// Matrix Construct // // Copyright (C) Matrix Construct Developers, Authors & Contributors // Copyright (C) 2016-2021 Jason Volk // // Permission to use, copy, modify, and/or distribute this software for any // purpose with or without fee is hereby granted, provided that the above // copyright notice and this permission notice is present in all copies. The // full license for this software is available in the LICENSE file. inline void __attribute__((always_inline)) ircd_gpt_norm_fmad(__local float4 *const out, __local const float4 *const in, __global const float4 *const restrict bias, __global const float4 *const restrict weight, const uint i) { out[i] = in[i] * weight[i] + bias[i]; } /// Gaussian Error Linear Unit inline void ircd_gpt_ffnn_gelu(__local float4 *const out, __local const float4 *const in_, const uint i) { const float4 in = in_[i]; float4 a; a = 0.044715f; a *= in; a *= in; a += 1.0f; a *= 0.7978845608f; a *= in; a = tanh(a); a += 1.0f; a *= in; a *= 0.5f; out[i] = a; } // Matrix * Vector Multiply/Accumulate inline void ircd_gpt_sgemv(__local float4 *const restrict out, __local const float4 *const restrict in, __global const float4 *const restrict bias, __global const float4 *const restrict weight, const uint width, const uint height, const uint segs) { const uint li = get_local_id(0), ln = get_local_size(0), lanes = 4; __attribute__((opencl_unroll_hint)) for(uint i = 0; i < segs; ++i) { const uint col = i * ln + li; out[col] = bias[col]; } for(uint j = 0; j < height; ++j) for(uint i = 0; i < segs; ++i) { const uint col = i * ln + li; float4 acc = 0.0f; for(uint k = 0; k < lanes; ++k) { const uint row = j * lanes + k, cell = row * width + col; acc += in[j][k] * weight[cell]; } out[col] += acc; } } inline void __attribute__((always_inline)) ircd_gpt_ffnn_fcon(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __local union ircd_gpt_ffnn_aperaturev *const restrict out, __local const union ircd_gpt_tokenv *const in, __global const float4 *const restrict bias, __global const float4 *const restrict weight) { const uint li = get_local_id(0), ln = get_local_size(0), width = opts->ffnn_width, height = opts->ffnn_height, tiles = opts->ffnn_mult; ircd_gpt_sgemv(out->fcon, in->word, bias, weight, width, height, tiles); for(uint i = 0; i < tiles; ++i) ircd_gpt_ffnn_gelu(out->fcon, out->fcon, i * ln + li); } inline void __attribute__((always_inline)) ircd_gpt_ffnn(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __local union ircd_gpt_tokenv *const restrict token, __local union ircd_gpt_ffnn_aperaturev *const restrict buf, __local union ircd_gpt_ffnn_aperaturev *const restrict tmp0, __local union ircd_gpt_tokenv *const restrict tmp1, __global const float4 *const restrict norm_bias, __global const float4 *const restrict norm_weight, __global const float4 *const restrict fcon_bias, __global const float4 *const restrict fcon_weight, __global const float4 *const restrict proj_bias, __global const float4 *const restrict proj_weight) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0), width = opts->ffnn_width, height = opts->ffnn_height; // Layer re-normalization ircd_simt_math_norm_f4lldr(token->word, token->word, buf->word); ircd_gpt_norm_fmad(token->word, token->word, norm_bias, norm_weight, li); // ln's writes are still pending but fcon reads results across threads. barrier(CLK_LOCAL_MEM_FENCE); // Fully connected ircd_gpt_ffnn_fcon(ctrl, opts, buf, token, fcon_bias, fcon_weight); // fcon's writes are still pending but proj reads results across threads. barrier(CLK_LOCAL_MEM_FENCE); // Projection ircd_gpt_sgemv(token->word, buf->fcon, proj_bias, proj_weight, height, width, 1); } inline void __attribute__((always_inline)) ircd_gpt_attn_self(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __local union ircd_gpt_tokenv *const restrict out, __local float self[][12], __global const struct ircd_gpt_attn_qkvv *const restrict token, __global const struct ircd_gpt_attn_mask *const restrict mask) // [1024][1024], { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0), ti = li % 12, ki = li / 12; // Low-rank mask if(li < 12) { for(uint i = 0; i < wn; ++i) { if(!mask[wi].token[i]) { self[i][li] = -10000.0f; continue; } float4 acc = 0.0f; for(uint k = 0; k < 64/4; ++k) { float4 qry = token[wi].qry.attn[li][k], key = token[i].key.attn[li][k]; acc += qry * key; } const float sum = ircd_simt_reduce_add_f4(acc), res = sum / 8.0f; self[i][li] = res; } // Three-piece softmax float mu = -10000.0f; for(uint i = 0; i < wn; ++i) mu = max(mu, self[i][li]); for(uint i = 0; i < wn; ++i) self[i][li] = exp(self[i][li] - mu); float sum = 0.0f; __attribute__((opencl_unroll_hint)) for(uint i = 0; i < wn; ++i) sum += self[i][li]; const float lambda = 1.0f / sum; __attribute__((opencl_unroll_hint)) for(uint i = 0; i < wn; ++i) self[i][li] *= lambda; } // Propagate to full width for value dot prod. barrier(CLK_LOCAL_MEM_FENCE); float4 acc = 0.0f; __attribute__((opencl_unroll_hint)) for(uint i = 0; i < wn; ++i) { const float4 attn = self[i][ti], val = token[i].val.attn[ti][ki]; acc += attn * val; } out->attn[ti][ki] = acc; } inline void __attribute__((always_inline)) ircd_gpt_attn_proj(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __local union ircd_gpt_tokenv *const out, __local const union ircd_gpt_tokenv *const xattn, __global const float4 *const restrict bias, __global const float4 *const restrict weight) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0), width = opts->attn_height, // same height = opts->attn_height; // Projection ircd_gpt_sgemv(out->word, xattn->word, bias, weight, width, height, 1); } __kernel void ircd_gpt_coil(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict accum, __global const struct ircd_gpt_attn_qkvv *const restrict state, __global const struct ircd_gpt_attn_mask *const restrict mask, // [1024][1024], __global const float4 *const restrict attn_proj_bias, __global const float4 *const restrict attn_proj_weight, __global const float4 *const restrict ffnn_norm_bias, __global const float4 *const restrict ffnn_norm_weight, __global const float4 *const restrict ffnn_fcon_bias, __global const float4 *const restrict ffnn_fcon_weight, __global const float4 *const restrict ffnn_proj_bias, __global const float4 *const restrict ffnn_proj_weight) { const uint li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0); __local union ircd_gpt_tokenv buf1, buf0; __local union { union ircd_gpt_ffnn_aperaturev ffnn_fcon[2]; float attn_self[512][12]; } buf; // Self-attention backend; this computes the self-attention result now // that keys and values are globally visible across tokens. ircd_gpt_attn_self ( ctrl, opts, &buf1, buf.attn_self, state, mask ); barrier(CLK_LOCAL_MEM_FENCE); // Project result of self-attention. ircd_gpt_attn_proj ( ctrl, opts, &buf0, &buf1, attn_proj_bias, attn_proj_weight ); // Frontend accumulation { const float4 attn = buf0.word[li], resid = accum[wi].word[li]; buf0.word[li] += resid; accum[wi].word[li] += attn; } // Backend mlp; layer-norm acquires any pending writes, no fence required. ircd_gpt_ffnn ( ctrl, opts, &buf0, buf.ffnn_fcon + 0, buf.ffnn_fcon + 1, &buf1, ffnn_norm_bias, ffnn_norm_weight, ffnn_fcon_bias, ffnn_fcon_weight, ffnn_proj_bias, ffnn_proj_weight ); // Backend accumulation { const float4 ffnn = buf0.word[li], resid = accum[wi].word[li], result = ffnn + resid; accum[wi].word[li] = result; } } __kernel void ircd_gpt_attn_fcon(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_attn_aperaturev *const restrict state, __global const union ircd_gpt_tokenv *const restrict accum, __global const float4 *const restrict norm_bias, __global const float4 *const restrict norm_weight, __global const float4 *const restrict fcon_bias, __global const float4 *const restrict fcon_weight) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0), width = opts->attn_width, height = opts->attn_height, tiles = opts->attn_mult; __local union ircd_gpt_attn_aperaturev token; __local float4 tmp[768/4]; token.word[li] = accum[wi].word[li]; // Layer re-normalization ircd_simt_math_norm_f4lldr(token.word, token.word, tmp); ircd_gpt_norm_fmad(tmp, token.word, norm_bias, norm_weight, li); // Ln's writes are still pending; fcon requires results across threads. barrier(CLK_LOCAL_MEM_FENCE); // Fully connected ircd_gpt_sgemv(token.fcon, tmp, fcon_bias, fcon_weight, width, height, tiles); // Export queries, keys, and values. for(uint i = 0; i < tiles; ++i) state[wi].proj[i][li] = token.proj[i][li]; } // // frontend // inline void _ircd_gpt_lm_embed(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict out, __global const union ircd_gpt_tokenv *const restrict pos, __global const union ircd_gpt_tokenv *const restrict vocab, const uint out_idx, const uint tok_idx, const uint word_idx) { const ushort ring_idx = (ctrl->head + tok_idx) % opts->buffer_tokens, token = ctrl->token[ring_idx]; const float4 wte = vocab[token].word[word_idx], wpe = pos[tok_idx].word[word_idx]; out[out_idx].word[word_idx] = wte + wpe; } __kernel void ircd_gpt_lm_embed(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict accum, __global const union ircd_gpt_tokenv *const restrict pos, __global const union ircd_gpt_tokenv *const restrict vocab) { const uint li = get_local_id(0), wi = get_group_id(0), wn = get_num_groups(0); for(uint i = 0; i < ctrl->tokens; ++i) if(i % wn == wi) _ircd_gpt_lm_embed(ctrl, opts, accum, pos, vocab, i, i, li); } __kernel void ircd_gpt_lm_norm(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict accum, __global const float4 *const restrict norm_bias, __global const float4 *const restrict norm_weight) { const uint li = get_local_id(0), ln = get_local_size(0), wi = get_global_offset(0) / ln + get_group_id(0); __local union ircd_gpt_tokenv token, tmp; token.word[li] = accum[wi].word[li]; // Final re-normalization ircd_simt_math_norm_f4lldr(token.word, token.word, tmp.word); ircd_gpt_norm_fmad(token.word, token.word, norm_bias, norm_weight, li); accum[wi].word[li] = token.word[li]; } __kernel void ircd_gpt_lm_logit(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global float *const restrict logit, __global const union ircd_gpt_tokenv *const restrict accum, __global const union ircd_gpt_tokenv *const restrict token) { const uint gi = get_global_id(0), ti = ctrl->tokens - 1, words = opts->embed_width; float4 acc = 0.0f; __attribute__((opencl_unroll_hint)) for(uint j = 0; j < words; ++j) { const float4 in = accum[ti].word[j], vocab = token[gi].word[j]; acc += vocab * in; } const float ret = ircd_simt_reduce_add_f4(acc); if(gi < opts->logits) logit[gi] = ret; else logit[gi] = -10000.0f; } __kernel void ircd_gpt_lm_logsm(__global struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global float4 *const restrict logsm, __global float4 *const restrict logexp, __global const float4 *const restrict logit) { const uint gi = get_global_id(0), li = get_local_id(0), ln = get_local_size(0), logits = opts->logits, logits_alignup = logits + (ln - (logits % ln)), tn = logits_alignup / ln / 4, ti = tn * li; __local float share[256]; __local float4 share4[256]; share4[li] = -10000.0f; for(uint i = ti; i < ti + tn; ++i) share4[li] = max(share4[li], logit[i]); share[li] = -10000.0f; for(uint k = 0; k < 4; ++k) share[li] = max(share[li], share4[li][k]); ircd_simt_reduce_max_flldr(share); if(li == 0) share4[li] = ctrl->samax_mu = share[li]; ircd_simt_broadcast_f4lldr(share4); const float4 mu = share4[li]; share4[li] = 0.0f; for(uint i = ti; i < ti + tn; ++i) { const float4 reg = logit[i] - mu; float4 res; for(uint k = 0; k < 4; ++k) if(i * 4 + k < logits) res[k] = exp(reg[k]); else res[k] = 0.0f; share4[li] += res; logexp[i] = res; } ircd_simt_reduce_add_f4lldr(share4); if(li == 0) { const float sum = ircd_simt_reduce_add_f4(share4[li]); share4[li][0] = ctrl->samax_sum = sum; share4[li][1] = ctrl->samax_lambda = 1.0f / sum; } ircd_simt_broadcast_f4lldr(share4); const float4 sum = share4[li][0], lambda = share4[li][1]; for(uint i = ti; i < ti + tn; ++i) logsm[i] = logexp[i] * lambda; } inline void __attribute__((always_inline)) ircd_gpt_leave(__global struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, const uint li) { // If the call value has been set to something other than default we // do nothing else here. if(ctrl->call != IRCD_GPT_ECOMPLETE) return; // No action for other threads right now if(li != 0) return; // Run debug checks and assertions. #ifdef RB_DEBUG if(ctrl->call == IRCD_GPT_ECOMPLETE) if(ctrl->tokens < 2) ctrl->call = IRCD_GPT_ETOKENS; #endif // On the last cycle, with no prior call or error code set, indicate // a nominal exit condition. if(ctrl->cycle + 1 >= opts->limit) { ctrl->call = IRCD_GPT_ACCEPT; ctrl->epoch += 1; } ctrl->cycle += 1; ctrl->magic = 0xC7012C70U; } inline void __attribute__((always_inline)) ircd_gpt_lm_result(__global struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, const uint li, __local const ushort *const restrict idx, __global const float *const restrict logsm, __global const float *const restrict logexp, __global const float *const restrict logit) { // When the hypercall code is already set, bail here. if(ctrl->call != IRCD_GPT_ECOMPLETE) return; // To read from cells other than idx[0] we need this barrier. if(opts->top_k > 1) barrier(CLK_LOCAL_MEM_FENCE); // Mask for write-leader if(li != 0) return; const bool buffer_full = ctrl->tokens >= opts->buffer_tokens; const ulong rnd = opts->top_k > 1? ircd_simt_rand_xoshiro256pg(ctrl->rand): 1UL; const ushort entro = max(opts->top_k, 1U), select = rnd % entro, token = idx[select], dest = (ctrl->head + ctrl->tokens) % opts->buffer_tokens, tokens = min(ctrl->tokens + 1, opts->buffer_tokens), head = buffer_full? (ctrl->head + 1) % opts->buffer_tokens: ctrl->head; ctrl->head = head; ctrl->tokens = tokens; ctrl->token[dest] = token; const ushort ln = get_local_size(0), next_select = (select + 1) % ln, next_token = idx[next_select], sum_sel = ctrl->epoch % 3; const float test_lsm = logexp[opts->label], loss = 0.0f - log(test_lsm * ctrl->samax_lambda), perp = (1.0f - logsm[token]) * native_log2(opts->logits), cert = (logsm[token] - logsm[next_token]) / logsm[token], loss_sum = ctrl->loss_sum[0] + ctrl->loss_sum[1] + ctrl->loss_sum[2] + loss, perp_sum = ctrl->perp_sum[0] + ctrl->perp_sum[1] + ctrl->perp_sum[2] + perp, cert_sum = ctrl->cert_sum[0] + ctrl->cert_sum[1] + ctrl->cert_sum[2] + cert, loss_mean = loss_sum / (ctrl->epoch + 1.0f), perp_mean = perp_sum / (ctrl->epoch + 1.0f), cert_mean = cert_sum / (ctrl->epoch + 1.0f); ctrl->loss = loss; ctrl->loss_sum[sum_sel] += loss; ctrl->loss_mean = loss_mean; ctrl->perp = perp; ctrl->perp_sum[sum_sel] += perp; ctrl->perp_mean = perp_mean; ctrl->cert = cert; ctrl->cert_sum[sum_sel] += cert; ctrl->cert_mean = cert_mean; } __kernel void ircd_gpt_lm_select(__global struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global const float *const restrict logsm, __global const float *const restrict logexp, __global const float *const restrict logit) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0), tn = opts->logits / ln, ti = tn * li; __local ushort idx[256]; idx[li] = ti; for(uint j = ti + 1; j < ti + tn; ++j) if(logsm[j] > logsm[idx[li]]) idx[li] = j; ircd_simt_sort_idx16_flldr(idx, logsm); ircd_gpt_lm_result(ctrl, opts, li, idx, logsm, logexp, logit); ircd_gpt_leave(ctrl, opts, li); } // // backpropagations // inline void ircd_gpt_prop_elem(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global float4 *const restrict param_, __global float4 *const restrict exp_avg_, __global float4 *const restrict exp_avg_sqr_) { const uint li = get_local_id(0), step = ctrl->step; const float4 param = param_[li], grad = ctrl->loss_mean, alpha[2] = { 1.0f - opts->beta[0], 1.0f - opts->beta[1], }, exp_avg = step? exp_avg_[li]: 0.0f, exp_avg_sqr = step? exp_avg_sqr_[li]: 0.0f, exp_avg_mul = exp_avg * opts->beta[0], exp_avg_dot = exp_avg_mul + alpha[0] * grad, exp_avg_sqr_mul = exp_avg_sqr * opts->beta[1], exp_avg_sqr_dot = exp_avg_sqr_mul + alpha[1] * grad * grad, denom = sqrt(exp_avg_sqr_dot) + opts->epsilon, delta = opts->alpha * (exp_avg_dot / denom), update = param - delta; param_[li] = update; exp_avg_[li] = exp_avg_dot; exp_avg_sqr_[li] = exp_avg_sqr_dot; } __kernel void ircd_gpt_norm_prop(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict bias, __global union ircd_gpt_tokenv *const restrict bias_m0, __global union ircd_gpt_tokenv *const restrict bias_m1, __global union ircd_gpt_tokenv *const restrict weight, __global union ircd_gpt_tokenv *const restrict weight_m0, __global union ircd_gpt_tokenv *const restrict weight_m1) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0); ircd_gpt_prop_elem ( ctrl, opts, bias->word, bias_m0->word, bias_m1->word ); ircd_gpt_prop_elem ( ctrl, opts, weight->word, weight_m0->word, weight_m1->word ); } __kernel void ircd_gpt_coil_prop_attn(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict norm_bias, __global union ircd_gpt_tokenv *const restrict norm_bias_m0, __global union ircd_gpt_tokenv *const restrict norm_bias_m1, __global union ircd_gpt_tokenv *const restrict norm_weight, __global union ircd_gpt_tokenv *const restrict norm_weight_m0, __global union ircd_gpt_tokenv *const restrict norm_weight_m1, __global union ircd_gpt_attn_aperaturev *const restrict fcon_bias, __global union ircd_gpt_attn_aperaturev *const restrict fcon_bias_m0, __global union ircd_gpt_attn_aperaturev *const restrict fcon_bias_m1, __global union ircd_gpt_attn_aperaturev *const restrict fcon_weight, __global union ircd_gpt_attn_aperaturev *const restrict fcon_weight_m0, __global union ircd_gpt_attn_aperaturev *const restrict fcon_weight_m1, __global union ircd_gpt_tokenv *const restrict proj_bias, __global union ircd_gpt_tokenv *const restrict proj_bias_m0, __global union ircd_gpt_tokenv *const restrict proj_bias_m1, __global union ircd_gpt_tokenv *const restrict proj_weight, __global union ircd_gpt_tokenv *const restrict proj_weight_m0, __global union ircd_gpt_tokenv *const restrict proj_weight_m1) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0); ircd_gpt_norm_prop ( ctrl, opts, norm_bias, norm_bias_m0, norm_bias_m1, norm_weight, norm_weight_m0, norm_weight_m1 ); for(uint j = 0; j < 3; ++j) ircd_gpt_prop_elem ( ctrl, opts, fcon_bias->proj[j], fcon_bias_m0->proj[j], fcon_bias_m1->proj[j] ); for(uint i = 0; i < 768; ++i) for(uint j = 0; j < 3; ++j) ircd_gpt_prop_elem ( ctrl, opts, fcon_weight[i].proj[j], fcon_weight_m0[i].proj[j], fcon_weight_m1[i].proj[j] ); ircd_gpt_prop_elem ( ctrl, opts, proj_bias->word, proj_bias_m0->word, proj_bias_m1->word ); for(uint i = 0; i < 768; ++i) ircd_gpt_prop_elem ( ctrl, opts, proj_weight[i].word, proj_weight_m0[i].word, proj_weight_m1[i].word ); } __kernel void ircd_gpt_coil_prop_ffnn(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict norm_bias, __global union ircd_gpt_tokenv *const restrict norm_bias_m0, __global union ircd_gpt_tokenv *const restrict norm_bias_m1, __global union ircd_gpt_tokenv *const restrict norm_weight, __global union ircd_gpt_tokenv *const restrict norm_weight_m0, __global union ircd_gpt_tokenv *const restrict norm_weight_m1, __global union ircd_gpt_ffnn_aperaturev *const restrict fcon_bias, __global union ircd_gpt_ffnn_aperaturev *const restrict fcon_bias_m0, __global union ircd_gpt_ffnn_aperaturev *const restrict fcon_bias_m1, __global union ircd_gpt_ffnn_aperaturev *const restrict fcon_weight, __global union ircd_gpt_ffnn_aperaturev *const restrict fcon_weight_m0, __global union ircd_gpt_ffnn_aperaturev *const restrict fcon_weight_m1, __global union ircd_gpt_tokenv *const restrict proj_bias, __global union ircd_gpt_tokenv *const restrict proj_bias_m0, __global union ircd_gpt_tokenv *const restrict proj_bias_m1, __global union ircd_gpt_tokenv *const restrict proj_weight, __global union ircd_gpt_tokenv *const restrict proj_weight_m0, __global union ircd_gpt_tokenv *const restrict proj_weight_m1) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0); ircd_gpt_norm_prop ( ctrl, opts, norm_bias, norm_bias_m0, norm_bias_m1, norm_weight, norm_weight_m0, norm_weight_m1 ); for(uint j = 0; j < 4; ++j) ircd_gpt_prop_elem ( ctrl, opts, fcon_bias->proj[j], fcon_bias_m0->proj[j], fcon_bias_m1->proj[j] ); for(uint i = 0; i < 768; ++i) for(uint j = 0; j < 4; ++j) ircd_gpt_prop_elem ( ctrl, opts, fcon_weight[i].proj[j], fcon_weight_m0[i].proj[j], fcon_weight_m1[i].proj[j] ); ircd_gpt_prop_elem ( ctrl, opts, proj_bias->word, proj_bias_m0->word, proj_bias_m1->word ); for(uint i = 0; i < 3072; ++i) ircd_gpt_prop_elem ( ctrl, opts, proj_weight[i].word, proj_weight_m0[i].word, proj_weight_m1[i].word ); } __kernel void ircd_gpt_lm_embed_prop(__global const struct ircd_gpt_task *const ctrl, __constant const struct ircd_gpt_opts *const opts, __global union ircd_gpt_tokenv *const restrict pos, __global union ircd_gpt_tokenv *const restrict pos_m0, __global union ircd_gpt_tokenv *const restrict pos_m1, __global union ircd_gpt_tokenv *const restrict token, __global union ircd_gpt_tokenv *const restrict token_m0, __global union ircd_gpt_tokenv *const restrict token_m1) { const uint gi = get_global_id(0), gn = get_global_size(0), li = get_local_id(0), ln = get_local_size(0), wi = get_group_id(0), wn = get_num_groups(0), cn = opts->context_tokens / wn, ci = cn * wi, tn = opts->logits / wn, ti = tn * wi; for(uint i = ci; i < ci + cn; ++i) ircd_gpt_prop_elem ( ctrl, opts, pos[i].word, pos_m0[i].word, pos_m1[i].word ); for(uint i = ti; i < ti + tn; ++i) ircd_gpt_prop_elem ( ctrl, opts, token[i].word, token_m0[i].word, token_m1[i].word ); }