feat: lean per-step table w/ per-mode hack cols, generic elicit, ship->deploy

Streaming table (StepLogger) redesign per user review:
- drop sprd/N/refr from the streaming view (constant / in argv / always '-')
- short names: cos_pre->cin, cos_pre_s/t->cin_s/t, cos_post->cout, gradn->gn
- 2 sig figs on loss; 1 on gn/lr
- cin/cin_s/cin_t/cout/fired only on projecting arms (no vanilla cos_post_cf)
- ADD per-mode cumulative student-hack columns hk_<rt|eq|xc|so|se|fm> on
  multi-mode (substrate) runs -> shows WHICH loophole classes are learnt
- self-decoding legend() (only the columns this arm/mode-set shows)
- end-dump auto-renders any (n,d) tuple as n/d; drops sprd/N too

derisk_loopholes (#139): replace the 6 spoonfed exploit recipes with ONE
generic elicit (the faithful hint already discloses the mechanism; the model
must connect loophole+permission -> exploit = honest discoverability test) +
an exit-interview '### Notes' section, surfaced in the log (too-vague/too-blatant
hint signal).

Rename ship->deploy (Gradient Routing): the route arm's quarantine-deleted eval
is the DEPLOYED model; 'ablate' collided with the erase arm's gradient ablation.
train.py columns + row dict + plot_dynamics + plot_route_evidence + results.py;
dropped the dual-name back-compat reads.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
This commit is contained in:
wassname
2026-05-30 10:35:26 +00:00
parent 8a253060a7
commit f3f2c1250f
8 changed files with 240 additions and 168 deletions
+13 -16
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@@ -20,10 +20,10 @@ Arm classification (from the preset line `arm=`, covering old --arm and new
online erasure arm=projected, --vhack-refresh-every=N>0 (re-extracted)
routing arm=routing (intervention=route)
For routing we plot the SHIP-eval hack/solve (hack_ship/solve_ship, the deployed
model = quarantine knob deleted, measured every --eval-ablate-every steps), NOT
the training-time hack_s: the routed forward still hacks during training, so the training curve
would falsely read "route doesn't work". The ablated curve is the deployment
For routing we plot the DEPLOY-eval hack/solve (hack_deploy/solve_deploy, the
deployed model = quarantine knob deleted, measured every --eval-ablate-every steps),
NOT the training-time hack_s: the routed forward still hacks during training, so the
training curve would falsely read "route doesn't work". The deploy curve is the deployment
model. (none/erase plot training-time hack_s; their intervention acts at train
time.)
@@ -93,12 +93,11 @@ def parse_log(path: Path) -> dict | None:
series: dict[str, list[float]] = defaultdict(list)
steps: list[int] = []
# Also parse the route SHIP-eval columns when present (older logs lack them
# -> skip). For routing we plot THESE (deployed model), not training-time
# hack_s. Renamed hack_abl/solve_abl -> hack_ship/solve_ship 2026-05-30;
# accept both so old evidence logs still parse.
ship = {"hack_abl", "solve_abl", "hack_ship", "solve_ship"} & set(idx)
wanted = {**RATE_COLS, **COS_COLS, **{c: c for c in ship}}
# Also parse the route DEPLOY-eval columns when present (non-route logs lack
# them -> skip). For routing we plot THESE (deployed model = quarantine deleted),
# not the training-time hack_s.
deploy = {"hack_deploy", "solve_deploy"} & set(idx)
wanted = {**RATE_COLS, **COS_COLS, **{c: c for c in deploy}}
for line in txt.splitlines():
if "| INFO |" not in line:
continue
@@ -114,13 +113,11 @@ def parse_log(path: Path) -> dict | None:
steps=np.array(steps), **{k: np.array(v, dtype=float) for k, v in series.items()})
# COHERENCE-GAP FIX: route's training-time hack_s looks vanilla (the routed
# forward still hacks); routing's benefit only shows on the DEPLOYED model
# (quarantine knob deleted). So for routing, plot the ship series under the
# (quarantine knob deleted). So for routing, plot the deploy series under the
# hack_s/gt_s keys -> all downstream (panels, onset, overlay) reads it.
if arm == "routing":
hk = "hack_ship" if "hack_ship" in run else "hack_abl" if "hack_abl" in run else None
if hk:
run["hack_s"] = run["hack_ship" if "hack_ship" in run else "hack_abl"]
run["gt_s"] = run["solve_ship" if "solve_ship" in run else "solve_abl"]
if arm == "routing" and "hack_deploy" in run:
run["hack_s"] = run["hack_deploy"]
run["gt_s"] = run["solve_deploy"]
return run
+21 -21
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@@ -1,14 +1,14 @@
"""Single-run routing figure: training-time hack vs SHIPPED-model hack.
"""Single-run routing figure: training-time hack vs DEPLOYED-model hack.
The routing story in one plot. During training the model keeps hacking (it runs
with the quarantine knob ON, so the per-step hack_s curve climbs like vanilla).
But the model we'd actually SHIP has the knob deleted -- its hack rate (the
ship-eval, measured every --eval-ablate-every steps) is what matters. If routing
works, the ship curve sits well BELOW the training curve at preserved solve.
But the model we'd actually DEPLOY has the knob deleted -- its hack rate (the
deploy-eval, measured every --eval-ablate-every steps) is what matters. If routing
works, the deploy curve sits well BELOW the training curve at preserved solve.
uv run python scripts/plot_route_evidence.py LOG.log --out out/route_evidence.png
Reads either old (hack_abl/solve_abl) or new (hack_ship/solve_ship) ship columns.
Reads the hack_deploy/solve_deploy columns (Gradient Routing deploy-eval).
"""
from __future__ import annotations
@@ -41,36 +41,36 @@ def parse(log: Path):
idx = {n: i for i, n in enumerate(hdr)}
i_step, i_train = idx["step"], idx["hack_s?"]
i_solve = idx["gt_s↑"]
i_hship = idx.get("hack_ship", idx.get("hack_abl"))
i_sship = idx.get("solve_ship", idx.get("solve_abl"))
i_hdep = idx["hack_deploy"]
i_sdep = idx["solve_deploy"]
steps, train_hack, solve_train = [], [], []
ship_step, ship_hack, ship_solve = [], [], []
deploy_step, deploy_hack, deploy_solve = [], [], []
for l in txt.splitlines():
if "| INFO |" not in l:
continue
r = l.split("| INFO |", 1)[1].split()
if not r or not r[0].isdigit() or len(r) <= i_sship:
if not r or not r[0].isdigit() or len(r) <= i_sdep:
continue
s = int(r[i_step])
steps.append(s)
train_hack.append(_frac(r[i_train]))
solve_train.append(_frac(r[i_solve]))
h = _frac(r[i_hship])
if h is not None: # ship-eval only fires every N steps
ship_step.append(s); ship_hack.append(h); ship_solve.append(_frac(r[i_sship]))
h = _frac(r[i_hdep])
if h is not None: # deploy-eval only fires every N steps
deploy_step.append(s); deploy_hack.append(h); deploy_solve.append(_frac(r[i_sdep]))
return dict(steps=steps, train_hack=train_hack, solve_train=solve_train,
ship_step=ship_step, ship_hack=ship_hack, ship_solve=ship_solve)
deploy_step=deploy_step, deploy_hack=deploy_hack, deploy_solve=deploy_solve)
def main(log: str, out: str = "out/figs/route_evidence.png") -> None:
d = parse(Path(log))
RED, GREY = "#b03a2e", "#9a8c7a" # hack=red (the story); solve=muted (context)
fig, ax = plt.subplots(figsize=(7, 4))
# Hack in red: training (knob on, solid) vs shipped (knob off, dashed+marker).
# Hack in red: training (knob on, solid) vs deployed (knob off, dashed+marker).
# The vertical gap between the two reds at the last step IS the routing effect.
ax.plot(d["steps"], d["train_hack"], color=RED, lw=2.2)
ax.plot(d["ship_step"], d["ship_hack"], color=RED, lw=1.6, ls=(0, (4, 3)), marker="o", ms=4)
ax.plot(d["ship_step"], d["ship_solve"], color=GREY, lw=1.4)
ax.plot(d["deploy_step"], d["deploy_hack"], color=RED, lw=1.6, ls=(0, (4, 3)), marker="o", ms=4)
ax.plot(d["deploy_step"], d["deploy_solve"], color=GREY, lw=1.4)
# Direct labels at the right end (name + final value baked in) -> no legend,
# no separate value annotations. One element does both jobs (eraser test).
@@ -79,26 +79,26 @@ def main(log: str, out: str = "out/figs/route_evidence.png") -> None:
ax.annotate(text, (x_end, y), xytext=(8, 0), textcoords="offset points",
va="center", color=color, fontsize=9)
label(d["train_hack"][-1], f"hack, knob ON (training) {d['train_hack'][-1]:.0%}", RED)
label(d["ship_solve"][-1], f"solve, shipped {d['ship_solve'][-1]:.0%}", GREY)
label(d["ship_hack"][-1], f"hack, knob OFF (shipped) {d['ship_hack'][-1]:.0%}", RED)
label(d["deploy_solve"][-1], f"solve, deployed {d['deploy_solve'][-1]:.0%}", GREY)
label(d["deploy_hack"][-1], f"hack, knob OFF (deployed) {d['deploy_hack'][-1]:.0%}", RED)
ax.set_ylim(-0.02, 1.0)
ax.set_yticks([0, 0.5, 1.0]); ax.set_yticklabels(["0", ".5", "1"])
ax.set_xticks([0, d["ship_step"][-1] if d["ship_step"] else x_end])
ax.set_xticks([0, d["deploy_step"][-1] if d["deploy_step"] else x_end])
ax.set_xlabel("GRPO step")
ax.set_xlim(0, x_end * 1.5) # right margin for the direct labels
for side in ("top", "right"):
ax.spines[side].set_visible(False)
ax.spines["left"].set_bounds(0, 1) # range-frame: axis spans the data
ax.set_title("Routing parks the cheat in a deletable knob:\n"
"the model hacks while training but the shipped model does not", fontsize=10.5)
"the model hacks while training but the deployed model does not", fontsize=10.5)
fig.tight_layout()
Path(out).parent.mkdir(parents=True, exist_ok=True)
fig.savefig(out, dpi=130)
link = link_latest(Path(out))
print(f"wrote {out} (docs/figs latest -> {link}) "
f"(train_hack_final={d['train_hack'][-1]:.3f}, "
f"ship_hack_final={d['ship_hack'][-1]:.3f}, ship_solve_final={d['ship_solve'][-1]:.3f})")
f"deploy_hack_final={d['deploy_hack'][-1]:.3f}, deploy_solve_final={d['deploy_solve'][-1]:.3f})")
if __name__ == "__main__":
+1 -1
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@@ -146,7 +146,7 @@ def main() -> None:
# first-class arm now, so include it (keyed on `arm` below so it doesn't
# merge with projected). NOTE: routing's L5_hack here is the TRAINING-time
# hack (the routed forward still hacks); the deployment number is the
# ablated-eval (ROUTE EVAL BLUF / hack_abl), not this column.
# deploy-eval (ROUTE EVAL BLUF / hack_deploy), not this column.
j = (df.filter(pl.col("arm").is_in(["projected", "routing"]))
.join(van, on=["mix", "seed"], how="inner")
.with_columns((pl.col("L5_hack") - pl.col("v_hack")).alias("dh"),