Download tasks/cpu-decoder-graph-executor/environment/app/graph_spec.py from bespokelabs/AutoResearchExam: direct link, hf CLI and curl.
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https://huggingface.co/datasets/bespokelabs/AutoResearchExam/resolve/main/tasks/cpu-decoder-graph-executor/environment/app/graph_spec.py
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hf download hf://datasets/bespokelabs/AutoResearchExam/tasks/cpu-decoder-graph-executor/environment/app/graph_spec.py
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curl -L -o graph_spec.py https://huggingface.co/datasets/bespokelabs/AutoResearchExam/resolve/main/tasks/cpu-decoder-graph-executor/environment/app/graph_spec.py
4.62 kB
| import numpy as np | |
| D_MODEL_CHOICES = (192, 256, 384) | |
| FF_RATIO_CHOICES = (2.6875, 4.0) | |
| N_LAYER_CHOICES = (16, 32) | |
| N_HEAD_CHOICES = (4, 8) | |
| KV_DIV_CHOICES = (1, 2, 4) | |
| T_CHOICES = (1, 1, 1, 8, 8, 32) | |
| RMS_EPS = 1e-5 | |
| ROPE_THETA = 10000.0 | |
| def sample_spec(seed): | |
| """Return the graph_spec dict for `seed`.""" | |
| rng = np.random.default_rng(seed) | |
| d_model = int(rng.choice(D_MODEL_CHOICES)) | |
| ratio = float(rng.choice(FF_RATIO_CHOICES)) | |
| d_ff = int(round(d_model * ratio / 32.0)) * 32 | |
| n_layers = int(rng.choice(N_LAYER_CHOICES)) | |
| n_heads = int(rng.choice(N_HEAD_CHOICES)) | |
| head_dim = d_model // n_heads | |
| n_kv_heads = n_heads // int(rng.choice(KV_DIV_CHOICES)) | |
| T = int(rng.choice(T_CHOICES)) | |
| layers = [] | |
| for li in range(n_layers): | |
| p = "blk.%d." % li | |
| layers.append([ | |
| {"op": "rmsnorm", "out": "n1", "inputs": ["h"], "weight": p + "attn_norm"}, | |
| {"op": "matmul", "out": "q", "inputs": ["n1"], "weight": p + "attn_q"}, | |
| {"op": "matmul", "out": "k", "inputs": ["n1"], "weight": p + "attn_k"}, | |
| {"op": "matmul", "out": "v", "inputs": ["n1"], "weight": p + "attn_v"}, | |
| {"op": "attention", "out": "att", "inputs": ["q", "k", "v"], "weight": None}, | |
| {"op": "matmul", "out": "ao", "inputs": ["att"], "weight": p + "attn_out"}, | |
| {"op": "add", "out": "h", "inputs": ["h", "ao"], "weight": None}, | |
| {"op": "rmsnorm", "out": "n2", "inputs": ["h"], "weight": p + "ffn_norm"}, | |
| {"op": "matmul", "out": "g", "inputs": ["n2"], "weight": p + "ffn_gate"}, | |
| {"op": "matmul", "out": "u", "inputs": ["n2"], "weight": p + "ffn_up"}, | |
| {"op": "swiglu", "out": "f", "inputs": ["g", "u"], "weight": None}, | |
| {"op": "matmul", "out": "fo", "inputs": ["f"], "weight": p + "ffn_down"}, | |
| {"op": "add", "out": "h", "inputs": ["h", "fo"], "weight": None}, | |
| ]) | |
| return { | |
| "seed": int(seed), | |
| "n_layers": n_layers, | |
| "d_model": d_model, | |
| "d_ff": d_ff, | |
| "n_heads": n_heads, | |
| "n_kv_heads": n_kv_heads, | |
| "head_dim": head_dim, | |
| "T": T, | |
| "rms_eps": RMS_EPS, | |
| "layers": layers, | |
| "final": {"op": "rmsnorm", "out": "h", "inputs": ["h"], "weight": "output_norm"}, | |
| } | |
| def _normal(rng, shape, scale): | |
| return (rng.standard_normal(shape, dtype=np.float32) * np.float32(scale)) | |
| def build_weights(spec): | |
| """Return the tensor dict for `spec`. All arrays are C-contiguous float32.""" | |
| rng = np.random.default_rng(spec["seed"] + 1_000_003) | |
| d = spec["d_model"] | |
| d_ff = spec["d_ff"] | |
| hd = spec["head_dim"] | |
| n_q = spec["n_heads"] * hd | |
| n_kv = spec["n_kv_heads"] * hd | |
| T = spec["T"] | |
| w = {} | |
| for li in range(spec["n_layers"]): | |
| p = "blk.%d." % li | |
| w[p + "attn_norm"] = np.ascontiguousarray(1.0 + 0.02 * _normal(rng, (d,), 1.0)) | |
| w[p + "attn_q"] = np.ascontiguousarray(_normal(rng, (d, n_q), d ** -0.5)) | |
| w[p + "attn_k"] = np.ascontiguousarray(_normal(rng, (d, n_kv), d ** -0.5)) | |
| w[p + "attn_v"] = np.ascontiguousarray(_normal(rng, (d, n_kv), d ** -0.5)) | |
| w[p + "attn_out"] = np.ascontiguousarray(_normal(rng, (n_q, d), n_q ** -0.5)) | |
| w[p + "ffn_norm"] = np.ascontiguousarray(1.0 + 0.02 * _normal(rng, (d,), 1.0)) | |
| w[p + "ffn_gate"] = np.ascontiguousarray(_normal(rng, (d, d_ff), d ** -0.5)) | |
| w[p + "ffn_up"] = np.ascontiguousarray(_normal(rng, (d, d_ff), d ** -0.5)) | |
| w[p + "ffn_down"] = np.ascontiguousarray(_normal(rng, (d_ff, d), d_ff ** -0.5)) | |
| w["output_norm"] = np.ascontiguousarray(1.0 + 0.02 * _normal(rng, (d,), 1.0)) | |
| half = hd // 2 | |
| inv = (ROPE_THETA ** (-np.arange(half, dtype=np.float64) / half)) | |
| ang = np.arange(T, dtype=np.float64)[:, None] * inv[None, :] | |
| w["rope_cos"] = np.ascontiguousarray(np.cos(ang).astype(np.float32)) | |
| w["rope_sin"] = np.ascontiguousarray(np.sin(ang).astype(np.float32)) | |
| mask = np.zeros((T, T), dtype=np.float32) | |
| mask[np.triu_indices(T, k=1)] = -np.inf | |
| w["attn_mask"] = np.ascontiguousarray(mask) | |
| return w | |
| def build_inputs(spec, n): | |
| """Return `n` distinct input activations of shape (T, d_model), float32. | |
| Drawn from fresh OS entropy, never from the instance seed: the same list is fed | |
| to both executors within a run, but no executor can precompute the output for an | |
| input it has not yet been sent. | |
| """ | |
| rng = np.random.default_rng() | |
| T, d = spec["T"], spec["d_model"] | |
| return [np.ascontiguousarray(rng.standard_normal((T, d), dtype=np.float32)) | |
| for _ in range(n)] | |