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f94c7e3 7a1589d f94c7e3 d2647b4 f94c7e3 7a1589d f94c7e3 2923ef2 f94c7e3 | 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80 81 82 83 84 85 86 87 88 89 90 91 92 93 94 95 96 97 98 99 100 101 102 103 104 105 106 107 108 109 110 111 112 113 114 115 116 117 118 119 120 121 122 123 124 125 126 127 128 129 130 131 132 133 134 135 136 137 138 139 140 141 142 143 144 145 146 147 148 149 150 151 152 153 154 155 156 157 158 159 160 161 162 163 164 165 166 167 168 169 170 171 172 173 174 175 176 177 178 179 180 181 182 183 184 185 186 187 188 189 190 191 192 193 194 | """Phase 3 -> old setup (8x RTX PRO 6000 Server, the Phase 1/2 box) extrapolation.
Usage: /venv/p2/bin/python -I extrap.py ROOT P2_METRICS_JSON OUT_PREFIX
Method
1. Box ratio per component (30B prefill / judge / kvflush / rejudge, drafter, python overhead) from the 16 HumanEval
items both boxes decoded with the identical config (setup check, token-identical outputs).
2. Old-box seconds of each rd item = sum over components of (this box's ms for that component / ratio).
3. Old-box tokens/s = sum tokens / sum predicted seconds (the artifact's definition: whole decode, scoring excluded).
Cross-check: the artifact's own cost model (30B expert loads/token x old-box ms per load + drafter fwd x ms/fwd).
4. Old-box wall per cell = 8 shards, items[k::8] in benchmark order, max shard sum + model load; this box: 4 shards.
5. Cells not yet run: per-item seconds = old-box S0 seconds of the same item x the arm's measured rd/S0 time factor.
"""
import glob, json, os, re, sys, datetime as dt
ROOT, P2, OUT = sys.argv[1], sys.argv[2], sys.argv[3]
sys.path[:0] = [f"{ROOT}/code/compat", f"{ROOT}/code"]; os.chdir(ROOT)
import research_protocol as P
SETS = ["humaneval", "mbpp", "gsm8k500", "ifeval541", "math500", "gpqa", "aime"]
ARMS = ["rd1", "rd2"]
p2 = json.load(open(P2))
def load(pat):
out = {}
for f in glob.glob(pat):
if f.endswith("running.jsonl"): continue
for l in open(f):
if l.strip():
try: r = json.loads(l)
except ValueError: continue
out[int(r["idx"])] = r
return out
def comp(r):
c = {f"moe_{k}": v for k, v in r["ms_by_kind"].items()}
c.update({f"dr_{k}": v for k, v in r["drafter_ms_by_kind"].items()})
c["other"] = 1000 * r["seconds"] - sum(v for k, v in c.items())
return c
# ---- 1. box ratios -------------------------------------------------------------------------------------------------
old16 = load("logs/phase2/ref/S0_128M_nopool_by_set/humaneval/*.jsonl"); new16 = load("logs/phase3/setup/check_judge/*.jsonl")
ids16 = sorted(new16); assert all(old16[i]["gen_ids"] == new16[i]["gen_ids"] for i in ids16)
def ratio(keys):
n = sum(comp(new16[i]).get(k, 0) for i in ids16 for k in keys); o = sum(comp(old16[i]).get(k, 0) for i in ids16 for k in keys)
return n / o
RAT = {"moe_prefill": ratio(["moe_prefill"]), "moe_judge": ratio(["moe_judge"]), "moe_kvflush": ratio(["moe_kvflush"]),
"dr": ratio(["dr_prefill", "dr_draft", "dr_flush"]), "other": ratio(["other"])}
RAT["moe_rejudge"] = RAT["moe_judge"]; RAT["moe_denoise"] = RAT["moe_judge"]
tot_ratio = sum(new16[i]["seconds"] for i in ids16) / sum(old16[i]["seconds"] for i in ids16)
# leave-one-out check of the component model on the 16 paired items
loo = []
for j in ids16:
rest = [i for i in ids16 if i != j]
def rr(keys):
return sum(comp(new16[i]).get(k, 0) for i in rest for k in keys) / sum(comp(old16[i]).get(k, 0) for i in rest for k in keys)
R2 = {"moe_prefill": rr(["moe_prefill"]), "moe_judge": rr(["moe_judge"]), "moe_kvflush": rr(["moe_kvflush"]),
"dr": rr(["dr_prefill", "dr_draft", "dr_flush"]), "other": rr(["other"])}
c = comp(new16[j]); pred = sum(v / (R2["dr"] if k.startswith("dr_") else R2.get(k, R2["moe_judge"])) for k, v in c.items()) / 1000
loo.append(pred / old16[j]["seconds"] - 1)
def old_seconds(r):
return sum(v / (RAT["dr"] if k.startswith("dr_") else RAT.get(k, RAT["moe_judge"])) for k, v in comp(r).items()) / 1000
# ---- 2/3. per cell metrics -----------------------------------------------------------------------------------------
def order(s): return [int(it["idx"]) for it in P.items_for_split(s)]
def stats(Rs):
g = sum(r["n_gen_to_eos"] for r in Rs); u = sum(r["unique_expert_layer_loads"] for r in Rs)
nd = sum(sum(r["drafter_n_by_kind"].values()) for r in Rs)
return {"n": len(Rs), "acc": 100 * sum(bool(r["correct"]) for r in Rs) / len(Rs),
"passes_blk": sum(r["n_forward"] - r["n_prefill"] - r["n_flush"] for r in Rs) / sum(r["n_blocks"] for r in Rs),
"exp_tok": u / g, "drafter_fwd_tok": nd / g, "tokens": g,
"box_sec": sum(r["seconds"] for r in Rs), "old_sec": sum(old_seconds(r) for r in Rs)}
def run_start(arm, s):
for l in open("logs/phase3/run.log"):
m = re.match(rf"\[p3 (\d\d:\d\d:\d\d) UTC\] start {arm} {s} ", l)
if m: t = m.group(1)
return t if 'm' in dir() else None
# model load overhead on this box: run.log start -> (first record utc - its seconds), max over shards
def load_overhead(arm, s):
st = None
for l in open("logs/phase3/run.log"):
m = re.match(rf"\[p3 (\d\d:\d\d:\d\d) UTC\] start {arm} {s} \(attempt 1\)", l)
if m: st = m.group(1)
if not st: return None
ov = []
for f in glob.glob(f"logs/phase3/decode/{arm}/{s}/*.shard*.jsonl"):
rs = [json.loads(l) for l in open(f) if l.strip()]
if not rs: continue
t0 = dt.datetime.strptime(rs[0]["utc"], "%Y-%m-%dT%H:%M:%SZ")
st_dt = t0.replace(hour=int(st[:2]), minute=int(st[3:5]), second=int(st[6:]))
if st_dt > t0: st_dt -= dt.timedelta(days=1) # run.log has time of day only: start was before midnight UTC
ov.append((t0 - st_dt).total_seconds() - rs[0]["seconds"])
return max(ov) if ov else None
def wall(sec_by_idx, s, nsh, overhead):
o = [i for i in order(s) if i in sec_by_idx]
return max(sum(sec_by_idx[i] for i in o[k::nsh]) for k in range(nsh)) + overhead
S0old = {s: load(f"logs/phase2/ref/S0_128M_nopool_by_set/{s}/*.jsonl") for s in SETS}
res = {"box_ratio_components": RAT, "box_ratio_total": tot_ratio, "loo_rel_err": loo, "cells": {}}
k_arm = {}
for a in ARMS:
num = den = 0
for s in SETS:
Rr = load(f"logs/phase3/decode/{a}/{s}/*.jsonl")
if not Rr: continue
st = stats(list(Rr.values())); ref = p2[s]["S0_nopool"]; stock = p2[s]["stock"]
msl = (ref["ms_tok"] - ref["drafter_ms_tok"]) / ref["exp_tok"]; msf = ref["drafter_ms_tok"] / ref["drafter_fwd_tok"]
st["tps_box"] = st["tokens"] / st["box_sec"]; st["tps_old"] = st["tokens"] / st["old_sec"]
st["tps_old_costmodel"] = 1000 / (st["exp_tok"] * msl + st["drafter_fwd_tok"] * msf)
st["old_sec_cost"] = st["tokens"] * (st["exp_tok"] * msl + st["drafter_fwd_tok"] * msf) / 1000
st["f_cost"] = st["old_sec_cost"] / st["old_sec"] # cost model time / timing model time
st["tps_S0_old"] = 1000 / ref["ms_tok"]; st["tps_stock_table1"] = 1000 / (stock["exp_tok"] * msl)
st["acc_S0"] = ref["acc"]; st["acc_stock"] = stock["acc"]; st["passes_S0"] = ref["passes_blk"]; st["passes_stock"] = stock["passes_blk"]
st["exp_tok_S0"] = ref["exp_tok"]
st["complete"] = os.path.exists(f"logs/phase3/decode/{a}/{s}/.complete")
# paired accuracy delta vs today's judge (Phase 1 records), 95% bootstrap CI, 2000 resamples, seed 0 (as the Phase 2 page)
import numpy as np
cm = sorted(i for i in Rr if i in S0old[s])
if cm:
dd = np.array([int(bool(Rr[i]["correct"])) - int(bool(S0old[s][i]["correct"])) for i in cm])
rng = np.random.default_rng(0); bs = [rng.choice(dd, len(dd)).mean() for _ in range(2000)]
st["delta_vs_S0"] = [100 * dd.mean(), 100 * np.percentile(bs, 2.5), 100 * np.percentile(bs, 97.5)]
# SAME-BOX baseline: today's judge (SDAR-1.7B + 128M judge, no re-draft) decoded on THIS box under the same
# 4-GPU load (full set for humaneval/mbpp, first 12 items elsewhere); paired on identical items
# (a) full baseline on this box (humaneval, mbpp): rd vs judge on every item, both here, same 4-GPU load
# (b) 12-item baseline (other sets): this box's slowdown for the judge on those items (same work on both boxes,
# validated on humaneval/mbpp: -2.4% / +0.4% vs the full answer) applied to rd over ALL its items here
Jf = load(f"logs/phase3/decode/judge/{s}/*.jsonl")
if Jf and not os.path.exists(f"logs/phase3/decode/judge/{s}/.complete"): Jf = {} # a base run still in progress is not a full baseline
Js = {} if Jf else load(f"logs/phase3/decode/judge_sample/{s}/*.jsonl")
if Jf:
com = [i for i in Rr if i in Jf]
tr = sum(Rr[i]["n_gen_to_eos"] for i in com) / sum(Rr[i]["seconds"] for i in com)
tj = sum(Jf[i]["n_gen_to_eos"] for i in com) / sum(Jf[i]["seconds"] for i in com)
st["samebox_items"] = len(com); st["samebox_speedup_vs_judge"] = tr / tj; st["samebox_method"] = "full baseline"
st["samebox_tps_rd"] = tr; st["samebox_tps_judge"] = tj
st["tps_old_samebox"] = (1000 / ref["ms_tok"]) * tr / tj
elif Js and len(glob.glob(f"logs/phase3/decode/judge_sample/{s}/*.jsonl.done")) >= 4:
ids = [i for i in Js if i in S0old[s]]
r12 = sum(Js[i]["seconds"] for i in ids) / sum(S0old[s][i]["seconds"] for i in ids)
st["box_ratio_judge_12"] = r12; st["samebox_items"] = len(ids); st["samebox_method"] = "12-item box ratio"
st["tps_old_samebox"] = st["tps_box"] * r12
st["samebox_speedup_vs_judge"] = st["tps_old_samebox"] / (1000 / ref["ms_tok"])
st["tps_headline"] = st.get("tps_old_samebox") or st["tps_old_costmodel"]
st["headline_src"] = "same-box" if st.get("tps_old_samebox") else "cost model (est.)"
common = [i for i in Rr if i in S0old[s]]
num += st["f_cost"] * sum(old_seconds(Rr[i]) for i in common); den += sum(S0old[s][i]["seconds"] for i in common)
ov = load_overhead(a, s); st["load_overhead_box_s"] = ov
if st["complete"]:
st["wall_box_4x_min"] = wall({i: r["seconds"] for i, r in Rr.items()}, s, 4, ov or 0) / 60
st["wall_old_8x_min"] = wall({i: old_seconds(r) * st["f_cost"] for i, r in Rr.items()}, s, 8, (ov or 0)) / 60
res["cells"][f"{a}/{s}"] = st
k_arm[a] = num / den if den else None
res["k_arm_vs_S0_oldbox"] = k_arm
# this box's seconds per old-box (cost model) second, per arm, from finished cells
box_k = {}
for a in ARMS:
cs = [c for k, c in res["cells"].items() if k.startswith(a + "/") and c.get("complete")]
if cs: box_k[a] = sum(c["box_sec"] for c in cs) / sum(c["old_sec_cost"] for c in cs)
res["box_sec_per_old_cost_sec"] = box_k
# ---- 5. projection for every cell (measured where complete) ---------------------------------------------------------
ovs = [c["load_overhead_box_s"] for c in res["cells"].values() if c.get("load_overhead_box_s")]
ov = max(ovs) if ovs else 90.0
proj = {}
for a in ARMS:
for s in SETS:
c = res["cells"].get(f"{a}/{s}")
if c and c.get("complete"):
proj[f"{a}/{s}"] = {"box4": c["wall_box_4x_min"], "old8": c["wall_old_8x_min"], "src": "measured"}
else:
k = k_arm.get(a) or k_arm.get("rd1") or 1.0
so = {i: r["seconds"] * k for i, r in S0old[s].items()}
fb = box_k.get(a) or tot_ratio
proj[f"{a}/{s}"] = {"box4": wall({i: v * fb for i, v in so.items()}, s, 4, ov) / 60,
"old8": wall(so, s, 8, ov) / 60, "src": f"S0 old-box item times x {k:.3f}"}
res["projection_min"] = proj
json.dump(res, open(OUT + ".json", "w"), indent=1)
# ---- report ---------------------------------------------------------------------------------------------------------
L = []
L.append(f"Box ratio (this 4x box / old 8x box, same 16 items, identical outputs): total {tot_ratio:.3f}; components " +
", ".join(f"{k} {v:.3f}" for k, v in RAT.items() if k not in ('moe_rejudge', 'moe_denoise')))
import statistics as stt
L.append(f"Leave-one-out per-item error of the old-box time model: mean {100*stt.mean(loo):+.1f}%, sd {100*stt.pstdev(loo):.1f}%, max |{100*max(abs(x) for x in loo):.1f}|%")
L.append(f"rd time vs S0 on the old box, same items (pooled over finished sets): " + ", ".join(f"{a} x{v:.3f}" for a, v in k_arm.items() if v))
L.append("")
L.append("SAME-BOX: rd vs today's judge on identical items, both decoded on this box under 4-GPU load")
for key, c in res["cells"].items():
if c.get("samebox_items"):
L.append(f" {key:16s} items {c['samebox_items']:4d} rd {c.get('samebox_tps_rd', float('nan')):.2f} tok/s vs judge {c.get('samebox_tps_judge', float('nan')):.2f} [{c.get('samebox_method','')}] -> {c['samebox_speedup_vs_judge']:.3f}x => old box {c['tps_old_samebox']:.2f} tok/s ({c['tps_old_samebox']/c['tps_stock_table1']:.2f}x stock)")
L.append("")
L.append("| cell | n | acc (S0 / stock) | passes/blk (S0) | exp/tok (S0) | tok/s this box | tok/s OLD 8x box: HEADLINE [source] / cost model / single-ratio (S0, stock) | wall this box 4x | wall OLD 8x |")
L.append("|---|---|---|---|---|---|---|---|---|")
for key, c in res["cells"].items():
p = proj[key]
L.append(f"| {key}{'' if c['complete'] else ' (partial)'} | {c['n']} | {c['acc']:.1f} ({c['acc_S0']:.1f} / {c['acc_stock']:.1f}) | {c['passes_blk']:.2f} ({c['passes_S0']:.2f}) | "
f"{c['exp_tok']:.0f} ({c['exp_tok_S0']:.0f}) | {c['tps_box']:.2f} | **{c['tps_headline']:.2f}** [{c['headline_src']}] / cost {c['tps_old_costmodel']:.2f} / ratio {c['tps_old']:.2f} ({c['tps_S0_old']:.1f}, {c['tps_stock_table1']:.1f}) | "
f"{p['box4']:.1f} min | {p['old8']:.1f} min |")
t4 = sum(p["box4"] for p in proj.values()); t8 = sum(p["old8"] for p in proj.values())
L.append("")
L.append(f"Projected decode wall, all 14 cells: this box 4x {t4/60:.2f} h; OLD 8x box {t8/60:.2f} h (excl. setup/backup; measured where complete, projected elsewhere)")
for k, p in proj.items(): L.append(f" {k:16s} 4x {p['box4']:6.1f} min old8x {p['old8']:6.1f} min [{p['src']}]")
open(OUT + ".md", "w").write("\n".join(L) + "\n"); print("\n".join(L))
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