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| 1 | +/*************************************************************************** |
| 2 | +Copyright (c) 2025, The OpenBLAS Project |
| 3 | +All rights reserved. |
| 4 | +
|
| 5 | +Redistribution and use in source and binary forms, with or without |
| 6 | +modification, are permitted provided that the following conditions are |
| 7 | +met: |
| 8 | +
|
| 9 | + 1. Redistributions of source code must retain the above copyright |
| 10 | + notice, this list of conditions and the following disclaimer. |
| 11 | +
|
| 12 | + 2. Redistributions in binary form must reproduce the above copyright |
| 13 | + notice, this list of conditions and the following disclaimer in |
| 14 | + the documentation and/or other materials provided with the |
| 15 | + distribution. |
| 16 | + 3. Neither the name of the OpenBLAS project nor the names of |
| 17 | + its contributors may be used to endorse or promote products |
| 18 | + derived from this software without specific prior written |
| 19 | + permission. |
| 20 | +
|
| 21 | +THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" |
| 22 | +AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE |
| 23 | +IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE |
| 24 | +ARE DISCLAIMED. IN NO EVENT SHALL THE OPENBLAS PROJECT OR CONTRIBUTORS BE |
| 25 | +LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL |
| 26 | +DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR |
| 27 | +SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER |
| 28 | +CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, |
| 29 | +OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE |
| 30 | +USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. |
| 31 | +*****************************************************************************/ |
| 32 | + |
| 33 | +#include <arm_sve.h> |
| 34 | +#include "common.h" |
| 35 | + |
| 36 | +#ifdef DOUBLE |
| 37 | +#define SV_COUNT svcntd |
| 38 | +#define SV_TYPE svfloat64_t |
| 39 | +#define SV_TRUE svptrue_b64 |
| 40 | +#define SV_WHILE svwhilelt_b64_s64 |
| 41 | +#define SV_DUP svdup_f64 |
| 42 | +#else |
| 43 | +#define SV_COUNT svcntw |
| 44 | +#define SV_TYPE svfloat32_t |
| 45 | +#define SV_TRUE svptrue_b32 |
| 46 | +#define SV_WHILE svwhilelt_b32_s64 |
| 47 | +#define SV_DUP svdup_f32 |
| 48 | +#endif |
| 49 | + |
| 50 | +static FLOAT dot_kernel_sve(BLASLONG n, FLOAT* x, FLOAT* y) |
| 51 | +{ |
| 52 | + SV_TYPE temp0_vec = SV_DUP(0.0); |
| 53 | + SV_TYPE temp1_vec = SV_DUP(0.0); |
| 54 | + SV_TYPE temp2_vec = SV_DUP(0.0); |
| 55 | + SV_TYPE temp3_vec = SV_DUP(0.0); |
| 56 | + SV_TYPE temp4_vec = SV_DUP(0.0); |
| 57 | + SV_TYPE temp5_vec = SV_DUP(0.0); |
| 58 | + SV_TYPE temp6_vec = SV_DUP(0.0); |
| 59 | + SV_TYPE temp7_vec = SV_DUP(0.0); |
| 60 | + |
| 61 | + BLASLONG i = 0; |
| 62 | + BLASLONG sve_size = SV_COUNT(); |
| 63 | + |
| 64 | + while ((i + sve_size * 8 - 1) < n) { |
| 65 | + FLOAT *x0_ptr = x + i; |
| 66 | + SV_TYPE x0_vec = svld1_vnum(SV_TRUE(), x0_ptr, 0); |
| 67 | + SV_TYPE x1_vec = svld1_vnum(SV_TRUE(), x0_ptr, 1); |
| 68 | + SV_TYPE x2_vec = svld1_vnum(SV_TRUE(), x0_ptr, 2); |
| 69 | + SV_TYPE x3_vec = svld1_vnum(SV_TRUE(), x0_ptr, 3); |
| 70 | + SV_TYPE x4_vec = svld1_vnum(SV_TRUE(), x0_ptr, 4); |
| 71 | + SV_TYPE x5_vec = svld1_vnum(SV_TRUE(), x0_ptr, 5); |
| 72 | + SV_TYPE x6_vec = svld1_vnum(SV_TRUE(), x0_ptr, 6); |
| 73 | + SV_TYPE x7_vec = svld1_vnum(SV_TRUE(), x0_ptr, 7); |
| 74 | + |
| 75 | + FLOAT *y0_ptr = y + i; |
| 76 | + SV_TYPE y0_vec = svld1_vnum(SV_TRUE(), y0_ptr, 0); |
| 77 | + SV_TYPE y1_vec = svld1_vnum(SV_TRUE(), y0_ptr, 1); |
| 78 | + SV_TYPE y2_vec = svld1_vnum(SV_TRUE(), y0_ptr, 2); |
| 79 | + SV_TYPE y3_vec = svld1_vnum(SV_TRUE(), y0_ptr, 3); |
| 80 | + SV_TYPE y4_vec = svld1_vnum(SV_TRUE(), y0_ptr, 4); |
| 81 | + SV_TYPE y5_vec = svld1_vnum(SV_TRUE(), y0_ptr, 5); |
| 82 | + SV_TYPE y6_vec = svld1_vnum(SV_TRUE(), y0_ptr, 6); |
| 83 | + SV_TYPE y7_vec = svld1_vnum(SV_TRUE(), y0_ptr, 7); |
| 84 | + |
| 85 | + temp0_vec = svmla_x(SV_TRUE(), temp0_vec, x0_vec, y0_vec); |
| 86 | + temp1_vec = svmla_x(SV_TRUE(), temp1_vec, x1_vec, y1_vec); |
| 87 | + temp2_vec = svmla_x(SV_TRUE(), temp2_vec, x2_vec, y2_vec); |
| 88 | + temp3_vec = svmla_x(SV_TRUE(), temp3_vec, x3_vec, y3_vec); |
| 89 | + temp4_vec = svmla_x(SV_TRUE(), temp4_vec, x4_vec, y4_vec); |
| 90 | + temp5_vec = svmla_x(SV_TRUE(), temp5_vec, x5_vec, y5_vec); |
| 91 | + temp6_vec = svmla_x(SV_TRUE(), temp6_vec, x6_vec, y6_vec); |
| 92 | + temp7_vec = svmla_x(SV_TRUE(), temp7_vec, x7_vec, y7_vec); |
| 93 | + |
| 94 | + i += sve_size * 8; |
| 95 | + } |
| 96 | + |
| 97 | + if (i < n) { |
| 98 | + svbool_t pg0 = SV_WHILE(i + sve_size * 0, n); |
| 99 | + svbool_t pg1 = SV_WHILE(i + sve_size * 1, n); |
| 100 | + svbool_t pg2 = SV_WHILE(i + sve_size * 2, n); |
| 101 | + svbool_t pg3 = SV_WHILE(i + sve_size * 3, n); |
| 102 | + svbool_t pg4 = SV_WHILE(i + sve_size * 4, n); |
| 103 | + svbool_t pg5 = SV_WHILE(i + sve_size * 5, n); |
| 104 | + svbool_t pg6 = SV_WHILE(i + sve_size * 6, n); |
| 105 | + svbool_t pg7 = SV_WHILE(i + sve_size * 7, n); |
| 106 | + |
| 107 | + FLOAT *x0_ptr = x + i; |
| 108 | + SV_TYPE x0_vec = svld1_vnum(pg0, x0_ptr, 0); |
| 109 | + SV_TYPE x1_vec = svld1_vnum(pg1, x0_ptr, 1); |
| 110 | + SV_TYPE x2_vec = svld1_vnum(pg2, x0_ptr, 2); |
| 111 | + SV_TYPE x3_vec = svld1_vnum(pg3, x0_ptr, 3); |
| 112 | + SV_TYPE x4_vec = svld1_vnum(pg4, x0_ptr, 4); |
| 113 | + SV_TYPE x5_vec = svld1_vnum(pg5, x0_ptr, 5); |
| 114 | + SV_TYPE x6_vec = svld1_vnum(pg6, x0_ptr, 6); |
| 115 | + SV_TYPE x7_vec = svld1_vnum(pg7, x0_ptr, 7); |
| 116 | + |
| 117 | + FLOAT *y0_ptr = y + i; |
| 118 | + SV_TYPE y0_vec = svld1_vnum(pg0, y0_ptr, 0); |
| 119 | + SV_TYPE y1_vec = svld1_vnum(pg1, y0_ptr, 1); |
| 120 | + SV_TYPE y2_vec = svld1_vnum(pg2, y0_ptr, 2); |
| 121 | + SV_TYPE y3_vec = svld1_vnum(pg3, y0_ptr, 3); |
| 122 | + SV_TYPE y4_vec = svld1_vnum(pg4, y0_ptr, 4); |
| 123 | + SV_TYPE y5_vec = svld1_vnum(pg5, y0_ptr, 5); |
| 124 | + SV_TYPE y6_vec = svld1_vnum(pg6, y0_ptr, 6); |
| 125 | + SV_TYPE y7_vec = svld1_vnum(pg7, y0_ptr, 7); |
| 126 | + |
| 127 | + temp0_vec = svmla_m(pg0, temp0_vec, x0_vec, y0_vec); |
| 128 | + temp1_vec = svmla_m(pg1, temp1_vec, x1_vec, y1_vec); |
| 129 | + temp2_vec = svmla_m(pg2, temp2_vec, x2_vec, y2_vec); |
| 130 | + temp3_vec = svmla_m(pg3, temp3_vec, x3_vec, y3_vec); |
| 131 | + temp4_vec = svmla_m(pg4, temp4_vec, x4_vec, y4_vec); |
| 132 | + temp5_vec = svmla_m(pg5, temp5_vec, x5_vec, y5_vec); |
| 133 | + temp6_vec = svmla_m(pg6, temp6_vec, x6_vec, y6_vec); |
| 134 | + temp7_vec = svmla_m(pg7, temp7_vec, x7_vec, y7_vec); |
| 135 | + } |
| 136 | + |
| 137 | + temp0_vec = svadd_x(SV_TRUE(), temp0_vec, temp1_vec); |
| 138 | + temp2_vec = svadd_x(SV_TRUE(), temp2_vec, temp3_vec); |
| 139 | + temp4_vec = svadd_x(SV_TRUE(), temp4_vec, temp5_vec); |
| 140 | + temp6_vec = svadd_x(SV_TRUE(), temp6_vec, temp7_vec); |
| 141 | + temp0_vec = svadd_x(SV_TRUE(), temp0_vec, temp2_vec); |
| 142 | + temp4_vec = svadd_x(SV_TRUE(), temp4_vec, temp6_vec); |
| 143 | + temp0_vec = svadd_x(SV_TRUE(), temp0_vec, temp4_vec); |
| 144 | + |
| 145 | + return svaddv(SV_TRUE(), temp0_vec); |
| 146 | +} |
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