i], y_standard[i]); | |
| assert(near(y_optimized[i], y_standard[i])); | |
| } | |
| printf("All assertions PASSED for THDoubleVector_adds_VSX() test.\n\n"); | |
| free(y_standard); | |
| free(y_optimized); | |
| free(x); | |
| } | |
| void test_THFloatVector_adds_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| float *y_standard = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *y_optimized = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *x = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float c = (float)randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| x[i] = (float)randDouble(); | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardFloat_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardFloat_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardFloat_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardFloat_adds(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardFloat_adds() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THFloatVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THFloatVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THFloatVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_adds_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THFloatVector_adds_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardFloat_adds( y_standard+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_adds_VSX(y_optimized+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardFloat_adds( y_standard+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THFloatVector_adds_VSX(y_optimized+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardFloat_adds( y_standard+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THFloatVector_adds_VSX(y_optimized+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardFloat_adds( y_standard+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THFloatVector_adds_VSX(y_optimized+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardFloat_adds( y_standard+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THFloatVector_adds_VSX(y_optimized+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(y_optimized[i], y_standard[i])) | |
| printf("%d %f %f\n", i, y_optimized[i], y_standard[i]); | |
| assert(near(y_optimized[i], y_standard[i])); | |
| } | |
| printf("All assertions PASSED for THFloatVector_adds_VSX() test.\n\n"); | |
| free(y_standard); | |
| free(y_optimized); | |
| free(x); | |
| } | |
| void test_THDoubleVector_cmul_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| double *z_standard = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *z_optimized = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *x = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *y = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = randDouble(); | |
| y[i] = randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardDouble_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardDouble_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardDouble_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardDouble_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardDouble_cmul() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THDoubleVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THDoubleVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THDoubleVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THDoubleVector_cmul_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardDouble_cmul( z_standard+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_cmul_VSX(z_optimized+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardDouble_cmul( z_standard+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THDoubleVector_cmul_VSX(z_optimized+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardDouble_cmul( z_standard+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THDoubleVector_cmul_VSX(z_optimized+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardDouble_cmul( z_standard+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THDoubleVector_cmul_VSX(z_optimized+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardDouble_cmul( z_standard+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THDoubleVector_cmul_VSX(z_optimized+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(z_optimized[i], z_standard[i])) | |
| printf("%d %f %f\n", i, z_optimized[i], z_standard[i]); | |
| assert(near(z_optimized[i], z_standard[i])); | |
| } | |
| printf("All assertions PASSED for THDoubleVector_cmul_VSX() test.\n\n"); | |
| free(z_standard); | |
| free(z_optimized); | |
| free(x); | |
| } | |
| void test_THFloatVector_cmul_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| float *z_standard = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *z_optimized = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *x = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *y = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = (float)randDouble(); | |
| y[i] = (float)randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardFloat_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardFloat_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardFloat_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardFloat_cmul(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardFloat_cmul() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THFloatVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THFloatVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THFloatVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_cmul_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THFloatVector_cmul_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardFloat_cmul( z_standard+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_cmul_VSX(z_optimized+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardFloat_cmul( z_standard+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THFloatVector_cmul_VSX(z_optimized+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardFloat_cmul( z_standard+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THFloatVector_cmul_VSX(z_optimized+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardFloat_cmul( z_standard+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THFloatVector_cmul_VSX(z_optimized+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardFloat_cmul( z_standard+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THFloatVector_cmul_VSX(z_optimized+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(z_optimized[i], z_standard[i])) | |
| printf("%d %f %f\n", i, z_optimized[i], z_standard[i]); | |
| assert(near(z_optimized[i], z_standard[i])); | |
| } | |
| printf("All assertions PASSED for THFloatVector_cmul_VSX() test.\n\n"); | |
| free(z_standard); | |
| free(z_optimized); | |
| free(x); | |
| } | |
| void test_THDoubleVector_muls_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| double *y_standard = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *y_optimized = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *x = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double c = randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardDouble_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardDouble_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardDouble_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardDouble_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardDouble_muls() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THDoubleVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THDoubleVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THDoubleVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THDoubleVector_muls_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardDouble_muls( y_standard+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_muls_VSX(y_optimized+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardDouble_muls( y_standard+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THDoubleVector_muls_VSX(y_optimized+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardDouble_muls( y_standard+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THDoubleVector_muls_VSX(y_optimized+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardDouble_muls( y_standard+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THDoubleVector_muls_VSX(y_optimized+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardDouble_muls( y_standard+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THDoubleVector_muls_VSX(y_optimized+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(y_optimized[i], y_standard[i])) | |
| printf("%d %f %f\n", i, y_optimized[i], y_standard[i]); | |
| assert(near(y_optimized[i], y_standard[i])); | |
| } | |
| printf("All assertions PASSED for THDoubleVector_muls_VSX() test.\n\n"); | |
| free(y_standard); | |
| free(y_optimized); | |
| free(x); | |
| } | |
| void test_THFloatVector_muls_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| float *y_standard = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *y_optimized = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *x = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float c = (float)randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = (float)randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardFloat_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardFloat_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardFloat_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardFloat_muls(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardFloat_muls() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THFloatVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THFloatVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THFloatVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_muls_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THFloatVector_muls_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardFloat_muls( y_standard+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_muls_VSX(y_optimized+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardFloat_muls( y_standard+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THFloatVector_muls_VSX(y_optimized+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardFloat_muls( y_standard+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THFloatVector_muls_VSX(y_optimized+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardFloat_muls( y_standard+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THFloatVector_muls_VSX(y_optimized+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardFloat_muls( y_standard+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THFloatVector_muls_VSX(y_optimized+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(y_optimized[i], y_standard[i])) | |
| printf("%d %f %f\n", i, y_optimized[i], y_standard[i]); | |
| assert(near(y_optimized[i], y_standard[i])); | |
| } | |
| printf("All assertions PASSED for THFloatVector_muls_VSX() test.\n\n"); | |
| free(y_standard); | |
| free(y_optimized); | |
| free(x); | |
| } | |
| void test_THDoubleVector_cdiv_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| double *z_standard = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *z_optimized = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *x = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *y = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = randDouble(); | |
| y[i] = randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardDouble_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardDouble_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardDouble_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardDouble_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardDouble_cdiv() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THDoubleVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THDoubleVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THDoubleVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THDoubleVector_cdiv_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardDouble_cdiv( z_standard+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_cdiv_VSX(z_optimized+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardDouble_cdiv( z_standard+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THDoubleVector_cdiv_VSX(z_optimized+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardDouble_cdiv( z_standard+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THDoubleVector_cdiv_VSX(z_optimized+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardDouble_cdiv( z_standard+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THDoubleVector_cdiv_VSX(z_optimized+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardDouble_cdiv( z_standard+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THDoubleVector_cdiv_VSX(z_optimized+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(z_optimized[i], z_standard[i])) | |
| printf("%d %f %f\n", i, z_optimized[i], z_standard[i]); | |
| assert(near(z_optimized[i], z_standard[i])); | |
| } | |
| printf("All assertions PASSED for THDoubleVector_cdiv_VSX() test.\n\n"); | |
| free(z_standard); | |
| free(z_optimized); | |
| free(x); | |
| } | |
| void test_THFloatVector_cdiv_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| float *z_standard = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *z_optimized = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *x = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *y = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = (float)randDouble(); | |
| y[i] = (float)randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardFloat_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardFloat_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardFloat_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardFloat_cdiv(z_standard, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardFloat_cdiv() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THFloatVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THFloatVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THFloatVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_cdiv_VSX(z_optimized, x, y, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THFloatVector_cdiv_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardFloat_cdiv( z_standard+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_cdiv_VSX(z_optimized+1, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardFloat_cdiv( z_standard+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THFloatVector_cdiv_VSX(z_optimized+2, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardFloat_cdiv( z_standard+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THFloatVector_cdiv_VSX(z_optimized+3, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardFloat_cdiv( z_standard+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THFloatVector_cdiv_VSX(z_optimized+517, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardFloat_cdiv( z_standard+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THFloatVector_cdiv_VSX(z_optimized+517+r, x, y, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(z_optimized[i], z_standard[i])) | |
| printf("%d %f %f\n", i, z_optimized[i], z_standard[i]); | |
| assert(near(z_optimized[i], z_standard[i])); | |
| } | |
| printf("All assertions PASSED for THFloatVector_cdiv_VSX() test.\n\n"); | |
| free(z_standard); | |
| free(z_optimized); | |
| free(x); | |
| } | |
| void test_THDoubleVector_divs_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| double *y_standard = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *y_optimized = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double *x = (double *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(double)); | |
| double c = randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardDouble_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardDouble_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardDouble_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardDouble_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardDouble_divs() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THDoubleVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THDoubleVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THDoubleVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THDoubleVector_divs_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardDouble_divs( y_standard+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THDoubleVector_divs_VSX(y_optimized+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardDouble_divs( y_standard+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THDoubleVector_divs_VSX(y_optimized+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardDouble_divs( y_standard+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THDoubleVector_divs_VSX(y_optimized+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardDouble_divs( y_standard+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THDoubleVector_divs_VSX(y_optimized+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardDouble_divs( y_standard+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THDoubleVector_divs_VSX(y_optimized+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(y_optimized[i], y_standard[i])) | |
| printf("%d %f %f\n", i, y_optimized[i], y_standard[i]); | |
| assert(near(y_optimized[i], y_standard[i])); | |
| } | |
| printf("All assertions PASSED for THDoubleVector_divs_VSX() test.\n\n"); | |
| free(y_standard); | |
| free(y_optimized); | |
| free(x); | |
| } | |
| void test_THFloatVector_divs_VSX() | |
| { | |
| clock_t start, end; | |
| double elapsedSeconds_optimized, elapsedSeconds_standard; | |
| float *y_standard = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *y_optimized = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float *x = (float *)malloc(VSX_PERF_NUM_TEST_ELEMENTS*sizeof(float)); | |
| float c = (float)randDouble(); | |
| // Initialize randomly | |
| for(int i = 0; i < VSX_PERF_NUM_TEST_ELEMENTS; i++) | |
| { | |
| x[i] = randDouble(); | |
| } | |
| //------------------------------------------------- | |
| // Performance Test | |
| //------------------------------------------------- | |
| start = clock(); | |
| standardFloat_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| standardFloat_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| standardFloat_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| standardFloat_divs(y_standard, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_standard = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("standardFloat_divs() test took %.5lf seconds\n", elapsedSeconds_standard); | |
| start = clock(); | |
| THFloatVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS ); | |
| THFloatVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-1); | |
| THFloatVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_divs_VSX(y_optimized, x, c, VSX_PERF_NUM_TEST_ELEMENTS-3); | |
| end = clock(); | |
| elapsedSeconds_optimized = (double)(end - start) / CLOCKS_PER_SEC; | |
| printf("THFloatVector_divs_VSX() test took %.5lf seconds\n", elapsedSeconds_optimized); | |
| //------------------------------------------------- | |
| // Correctness Test | |
| //------------------------------------------------- | |
| standardFloat_divs( y_standard+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| THFloatVector_divs_VSX(y_optimized+1, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-2); | |
| standardFloat_divs( y_standard+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| THFloatVector_divs_VSX(y_optimized+2, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-4); | |
| standardFloat_divs( y_standard+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| THFloatVector_divs_VSX(y_optimized+3, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-6); | |
| standardFloat_divs( y_standard+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| THFloatVector_divs_VSX(y_optimized+517, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-1029); | |
| int r = rand() % 258; | |
| standardFloat_divs( y_standard+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| THFloatVector_divs_VSX(y_optimized+517+r, x, c, VSX_FUNC_NUM_TEST_ELEMENTS-(1029+r+100)); | |
| for(int i = 0; i < VSX_FUNC_NUM_TEST_ELEMENTS; i++) | |
| { | |
| if(!near(y_optimized[i], y_standard[i])) | |
| printf("%d %f %f\n", i, y_optimized[i], y_standard[i]); | |
| assert(near(y_optimized[i], y_standard[i])); | |
| } | |
| printf("All assertions PASSED for THFloatVector_divs_VSX() test.\n\n"); | |
| free(y_standard); | |
| free(y_optimized); | |
| free(x); | |
| } | |
| //-------------------------------------------------------------------------------------------------- | |
| // Run tests: | |
| //-------------------------------------------------------------------------------------------------- | |
| int main() | |
| { | |
| printf("\n"); | |
| // First test utility functions | |
| assert(!near(0.1, -0.1)); | |
| assert(!near(0.1f, -0.1f)); | |
| assert(!near(9, 10)); | |
| assert(near(0.1, 0.1000001)); | |
| assert(near(0.1f, 0.1000001f)); | |
| assert(near(100.764, 100.764)); | |
| assert(!near(NAN, 0.0)); | |
| assert(!near(-9.5, NAN)); | |
| assert(!near(NAN, 100)); | |
| assert(!near(-0.0, NAN)); | |
| assert(near(NAN, NAN)); | |
| assert(near(INFINITY, INFINITY)); | |
| assert(near(-INFINITY, -INFINITY)); | |
| assert(!near(INFINITY, NAN)); | |
| assert(!near(0, INFINITY)); | |
| assert(!near(-999.4324, INFINITY)); | |
| assert(!near(INFINITY, 982374.1)); | |
| assert(!near(-INFINITY, INFINITY)); | |
| // Then test each vectorized function | |
| test_THDoubleVector_fill_VSX(); | |
| test_THFloatVector_fill_VSX(); | |
| test_THDoubleVector_cadd_VSX(); | |
| test_THFloatVector_cadd_VSX(); | |
| test_THDoubleVector_adds_VSX(); | |
| test_THFloatVector_adds_VSX(); | |
| test_THDoubleVector_cmul_VSX(); | |
| test_THFloatVector_cmul_VSX(); | |
| test_THDoubleVector_muls_VSX(); | |
| test_THFloatVector_muls_VSX(); | |
| test_THDoubleVector_cdiv_VSX(); | |
| test_THFloatVector_cdiv_VSX(); | |
| test_THDoubleVector_divs_VSX(); | |
| test_THFloatVector_divs_VSX(); | |
| printf("Finished runnning all tests. All tests PASSED.\n"); | |
| return 0; | |
| } | |
| #endif // defined RUN_VSX_TESTS | |
| #endif // defined __PPC64__ |
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