Files
sim-numerics/verify_article.py
T

564 lines
27 KiB
Python

"""Check every number the paper states against sweep_full.json.
A paper is a claim about data; transcribing its tables by hand is how a claim
stops matching its data. A failure here means the paper is wrong, not the
test.
The proposed method is the scheduled projection with its multiplier DECLARED as
the one free constant (Valeri, 2026-09-21, variant a); the earned projection
(credit) is the constant-free variant. Both are checked. Baselines are the
library alone since 2026-09-21: Chandrupatla = scipy elementwise.find_root,
Brent = brentq.
"""
from __future__ import annotations
import json
import os
import sys
from report_sweep import CREDIT, PROPOSED, head_to_head, place, rank
FAILS = []
PROJ = "pure.ratio.derived3.project"
assert PROPOSED == PROJ, "the paper proposes the projection (variant a)"
def check(label, got, want):
ok = got == want
print(f" {'OK ' if ok else 'BAD'} {label:58s} got {got!r:>16} "
f"want {want!r}")
if not ok:
FAILS.append(label)
def row(rows, setname, lbl):
return next(r for r in rows if r["label"] == lbl)[setname]
def main():
with open("sweep_full.json", encoding="utf8") as fh:
rows = json.load(fh)
# Guard against quoting places from a field that is missing a competitor.
# It has already happened once: before Chandrupatla's own method was
# added, every ranking assertion here passed only because the method that
# beats us was absent.
labels = {r["label"] for r in rows}
missing = {"chandrupatla", "dekker", PROPOSED} - labels
if missing:
print(f" !! THE SWEEP IS STALE: missing {sorted(missing)}. "
"Re-run sweep_full.py.\n")
FAILS.append("sweep is stale")
check("number of configurations", len(rows), 264)
# ---- the proposed method: projection, one declared constant ----------
print("\nThe proposed method (projection, multiplier declared):")
for setname, pl, tot, sol in (("APS", 3, 2806, 153),
("CHA", 47, 3220, 40)):
d = row(rows, setname, PROPOSED)
check(f"{setname} place", place(rows, setname, PROPOSED), pl)
check(f"{setname} total", d["total"], tot)
check(f"{setname} solved", d["solved"], sol)
check("both sets", row(rows, "APS", PROPOSED)["total"]
+ row(rows, "CHA", PROPOSED)["total"], 6026)
print("\nHead to head of the proposed method:")
for setname, opp, want in [
("APS", "chandrupatla", (87, 24, 42)),
("APS", "toms748", (86, 16, 51)),
("APS", "brent", (102, 11, 40)),
("APS", "itp", (132, 3, 18)),
("APS", "itp_oracle", (121, 4, 28)),
("APS", "bisection", (152, 1, 0)),
("CHA", "chandrupatla", (9, 5, 26)),
("CHA", "toms748", (31, 1, 8)),
("CHA", "brent", (30, 4, 4)),
("CHA", "itp", (17, 0, 23)),
("CHA", "itp_oracle", (16, 0, 24))]:
w, t, l, _ = head_to_head(rows, PROPOSED, opp, setname)
check(f"{setname} vs {opp}", (w, t, l), want)
def sign_p(w, l):
import math as _m
k, n = min(w, l), w + l
return min(1.0, 2.0 * sum(_m.comb(n, i) for i in range(k + 1)) / 2.0 ** n)
w, _t, l, _ = head_to_head(rows, PROPOSED, "chandrupatla", "APS")
check("APS vs Chandrupatla sign test p < 1e-4", sign_p(w, l) < 1e-4, True)
w, _t, l, _ = head_to_head(rows, PROPOSED, "chandrupatla", "CHA")
check("CHA vs Chandrupatla sign test p (rounded)", round(sign_p(w, l), 3), 0.006)
# ---- the constant-free variant ---------------------------------------
print("\nThe constant-free variant (earned projection):")
for setname, pl, tot in (("APS", 29, 3568), ("CHA", 10, 3020)):
check(f"credit {setname} place", place(rows, setname, CREDIT), pl)
check(f"credit {setname} total", row(rows, setname, CREDIT)["total"], tot)
check("credit both sets", row(rows, "APS", CREDIT)["total"]
+ row(rows, "CHA", CREDIT)["total"], 6588)
check("credit costs 762 more on the canonical set",
row(rows, "APS", CREDIT)["total"] - row(rows, "APS", PROPOSED)["total"], 762)
for setname, opp, want in [("APS", "chandrupatla", (79, 3, 71)),
("APS", "toms748", (77, 9, 67)),
("APS", "brent", (78, 5, 70))]:
w, t, l, _ = head_to_head(rows, CREDIT, opp, setname)
check(f"credit {setname} vs {opp}", (w, t, l), want)
w, _t, l, _ = head_to_head(rows, CREDIT, "chandrupatla", "APS")
check("credit APS vs Chandrupatla sign test p (rounded)", round(sign_p(w, l), 2), 0.57)
# ---- what the earlier, order-destroying guards cost --------------------
print("\nThe guards that replace the step instead of projecting it:")
check("APS unguarded", row(rows, "APS", "pure.ratio.derived3.none")["total"],
2806)
cha_none = row(rows, "CHA", "pure.ratio.derived3.none")
check("CHA unguarded total", cha_none["total"], 4104)
check("CHA unguarded solved", cha_none["solved"], 35)
check("CHA unguarded bound violations", cha_none["over"], 10)
check("APS bracket-guard", row(rows, "APS", "pure.ratio.derived3.bracket")["total"],
7260)
check("APS both-guard", row(rows, "APS", "pure.ratio.derived3.both")["total"],
7239)
# ---- the field --------------------------------------------------------
print("\nAlefeld-Potra-Shi:")
check("APS winner", rank(rows, "APS")[0]["label"], "chandrupatla")
for lbl, pl, tot in [("chandrupatla", 1, 2787), ("toms748", 4, 2820),
("brent", 5, 2889), ("dekker", 12, 3158),
("itp_oracle", 13, 3260), ("ridders", 20, 3313),
("itp", 34, 3957), ("illinois", 73, 7045),
("bisection", 79, 7530), ("regula_falsi", 244, 10560)]:
check(f"APS {lbl} place", place(rows, "APS", lbl), pl)
check(f"APS {lbl} total", row(rows, "APS", lbl)["total"], tot)
check("APS regula falsi solved", row(rows, "APS", "regula_falsi")["solved"],
127)
print("\nChandrupatla:")
top = rank(rows, "CHA")[0]
check("CHA rank 1 label", top["label"], "pure.sqrt.bracket.project")
check("CHA rank 1 solves one more than anyone else", top["CHA"]["solved"], 41)
for lbl, pl, tot in [("chandrupatla", 2, 2441), ("itp_oracle", 3, 2611),
("itp", 6, 2857), ("bisection", 16, 3090),
("toms748", 164, 4000), ("brent", 226, 4115)]:
check(f"CHA {lbl} place", place(rows, "CHA", lbl), pl)
check(f"CHA {lbl} total", row(rows, "CHA", lbl)["total"], tot)
check("CHA brent solved", row(rows, "CHA", "brent")["solved"], 38)
ours_both = (row(rows, "APS", PROPOSED)["total"]
+ row(rows, "CHA", PROPOSED)["total"])
cha_both = (row(rows, "APS", "chandrupatla")["total"]
+ row(rows, "CHA", "chandrupatla")["total"])
check("chandrupatla, both sets", cha_both, 5228)
check("Chandrupatla beats us on both sets", cha_both < ours_both, True)
# ---- the regime findings ---------------------------------------------
print("\nNegative results, the regime claims:")
check("CHA cbrt over the whole set",
row(rows, "CHA", "pure.cbrt.derived3.project")["total"], 4099)
switched = (row(rows, "APS", PROJ)["total"]
+ row(rows, "CHA", "pure.cbrt.derived3.project")["total"])
single = row(rows, "APS", PROJ)["total"] + row(rows, "CHA", PROJ)["total"]
check("single fixed choice, both sets", single, 6026)
check("switch by benchmark set, both sets", switched, 6905)
check("switching is worse than not switching", switched > single, True)
for pid, ours_n, cb_n in (("fun4.1", 89, 32), ("fun4.2", 93, 32),
("fun4.3", 113, 40), ("fun4.4", 125, 47),
("fun4.5", 153, 59)):
o = row(rows, "CHA", PROJ)["per"][pid]
c = row(rows, "CHA", "pure.cbrt.derived3.project")["per"][pid]
check(f"{pid} projection variant", o[0], ours_n)
check(f"{pid} cbrt", c[0], cb_n)
# ---- the law across the grid ------------------------------------------
print("\nThe law across the grid:")
lin = ("ratio", "rational", "exp_abs")
quad = ("rat_sq", "exp_sq", "cosine")
want = {("derived3", "lin"): 6809, ("derived3", "quad"): 22294,
("derived", "lin"): 6906, ("derived", "quad"): 22167,
("bracket", "lin"): 10263, ("bracket", "quad"): 19137,
("start", "lin"): 16102, ("start", "quad"): 15345}
for scale in ("derived3", "derived", "bracket", "start"):
for group, gname in ((lin, "lin"), (quad, "quad")):
tot = cnt = 0
for r in rows:
if r["spec"][0] != "pure":
continue
_, sim, sc, gu = r["spec"]
if sc != scale or gu != "step" or sim not in group:
continue
cnt += 1
tot += r["APS"]["total"] + r["CHA"]["total"]
check(f"mean total, scale={scale}, {gname}",
round(tot / cnt), want[(scale, gname)])
best_by_sim, best_by_scale = {}, {}
for r in rows:
if r["spec"][0] != "pure" or r["spec"][3] != "step":
continue
t = r["APS"]["total"] + r["CHA"]["total"]
best_by_sim[r["spec"][1]] = min(best_by_sim.get(r["spec"][1], 10 ** 9), t)
best_by_scale[r["spec"][2]] = min(best_by_scale.get(r["spec"][2], 10 ** 9), t)
check("every c=1 similarity beats every c=0 similarity",
max(best_by_sim[s] for s in lin) < min(best_by_sim[s] for s in quad),
True)
check("similarity ranking",
[s for s, _ in sorted(best_by_sim.items(), key=lambda kv: kv[1])],
["ratio", "exp_abs", "rational", "ratio_soft", "sqrt", "cbrt",
"exp_sq", "rat_sq", "cosine"])
for sim, v in [("ratio", 6496), ("exp_abs", 6822), ("rational", 7038),
("ratio_soft", 9502), ("sqrt", 10497), ("cbrt", 11941),
("exp_sq", 14314), ("rat_sq", 15102), ("cosine", 16394)]:
check(f"similarity {sim} best", best_by_sim[sim], v)
check("scale ranking",
[s for s, _ in sorted(best_by_scale.items(), key=lambda kv: kv[1])],
["derived3", "derived", "bracket", "start"])
for sc, v in [("derived3", 6496), ("derived", 6628), ("bracket", 9081),
("start", 14540)]:
check(f"scale {sc} best", best_by_scale[sc], v)
verify_placement_modes()
verify_per_place()
verify_decision_place()
verify_gap_decomposition()
verify_safeguard_and_tables()
print()
if FAILS:
print(f"{len(FAILS)} STATED NUMBERS DO NOT MATCH THE DATA:")
for f in FAILS:
print(f" {f}")
sys.exit(1)
print("every number stated in the paper matches the sweep data.")
# --------------------------------------------------------------------------
# Section "where the similarity is read" (PREREGs of 2026-09-20/21). Each new
# grid lives in its OWN sweep file so the published sweep_full.json stays the
# artefact of the original claims; every number the new section quotes is
# re-checked here against that file.
# --------------------------------------------------------------------------
PLACEMENT = {
# file label APS CHA
"sweep_slope.json": ("slope.ratio.derived3.project", 2848, 3074),
"sweep_points.json": ("pure+shape+slope.ratio.derived3.safe", 2527, 3108),
"sweep_direction.json": ("pure+dissim+slope.ratio.derived3.project", 2726, 2785),
"sweep_combo.json": ("pure+shape+dissim+slope.ratio.derived3.safe", 2884, 2859),
"sweep_gate.json": ("gate.ratio.derived.project", 4449, 2991),
"sweep_log.json": ("log.ratio_soft.derived.safe", 6940, 3474),
}
# The per-place table of section "the similarity function belongs to the place":
# seven PAIRED comparisons in sweep_order.json. Checked as pairs, because a pair is
# what the pre-registration licensed and a single cell would prove nothing.
ORDER_PAIRS = {
# guard (APS m=1, APS measured, CHA m=1, CHA measured)
"both": (4522, 3675, 3387, 3216),
"bracket": (4606, 3542, 3571, 3303),
"credit": (5190, 4686, 3013, 2884),
"project": (6932, 6364, 4794, 4559),
"safe": (5987, 5229, 4108, 3923),
"step": (6435, 5551, 4257, 4022),
"none": (10676, 10043, 8265, 7794),
}
# the negative item: the order does not cure false position
ORDER_FALSEPOS = {("rational", "far", "none", "none"): (127, 10676),
("rational", "far", "none", "order"): (128, 10043)}
# and the harmful direction, quoted in the same subsection
ORDER_SLOPE_HARM = {("ratio", "derived3", "none", "none"): 2806,
("ratio", "derived3", "none", "order"): 2854}
def verify_per_place():
print("\nThe per-place reading (sweep_order.json):")
if not os.path.exists("sweep_order.json"):
print(" !! sweep_order.json absent — section 'belongs to the place' unverifiable")
FAILS.append("missing sweep_order.json")
return
with open("sweep_order.json", encoding="utf8") as fh:
rows = json.load(fh)
def cell(sim, sc, gu, ex):
for r in rows:
s = r["spec"]
if (s[1], s[2], s[3], s[8] if len(s) > 8 else "none") == (sim, sc, gu, ex):
return r
return None
cheaper = 0
for gu, (a1, a2, c1, c2) in ORDER_PAIRS.items():
p = cell("rational", "far", gu, "none")
q = cell("rational", "far", gu, "order")
if p is None or q is None:
FAILS.append(f"order pair {gu} missing from sweep_order.json")
print(f" !! pair {gu} missing — stale sweep")
continue
check(f"far+rational {gu} APS m=1", p["APS"]["total"], a1)
check(f"far+rational {gu} APS order", q["APS"]["total"], a2)
check(f"far+rational {gu} CHA m=1", p["CHA"]["total"], c1)
check(f"far+rational {gu} CHA order", q["CHA"]["total"], c2)
cheaper += (q["APS"]["total"] + q["CHA"]["total"]
< p["APS"]["total"] + p["CHA"]["total"])
check("cheaper in 7 of 7 safeguards", cheaper, 7)
for (sim, sc, gu, ex), (solved, total) in ORDER_FALSEPOS.items():
r = cell(sim, sc, gu, ex)
if r is None:
FAILS.append(f"false-position cell {ex} missing")
continue
check(f"false position {ex} solved", r["APS"]["solved"], solved)
check(f"false position {ex} APS", r["APS"]["total"], total)
for (sim, sc, gu, ex), want in ORDER_SLOPE_HARM.items():
r = cell(sim, sc, gu, ex)
if r is None:
FAILS.append(f"slope-harm cell {ex} missing")
continue
check(f"slope reading {ex} APS", r["APS"]["total"], want)
fam = [r for r in rows if r["spec"][3] in ("project", "safe", "credit")]
check("guarantee family violations", sum(r["APS"]["over"] + r["CHA"]["over"]
for r in fam), 0)
DECISION_CELLS = {
# (similarity, prestep, guard): {set: total}
("ratio", "band", "project"): {"APS": 5432, "CHA": 3066},
("ratio", "band", "credit"): {"CHA": 2899},
("ratio", "none", "project"): {"APS": 2806},
("ratio", "defect", "project"): {"APS": 2523, "CHA": 3210},
("ratio_soft", "simpair", "project"): {"CHA": 2868},
}
DECISION_RATES = {"band": 63.6, "defect": 7.0}
def verify_decision_place():
print("\nThe decision place (sweep_decision.json):")
if not os.path.exists("sweep_decision.json"):
print(" !! sweep_decision.json absent — section 'decision place' unverifiable")
FAILS.append("missing sweep_decision.json")
return
with open("sweep_decision.json", encoding="utf8") as fh:
rows = json.load(fh)
by = {(r["spec"][1], r["spec"][5], r["spec"][3]): r for r in rows}
for k, sets in DECISION_CELLS.items():
r = by.get(k)
if r is None:
FAILS.append(f"decision cell {k} missing")
print(f" !! {k} missing — stale sweep")
continue
for setname, want in sets.items():
check(f"{'.'.join(k)} {setname}", r[setname]["total"], want)
d = by[("ratio", "defect", "project")]
check("defect APS solved", d["APS"]["solved"], 153)
check("defect both sets", d["APS"]["total"] + d["CHA"]["total"], 5733)
check("defect is the new canonical best (< 2527)", d["APS"]["total"] < 2527, True)
fam = [r for r in rows if r["spec"][3] in ("project", "safe", "credit")]
check("decision grid guarantee violations", sum(r["APS"]["over"] + r["CHA"]["over"]
for r in fam), 0)
# the refusal rates are recomputed, not transcribed
from scipy.optimize._tstutils import _APS_TESTS_DICTS, _CHANDRUPATLA_TESTS_DICTS
from simroot.pure import pure_root
probs = [(float(q["bracket"][0]), float(q["bracket"][1]),
(lambda ff, aa: lambda t: ff(t, *aa))(q["f"], q.get("args", ())))
for q in _APS_TESTS_DICTS]
probs += [(float(q["bracket"][0]), float(q["bracket"][1]),
(lambda ff: lambda t: ff(t))(q["f"])) for q in _CHANDRUPATLA_TESTS_DICTS]
for mode, want in DECISION_RATES.items():
ref = nfev = 0
for a, b, f in probs:
st = {}
try:
_x, n, _c = pure_root(f, a, b, 1e-12, 200, similarity="ratio",
scale="derived3", guard="project", prestep=mode,
stats=st)
except Exception:
continue
ref += st.get("pre_refused", 0)
nfev += int(n)
check(f"{mode} refusal rate %", round(100.0 * ref / nfev, 1), want)
def verify_gap_decomposition():
"""Section 7.4 of the .md (sec:widelimit in the .tex): the wide-bracket gap taken
apart on the same evaluations. Every number is RECOMPUTED by running the diagnosis
scripts, not transcribed from their saved printouts."""
import contextlib
import io
print("\nThe gap decomposition (fresh runs of the diagnosis scripts):")
import diag_flat_detectable
import diag_model_order
import diag_model_order_checks
with contextlib.redirect_stdout(io.StringIO()):
mo = diag_model_order.main()
ck = diag_model_order_checks.main()
fl = diag_flat_detectable.main()
per = mo["per_problem"]
check("problems where we lose", len(mo["lose"]), 33)
check("fun1.4 our bracket halvings/eval", round(per["fun1.4"][2], 2), 0.62)
check("fun1.4 IQI from our points", round(per["fun1.4"][3], 2), 10.37)
flat = [p for p in per if p.split(".")[0] in ("fun3", "fun4", "fun5", "fun6")]
check("flat: ours min", round(min(per[p][2] for p in flat), 2), 0.41)
check("flat: ours max", round(max(per[p][2] for p in flat), 2), 0.81)
check("flat: IQI min", round(min(per[p][3] for p in flat), 2), 0.01)
check("flat: IQI max", round(max(per[p][3] for p in flat), 2), 0.17)
check("non-degenerate states with one negative weight", mo["neg_ok"], 428)
check("bracketing states in total", mo["neg_all"], 433)
check("every exception is an underflowed zero weight",
all(any(w == 0.0 for w in ws) for _p, _f, ws in ck["exceptions"]), True)
fam = ck["fam"]
gap = {k: v[2] - v[3] for k, v in fam.items()}
check("total gap on the losing problems", sum(gap.values()), 244)
check("flat families' gap", sum(gap[k] for k in ("fun3", "fun4", "fun5", "fun6")), 160)
check("fun1 gap", gap["fun1"], 58)
for k, want in (("fun3", 92), ("fun4", 96), ("fun5", 100), ("fun6", 100)):
b, q = fam[k][0], fam[k][1]
check(f"Chandrupatla bisect share {k} %", round(100.0 * b / (b + q)), want)
for k, want in (("fun4", 297), ("fun5", 233), ("fun6", 233)):
check(f"Chandrupatla total {k}", fam[k][3], want)
check("m>=2 on canonical states %", round(fl["APS (canonical)"][2], 1), 0.2)
check("m>=2 on flat states %", round(fl["CHA flat fun3-6"][2], 1), 5.8)
# the band per family, from the Linux sweep
with open("sweep_decision.json", encoding="utf8") as fh:
rows = json.load(fh)
by = {(r["spec"][1], r["spec"][5], r["spec"][3]): r for r in rows}
base = by[("ratio", "none", "project")]["CHA"]["per"]
band = by[("ratio", "band", "project")]["CHA"]["per"]
def fam_total(per_, k):
return sum(n if ok else 200 for pid, (n, ok) in per_.items()
if pid.split(".")[0] == k)
for k, b0, b1 in (("fun4", 573, 296), ("fun5", 456, 239), ("fun6", 456, 235)):
check(f"band {k} no-gate", fam_total(base, k), b0)
check(f"band {k} with band", fam_total(band, k), b1)
for k, d in (("fun1", 164), ("fun2", 111), ("fun8", 170), ("fun9", 144)):
check(f"band cost on {k}", fam_total(band, k) - fam_total(base, k), d)
# negative item 11, corrected pairing: the same configuration in x and in log space
with open("sweep_full.json", encoding="utf8") as fh:
full = json.load(fh)
xcell = next(r for r in full if r["label"] == "pure.ratio_soft.derived.safe")
check("log item: x-space control APS", xcell["APS"]["total"], 5822)
check("log item: x-space control CHA", xcell["CHA"]["total"], 3643)
def verify_safeguard_and_tables():
"""§3.1 of the .md (the multiplier is a free constant; the earned budget), Tables 2-3
regenerated with Chandrupatla, §5.1, and the constant-free numbers of §7. The
measured tables are RECOMPUTED by running the measurement scripts."""
import contextlib
import io
import measure_budget_factor
import measure_records_vs_multiplier
print("\n§3.1: the multiplier and the endowment (fresh runs):")
with contextlib.redirect_stdout(io.StringIO()):
bf = measure_budget_factor.main()
rm = measure_records_vs_multiplier.main()
for c, (aps, cha) in ((1.0, (4817, 2997)), (1.25, (2806, 2752)), (1.5, (2806, 2889)),
(2.0, (2806, 3220)), (3.0, (2806, 3756)), (4.0, (2806, 4006))):
check(f"multiplier {c} APS", bf[c][0], aps)
check(f"multiplier {c} CHA", bf[c][2], cha)
for c0, (aps, cha) in ((0.1, (5344, 3051)), (0.5, (4656, 3002)), (1.0, (3568, 3020)),
(2.0, (3692, 2712)), (5.0, (3006, 2615))):
check(f"endowment {c0} APS", bf["endowment"][c0][0], aps)
check(f"endowment {c0} CHA", bf["endowment"][c0][1], cha)
within_one_step = {c0: sum(v) for c0, v in bf["endowment"].items() if c0 <= 1.0}
check("C0=1 cheapest within the one-step promise",
min(within_one_step, key=within_one_step.get), 1.0)
sh = rm["shape reading (2527)"]
check("2527 at multiplier 1.25", sh[1.25][0], 2541)
check("2527 flat from 1.5 to 4", {sh[f][0] for f in (1.5, 2.0, 3.0, 4.0)}, {2527})
de = rm["defect reading (2523)"]
check("2523 flat from 1.25 to 4", {de[f][0] for f in (1.25, 1.5, 2.0, 3.0, 4.0)}, {2523})
print("\nTables 2-3 regenerated:")
with open("sweep_full.json", encoding="utf8") as fh:
rows = json.load(fh)
by = {r["label"]: r for r in rows}
none_ = "pure.ratio.derived3.none"
for setname, lbl, pl in (("APS", PROJ, 3), ("APS", none_, 2), ("CHA", PROJ, 47),
("CHA", none_, 228), ("CHA", "pure.exp_abs.bracket.both", 4)):
check(f"{setname} {lbl} place", place(rows, setname, lbl), pl)
check("CHA exp_abs.bracket.both total", by["pure.exp_abs.bracket.both"]["CHA"]["total"],
2733)
check("CHA TOMS 748 over the 2x bound", by["toms748"]["CHA"]["over"], 15)
check("CHA Brent over the 2x bound", by["brent"]["CHA"]["over"], 18)
for lbl, setname, opp, want in (
(CREDIT, "APS", "itp_oracle", (86, 6, 61)),
(CREDIT, "CHA", "itp_oracle", (2, 3, 35)),
(CREDIT, "CHA", "bisection", (5, 0, 35)),
(PROJ, "APS", "chandrupatla", (87, 24, 42)),
(PROJ, "APS", "itp", (132, 3, 18)),
(PROJ, "APS", "itp_oracle", (121, 4, 28)),
(PROJ, "APS", "bisection", (152, 1, 0)),
(PROJ, "CHA", "toms748", (31, 1, 8)),
(PROJ, "CHA", "brent", (30, 4, 4)),
(PROJ, "CHA", "itp", (17, 0, 23)),
(PROJ, "CHA", "itp_oracle", (16, 0, 24))):
w, t, l, _ = head_to_head(rows, lbl, opp, setname)
check(f"{lbl.split('.')[-1]} {setname} vs {opp}", (w, t, l), want)
for lbl, want in ((CREDIT, 6588), (PROJ, 6026), ("chandrupatla", 5228),
("itp_oracle", 5871), ("toms748", 6820), ("brent", 7004)):
check(f"both sets {lbl}", by[lbl]["APS"]["total"] + by[lbl]["CHA"]["total"], want)
print("\n§7 under the earned projection:")
import glob
cells = {}
for p in glob.glob("sweep_*.json"):
if "smoke" in p:
continue
with open(p, encoding="utf8") as fh:
data = json.load(fh)
# only grid files (a list of labelled cells); the out-of-sample results
# (sweep_oos.json, sweep_fourth_*.json, ...) are dicts of a different shape
if not isinstance(data, list):
continue
for r in data:
cells.setdefault(r["label"], r)
for lbl, aps, cha in (("slope.ratio.derived3.credit", 3507, 2997),
("pure+shape+slope.ratio.derived3.credit", 3755, 3021),
("pure+dissim+slope.ratio.derived3.credit", 3857, 3002),
("pure+shape+dissim+slope.ratio.derived3.credit", 4354, 3037),
("defect.ratio.derived3.credit", 3545, 2949)):
check(f"{lbl} APS", cells[lbl]["APS"]["total"], aps)
check(f"{lbl} CHA", cells[lbl]["CHA"]["total"], cha)
free = [r for r in cells.values() if r.get("spec") and len(r["spec"]) > 3
and r["spec"][0] == "pure" and r["spec"][3] == "credit"
and r["APS"]["solved"] + r["CHA"]["solved"] == 193]
top = min(free, key=lambda r: r["APS"]["total"] + r["CHA"]["total"])
check("best constant-free configuration", top["label"], "defect.ratio.derived3.credit")
check("its total over both sets", top["APS"]["total"] + top["CHA"]["total"], 6494)
PLACEMENT_PER_SET = {
"sweep_direction.json": ("CHA", "pure+dissim+slope.ratio.derived3.safe", 2683),
"sweep_gate.json": ("CHA", "gate.ratio_soft.derived.safe", 2851),
}
def verify_placement_modes():
print("\nThe placement modes (each in its own sweep file):")
for path, (lbl, aps, cha) in PLACEMENT.items():
if not os.path.exists(path):
print(f" !! {path} absent — the section quoting it cannot be verified")
FAILS.append(f"missing {path}")
continue
with open(path, encoding="utf8") as fh:
rows = json.load(fh)
try:
d = next(r for r in rows if r["label"] == lbl)
except StopIteration:
print(f" !! {lbl} not in {path} — stale sweep")
FAILS.append(f"{lbl} missing from {path}")
continue
check(f"{lbl} APS", d["APS"]["total"], aps)
check(f"{lbl} CHA", d["CHA"]["total"], cha)
check(f"{lbl} solved", d["APS"]["solved"] + d["CHA"]["solved"], 193)
check(f"{lbl} guarantee (over 2x)", d["APS"]["over"] + d["CHA"]["over"], 0)
for path, (setname, lbl, want) in PLACEMENT_PER_SET.items():
if not os.path.exists(path):
continue
with open(path, encoding="utf8") as fh:
rows = json.load(fh)
d = next((r for r in rows if r["label"] == lbl), None)
if d is None:
FAILS.append(f"{lbl} missing from {path}")
continue
check(f"{lbl} {setname} per-set", d[setname]["total"], want)
if __name__ == "__main__":
main()