#!/usr/bin/env python3
"""Reproduce the bounded C481 synthesis using exact arithmetic and frozen sources."""
from pathlib import Path
from fractions import Fraction as F
import argparse, hashlib, json
HERE = Path(__file__).resolve().parent
parser = argparse.ArgumentParser()
parser.add_argument("--out", type=Path)
args = parser.parse_args()
d = json.loads((HERE/"INPUT.json").read_text())
manifest = json.loads((HERE/"SOURCE_MANIFEST.json").read_text())
checks = []
def check(name, condition):
if not condition:
raise AssertionError(name)
checks.append(name)
for rec in manifest:
p = HERE/rec["path"]
check("source hash: "+rec["path"],
hashlib.sha256(p.read_bytes()).hexdigest() == rec["sha256"])
for filename, label, needle in d["bindings"]:
check("source binding: "+label, needle in (HERE/"sources"/filename).read_text())
def inv(n):
if n == 0: return 0
zeros = 0
while n % 10 == 0:
n //= 10
zeros += 1
return int(str(n)[::-1]) * 10**zeros
def triple_core_gain(n):
# Valid here for n = 10*(100*a+10*b+c), with nonzero outer digits.
core, trailing = divmod(n,10)
a, rest = divmod(core,100)
b, c = divmod(rest,10)
if trailing or not (1 <= a <= 9 and 1 <= c <= 9):
raise ValueError("Outside declared three-digit-core domain")
return 990*(c-a)
r,a = d["rounded"],d["actual"]
E,P,J = [F(*d["ratios"][key]) for key in ("E","P","J")]
parts = {
"regular_primary":[r["regular_creation"]-r["regular_flood"],
r["regular_flood"]-r["conquest"]],
"regular_noah_refinement":[r["regular_creation"]-r["regular_noah"],
r["regular_noah"]-r["regular_flood"],
r["regular_flood"]-r["conquest"]],
"cumulative_primary":[r["cumulative_creation"]-r["cumulative_flood"],
r["cumulative_flood"]-r["conquest"]],
"cumulative_shem_refinement":[r["cumulative_creation"]-r["cumulative_shem"],
r["cumulative_shem"]-r["cumulative_flood"],
r["cumulative_flood"]-r["conquest"]],
"cumulative_noah_refinement":[r["cumulative_creation"]-r["cumulative_noah"],
r["cumulative_noah"]-r["cumulative_flood"],
r["cumulative_flood"]-r["conquest"]]
}
route_results = {}
for name,values in parts.items():
route_results[name] = {"input":values,"reversed":[inv(x) for x in values],
"sum":sum(inv(x) for x in values),
"endpoint":r["conquest"]+sum(inv(x) for x in values)}
A=route_results["regular_primary"]["endpoint"]
check("primary and regular-refined paths meet",
A == route_results["regular_noah_refinement"]["endpoint"]
== route_results["cumulative_primary"]["endpoint"] == d["inherited"]["anchor"])
gains = {n:inv(n)-n for n in parts["regular_primary"]+parts["cumulative_primary"]}
check("outer-digit identity explains all primary gains",
all(g==triple_core_gain(n) for n,g in gains.items()))
check("reversal-derived 8:2 transport",
A-r["regular_creation"]==8*990 and r["cumulative_creation"]-A==2*990)
check("weighted rounded anchor",
5*A==4*r["cumulative_creation"]+r["regular_creation"])
deltaC=a["cumulative_creation_completion"]-r["cumulative_creation"]
deltaR=a["regular_creation_completion"]-r["regular_creation"]
check("weighted state-change kernel",4*deltaC+deltaR==0)
check("actual anchor inherited by endpoint pair",
5*A==4*a["cumulative_creation_completion"]+a["regular_creation_completion"])
check("990 and 989 paired representations",
r["cumulative_creation"]==A+2*990 and r["regular_creation"]==A-8*990
and a["cumulative_creation_completion"]==A+2*989
and a["regular_creation_completion"]==A-8*989 and 989==23*43)
check("known secondary branch",route_results["cumulative_shem_refinement"]["endpoint"]
==route_results["cumulative_noah_refinement"]["endpoint"]==A+990)
whole = {k:r["conquest"]+inv(r[k]-r["conquest"])
for k in ("regular_creation","cumulative_creation")}
check("whole-span operation does not reproduce segmented convergence",
whole["regular_creation"]!=A and whole["cumulative_creation"]!=A
and whole["regular_creation"]!=whole["cumulative_creation"])
completed=r["nativity"]+inv(r["conquest"]-r["nativity"])+route_results["regular_primary"]["sum"]
check("Nativity completion",completed==d["inherited"]["completed_anchor"]
and E*(completed-r["nativity"])==16000)
u={name:F(A-x,23) for name,x in a.items()}
check("all selected actual nodes have integral 23 coordinates",
all(v.denominator==1 for v in u.values()))
step=a["jared"]-a["noah_gear1"]
check("source-selected 14/15/16 progression",
step==a["noah_gear1"]-a["flood_gear2"]==598
and [A-a[name] for name in ("jared","noah_gear1","flood_gear2")]
==[step*m for m in (14,15,16)])
conversions={}
for name in ("jared","noah_gear1","flood_gear2"):
span=A-a[name]
conversions[name]={key:{"span":ratio*span,"endpoint":A-ratio*span}
for key,ratio in (("E",E),("P",P),("J",J))}
check("three calibrated step sizes",J*step==600 and E*step==650)
check("Jared E and Noah P agreement",
E/P==F(15,14)
and conversions["jared"]["E"]["endpoint"]
==conversions["noah_gear1"]["P"]["endpoint"]==2926)
check("calendar calibration retained",
336*E==360*P==364*J==F(8400,23))
micro=a["regular_creation_completion"]-a["noah_gear1"]
macro=A-a["exodus"]
check("actual Creation-Noah decomposes as 460 plus 598",
micro==a["regular_creation_completion"]-a["jared"]+step==460+598==2*23**2)
check("tenfold cross-family placement",macro==10*micro==20*23**2)
Afromactual=a["exodus"]+10*micro
check("same anchor from actual Creation-Noah and Exodus",Afromactual==A)
relation=4*a["cumulative_creation_completion"]-49*a["regular_creation_completion"]+50*a["noah_gear1"]-5*a["exodus"]
check("combined source linear constraint",relation==0)
small=[F(micro)*E**k for k in range(3)]
large=[F(macro)*E**k for k in range(3)]
check("C480 duration sequence retained",small==list(map(F,d["inherited"]["C480_widths"]))
and [b-c for c,b in d["inherited"]["C480_intervals"]]==d["inherited"]["C480_widths"])
check("homogeneous scale intertwines the expansions",large==[10*v for v in small])
first=[A-E*(A-a[key]) for key in ("regular_creation_completion","noah_gear1")]
second=[A-E*(A-x) for x in first]
check("bounded endpoint pressure check",
first==[3426,2276] and second[0]-second[1]==1250
and [x%1 for x in second]==[F(4,23),F(4,23)])
mirror_q=[F(A-1)-w for w in large]
check("source-declared Rounded Mirror completion",mirror_q==[1445,525,-475])
def show_rounded(q):
return ("AD "+str(q+1)) if q>0 else (str(1-q)+" BC" if q<0 else "origin")
outputs={
"step":"C481","status":"PASS","checks":checks,
"source_hashes":{x["path"]:x["sha256"] for x in manifest},
"source_routes":route_results,"decimal_gains":gains,
"shared_anchor":A,"actual_reconstruction":Afromactual,
"state_change":{"cumulative":deltaC,"regular":deltaR,"weighted_residual":4*deltaC+deltaR},
"actual_23_coordinates":u,"conversions":conversions,
"secondary_branch":route_results["cumulative_shem_refinement"]["endpoint"],
"whole_span_countercomparison":whole,
"Nativity_anchor":completed,"linear_constraint_residual":relation,
"small_ladder":small,"large_ladder":large,
"same_anchor_first_pair":first,"same_anchor_second_pair_diagnostic":second,
"Rounded_Mirror_q":mirror_q,"Rounded_Mirror_displays":[show_rounded(q) for q in mirror_q],
"scope_note":"Retrospective source-conditioned synthesis. No target scan rerun, historical-probability claim, or inverse-of-the-inverse research."
}
def serialize(x):
if isinstance(x,F): return x.numerator if x.denominator==1 else f"{x.numerator}/{x.denominator}"
if isinstance(x,dict): return {str(k):serialize(v) for k,v in x.items()}
if isinstance(x,list): return [serialize(v) for v in x]
return x
text=json.dumps(serialize(outputs),indent=2,ensure_ascii=False)+"\n"
if args.out: args.out.write_text(text)
print(json.dumps({"status":"PASS","checks":len(checks),"source_hash_checks":len(manifest),
"source_bindings":len(d["bindings"]),"anchor":A,"actual_reconstruction":Afromactual,
"small_ladder":serialize(small),"large_ladder":serialize(large),
"mirror":outputs["Rounded_Mirror_displays"]},indent=2))
Evidence
check.py
Edition and provenance
check.py
SHA-256 09799e8b407dcff1dd7cfb7aa7156181b33945c9187b582be743ff53e9236860
C480–C1634/Research_Cycles/C0481/evidence/check.py