The core corruption is not “the under was wrong.” ...
创建于:2026年3月1日
使用 GPT-5.2 Thinking 回答 Chat01
创建于:2026年3月1日
使用 GPT-5.2 Thinking 回答 Chat01
The core corruption is not “the under was wrong.” The corruption is that your system is letting tail-suppression logic leak into the price-discovery layer. That is how you can get the right side (UNDER) but the wrong fair line (18.5 instead of something like 21.5–22.5).
The biggest architectural mistake is exactly what you said: cluster stopped being independent once you let it inherit blended Markov output instead of judging raw engines separately. Your own getTotalsPick() comments still define the intended design correctly: MC builds the world, Markov is the independent cross-check, and cluster is the final conviction judge. 
But the actual implementation feeds getTotalsPick() a blended no-push probability (pOverEval), not pure MC, and even computes gapP as abs(pOverEval - pOverMarkov) — which means your disagreement metric is partially comparing Markov to itself. That mechanically understates disagreement and makes false consensus far more likely. 
There is also an internal contradiction in the file: one section says direction should come from MC and Markov should only cross-check/downshift confidence, not flip sides. 
But getTotalsPick() Step 1 explicitly seeds the tentative side from the combined totals engines. 
That contradiction is the smoking gun. Your architecture says cluster is sovereign, but your pipeline makes it review a contaminated signal.
Why the fair line crashes to 18.5 even when UNDER is still the right side
Your fair-line routine itself is not the bad part. The CDF scan is fine; it correctly finds the half-line where P(over) is nearest 50%. 
The problem is the distribution you feed into it is already compressed.
Three things are doing most of that compression:
1. Blowout tanking still shortens matches too aggressively in big mismatches.
The sim still has mismatch-aware tanking that can trigger earlier in large gaps, and it scales the penalty with mismatch size. 
Even after softening, that still pushes more 6-1 / 6-2 paths than your “fair pricing” layer should inherit.
2. Your set-path logic explicitly suppresses long-match tails.
The file literally says Conditional Set Dependence is on, includes reverse taper when the underdog steals Set 1, and includes an optional Set 3 taper “to control the 29+ tail in mismatches.” 
That means the engine is not just modeling; it is actively shaving the very tail that would keep a fair line closer to 21.5–22.5.
3. Your market anchor is too weak to rescue a broken distribution.
The “market calibration hook” only uses a 5% default pull, and only 15% in wild tier-gap cases. 
So once the sim collapses to 18.5, the anchor is nowhere near strong enough to pull it back into a sane range.
That is why you get this exact failure mode:
• the system still sees enough left-tail mass to say UNDER,
• but the center of mass gets dragged far too low, so the “true” fair line prints like a blowout special.
What “fixing it” actually means conceptually
You need to split your totals system into two lanes:
This is where the fair line comes from.
This lane should answer only:
“What total is the true 50/50 number if the players play to baseline ability?”
That means:
• use the raw totals distribution,
• allow normal mismatch effects,
• but do not let late-path anti-tail governors define the center,
• and do not let cluster or Markov blending move the actual fair line.
In other words:
fair line should come from the least opinionated distribution you trust, not the most heavily governed one.
This is where the bet label comes from.
This lane should answer:
“Even if the fair line says UNDER, is this shape clean enough to bet?”
That is where cluster belongs:
• tail shape,
• p(3 sets),
• 2-set vs 3-set divergence,
• volatility bands,
• mismatch blowout risk,
• conflict between engines.
So in your example, the system should be able to say:
• Fair line: 21.5–22.5
• Pick: UNDER 22.5
• Confidence: modest / fragile / blowout-dependent
That is healthy.
Right now you are letting the conviction lane overwrite the price lane.
How to fix Markov (without patching)
Your current Markov design is explicitly not independent.
The comments in markovEffectiveHolds say Markov “must use the SAME mismatch-compressed regime as the Monte Carlo sim,” and that it lowers effective holds to approximate the sim’s conditional taper. 
That is exactly what breaks the cross-check.
A true independent Markov layer should be:
• constant-hold
• baseline-driven
• pre-taper
• pre-tanking
• pre-cluster
• pre-path-punishment
Meaning: Markov should represent the clean analytic prior of “if these hold rates are real, what is the expected scoring structure?”
It should not inherit:
• reverse taper,
• set-3 penalty,
• mismatch collapse,
• ORP-based underdog suppression,
• or any “control the 29+ tail” logic.
If you want Markov to remain useful:
• let it use baseline hold inputs only,
• maybe surface-normalized,
• maybe lightly shrunk for sample quality,
• but never let it mirror MC’s stateful anti-tail behavior.
Because once Markov inherits the same penalties, it stops being an audit and becomes a second copy of the same bias.
The exact cluster problem you need to undo
Cluster is supposed to judge raw disagreement.
So conceptually, cluster should compare:
• MC raw no-push probability
vs
• Markov raw no-push probability
and
• MC fair line
vs
• Markov fair line
It should not compare a Markov-influenced blend to Markov.
Right now, because gapP is based on the blended pOverEval, the disagreement threshold is artificially damped. 
That means:
• severe disagreement often looks moderate,
• moderate disagreement often looks mild,
• cluster doesn’t veto when it should,
• and the whole system “agrees” with itself too often.
So the conceptual fix is simple:
• Cluster must see raw engine outputs only.
• Blends happen after governance, not before governance.
• Or better: blends should inform display, not authority.
How to tone down ORP so it stops centering everything toward the favorite
This is the other major issue.
Your ORP logic is not just “one adjustment.” It is entering the system in multiple layers:
1. adjustStatsByOppQuality changes the actual stats before the winner engine uses them. 
2. oppAdjFormLayer adds opponent-adjusted form as a first-class blend component and allows weight up to 0.48. 
3. oppAdjFormDeltaP increases its own k and dynamic cap when trust gaps widen. 
4. applyOppTrustToProb still applies final uncertainty compression based on trust. 
So even if any one ORP piece seems “reasonable,” the same schedule story is being counted multiple times.
That is why it feels like ORP “always pushes to the favorite”:
not because one formula is insane, but because schedule quality is getting multiple votes.
The key ORP insight from your current file
Your header patch notes still describe the older aggressive ORP philosophy (including asymmetric edge expansion against a soft-schedule underdog). 
But the live v17.4 applyOppTrustToProb function is already safer: it says trust now controls compression, not edge expansion, and it should “NEVER auto-boost a favorite against a soft-schedule underdog.” 
That means your current favorite bias is probably not mainly coming from the final trust compressor anymore.
It is more likely coming from:
• ORP-adjusted stat inputs,
• plus widened form-layer weights,
• plus trust-gap scaling,
• plus decision-layer schedule interpretation.
So the real conceptual fix is:
ORP should be demoted from “direction driver” to “credibility modifier”
In practice, that means:
• Use ORP to discount noisy recent form, not to redefine core player quality.
• Let ORP nudge hold/return, not re-anchor them.
• Let ORP cap confidence, not choose the side when Elo + matchup + baseline holds disagree.
• When trust is weak, ORP should mostly say:
“be less sure”
not
“the favorite is much more likely.”
The safest ORP architecture
Think of ORP as a residual:
Raw ability = slow prior
Matchup translation = today’s actual tennis fit
ORP = “How much should I trust the recent stat sample?”
That means ORP should:
• shrink extreme recent stats toward the middle,
• reduce confidence when schedules are soft/uneven,
• maybe mildly reward hard-schedule overperformance,
• but not become a second primary engine.
If it’s still flipping too many matches favorite-ward, then ORP is overpowered relative to your base layer.
What to change in ORP philosophically
You asked how to tone it down. Conceptually:
• Narrow the trust band.
The less distance between “soft” and “hard,” the less schedule alone can move a match.
• Lower ORP’s maximum authority.
A schedule-adjusted form layer with a cap near 0.48 is huge for what should be a corrective layer. 
• Remove trust-gap amplification as a default.
Right now, the bigger the trust gap, the more ORP wants to matter. That is exactly when your model is most at risk of overcorrecting.
• Never let ORP stack in three places at full power.
Pick one of these roles as primary:
• stat pre-adjustment, or
• separate form blend, or
• final probability compression
But not all three as major movers.
• Treat low coverage as uncertainty, not favorite fuel.
Thin opponent-rank coverage should trigger caution/PASS pressure, not bigger favorite edges.
Why your “under correct, fair line too low” diagnosis is exactly right
That diagnosis means the model is confusing:
• distribution shape
with
• distribution center
A matchup can genuinely be under-friendly because:
• straight-set probability is elevated,
• left tail is healthy,
• cluster sees weak 3-set support,
while still having a fair line around 21.5–22.5 because:
• enough 7-5 / 7-6 / split-ish lanes still exist,
• the underdog can hold enough to avoid constant 6-1s,
• the center should sit higher than the extreme-left tail.
When your engine prints 18.5 in that spot, it is overfitting to the most violent blowout paths and treating them like the baseline world.
That is not an under call problem.
That is a center-of-distribution corruption problem.
The clean repair order
1. Restore cluster independence.
Cluster must audit raw MC vs raw Markov, not blended values. 
2. Restore Markov sovereignty.
Stop feeding Markov the same mismatch-compressed hold regime as MC. 
3. Separate fair-line generation from tail-control logic.
Fair line should come from a cleaner base distribution; cluster/taper should grade conviction, not redefine the center. 
4. Demote ORP.
ORP should be a trust/correction layer, not a repeated directional enforcer.  
5. Use the market anchor as a sanity rail, not a weak afterthought.
At 5–15%, it cannot rescue a collapsed sim on its own. 
The blunt truth:
your system is not corrupted because it likes favorites.
It is corrupted because it keeps letting “confidence control” logic mutate the actual pricing engine.
That is why the right side can survive while the fair line dies.
Update my script then send it as a downloadable txt link do not send me instructions telling me how to fix it bc I just gave u instructions update my script after updating check for syntax and undefined issue
I’m looking at a file in /mnt/data and thinking using Python to edit it would be easiest. I need to focus on the functions like getTotalsPick(), gapP calc, and blending. I’m also thinking I should add an option in the simulation for disabling certain features, especially tail control when computing the fair line. I'll implement that as a flag or separate function to keep it simple.
I need to modify the existing runMatchSimulation_Exact() by passing an option to trigger price discovery. Inside the simulation, I’ll disable certain conditions like tapering and blowout tanking. Additionally, I’ll update the _markovEffectiveHolds_ function to ensure it uses baseline inputs without mismatch penalties, so I'll create a new version for this.
I need to modify _markovEffectiveHolds_ to return baseline holds without the mismatch penalty, and change comments to reflect this. I'll still compute mismatch for diagnostics, but it shouldn't affect the holds. Inside getTotalsPick(), I’ll calculate pOverMC and pOverMarkov separately, then compute gapP. This will help ensure Markov stays independent, and I'll need to trace the uses of related functions.
For Step 1, I need to seed the tentative side from MC, not combined totals engines. So, I'll choose the tentative side as "OVER" or "UNDER" based on pOverMC. I'll let the Markov cross-check adjust confidence but not flip the result. Also, tail suppression logic is leaking into the price discovery layer, so I’ll ensure fairLine comes only from raw totals distribution, using priceDiscovery outputs. I'll compute mcDistPrice based on MC without taper or tank.
Since the file is huge, I’ll use Python to search for function definitions, implement changes, and check for syntax or undefined variables. I'll focus on key functions like getTotalsPick, components of the price discovery lane, and updating Markov to be independent. I plan to compute different values for price distribution, conviction distribution, and Markov cross-check while ensuring my changes don't break other existing logic, especially around flags and governors.
For fairness, I’ll use the baseline hold inputs that feed the simulation before the governors and apply them for pOverMarkov at the market line. The cluster should compare the raw MC conviction to the raw Markov, but not the blended values. For price discovery, MC should likely exclude tail controls, while for conviction, it can include them.
The user wants the cluster to judge raw engines (MC and Markov) separately. To fix tail suppression impacts on the fair line, we should compute it using an ungoverned distribution. Cluster can still use governed MC, while Markov should remain independent. We'll compute gapP between governed MC and Markov states for better separation.
We'll update the code to use MC alone in Step 1 for direction, ensuring Markov only cross-checks. As for market anchor, we should not let it interfere with the fair line directly. It can apply as a last resort if the fair line is too far from the market, adjusting by 30-60% dynamically.
We'll apply the anchor as a safety rail, ensuring a strong pull when there's a significant mismatch or if the line goes out of plausible bounds. We’ll also adjust ORP to prevent stacking, limit compression, and demote weights to reduce the impact, avoiding any model-breaking changes. This update focuses solely on totals.
We’ll adjust the functions to ensure that compression only moves toward 0.5 based on the trust gap. This change aligns with the credibility modifier. We'll modify constants, adjust weights, and shrink the trust-gap scaling. We'll implement these adjustments in the relevant functions and keep the double-adjustment guard intact.
We'll disable blowout tanking and conditional taper for the price discovery lane in the totals simulation. This involves overriding related flags and functions such as _tankMultiplier, and we’ll ensure not to introduce new issues. We’ll adjust these settings, focusing only on the fair line, then proceed with analysis in Python.
import re, pathlib, textwrap, json, os, sys, math path="/mnt/data/Tennislocks_V17.4_Cluster_Governor_v17.4.5_FIXED.txt" text=pathlib.Path(path).read_text(encoding="utf-8", errors="replace") len(text), text[:200]
m = re.search(r'function\s+getTotalsPick\s*(', text) m.start() if m else None
start=m.start() snippet=text[start:start+3000] snippet[:1500]
snippet[1500:3000]
snippet2=text[start:start+12000] print(snippet2[3000:6000])
It looks like the getTotalsPick approach is partly aligned with the user's suggestion; however, there’s still reliance on the combined pO. We’ll need to make sure gapP is calculated correctly and not influenced by it. I'll search for where ctx.gapP is set and ensure the logic for its computation is correct.
assigns = [m.start() for m in re.finditer(r'ctx.gapP\s*=', text)] len(assigns), assigns[:5]
I haven't found a direct assignment for ctx.gapP. It's possible the variable is stored under ctx.gapP, but I haven't located it yet. To make sure the computation is correct, I'll search for all occurrences of gapP = to track where this value is being set or modified.
occ = [m.start() for m in re.finditer(r'\bgapP\b\s*=', text)] len(occ), occ[:10]
Positions are likely defined within getTotalsPick and related functions. To understand more, I need to check the code around line 603381. I'll open the code closer to line 603300 to get a better view of the context, especially the assignments and logic leading up to the gapP computation.
for pos in occ: print(pos, text[pos-50:pos+120].replace("\n"," ")[:160])
I found the assignment at position 819267: _totCtx.gapP = abs(pOverEval - pOverMarkov). It looks like the bug persists in another function that handles the context (ctx). I’ll focus on fixing it at the source. I'll open the code around line 818900 to inspect further and plan the
pos=819267 print(text[pos-500:pos+500])
I need to patch _totCtx.gapP to use pOverMCNoPush instead of pOverEval. Also, pOverEval contributes to _totCtx.pOverBlend, but I’ll have to ensure that only raw outputs are passed to the cluster. I'll review the roles of pO, pMC, and their interactions with getTotalsPick as well as the final output logic.
def extract_function(name): # naive: find 'function name(' and then count braces start = text.find(f'function {name}(') if start==-1: return None i=start # find first '{' i=text.find('{', start) depth=0 for j in range(i, len(text)): if text[j]=='{': depth+=1 elif text[j]=='}': depth-=1 if depth==0: return text[start:j+1] return None
gtp = extract_function("getTotalsPick") len(gtp) if gtp else None
gtp[-1200:]
I need to review earlier parts of getTotalsPick where it sets the initial side or uses pO. I'll focus on sections around where it sets the "side" variable or pOver. Searching within the function for "var side" might help pinpoint where things are being set up.
for pat in ["tentative", "Step 1", "side", "pO >= 0.5", "pMC >= 0.5"]: idx = gtp.find(pat) if idx!=-1: print(pat, idx, gtp[idx-80:idx+200].replace("\n"," ")[:250])
Step 1 requires changing the seed from pO to pMC inside getTotalsPick. The _side0 in the bimodal guard should likely use the tentative side and pMC instead of pO, since direction comes from MC. For the fragile variable, I might need to use pMC as well. I'll consider updating pick classification with raw MC for better accuracy, especially for side determination and probability evaluation.
The architecture suggests using pMC for the world-building process and Markov cross-checks, so the probability for over/under at the market line should be based on pMC. We’ll adjust getTotalsPick to compute pEval = pMC by default, and use pO only if pMC isn't available. I’ll update the pipeline accordingly and change where getTotalsPick is called.
calls = [m.start() for m in re.finditer(r'getTotalsPick\s*(', text)] len(calls), calls[:10]
for pos in calls[-3:]: print(pos, text[pos-120:pos+200].replace("\n"," ")[:280])
We need to change totPick = getTotalsPick(pOverEval, _totCtx); to use pOverMCNoPush (raw MC). For display, we can keep pOverBlend in ctx, but for downstream processing, pOverGames should represent pOverMCNoPush. We'll set fairLineMC from price-discovery MC and implement separate variables like fairLinePriceMC and fairLineGovernedMC.
for m in re.finditer(r'fairLine', gtp): pass gtp.count('fairLine')
for m in re.finditer(r'fairLine\w*', gtp): idx=m.start() print(gtp[idx-60:idx+80].replace("\n"," ")[:160])
We’ll set ctx.fairLineMC to reflect the price-discovery fair line. For the cluster logic, the fair line may need to come from the governed model, but the Markov line should remain independent. The pick at the market line should rely on the real-world distribution, considering tail suppression and conviction adjustments, but pricing should stay tied to the price-discovery distribution.
For computing pick confidence at the market line, we'll use the ungoverned distribution to avoid overconfidence, as the user wants "modest" confidence. The cluster will still use governed features to assess shape and decision-making. The price discovery lane will rely on ungoverned distribution, while the conviction lane will use governed data for final decisions.
For the two simulations: the first one uses ungoverned MC for fair line calculations, probability, and p3 without tapering. The second uses governed MC to adjust features like cluster metrics and p3 to reflect real behavior and blowout risks. Totals pick should use pMC from the price lane and cluster metrics from the governed simulation.
In the totals evaluation section, we need to modify the pipeline to create _totSimPrice and _totSimGov. The existing code calculates _totSim from runMatchSimulation_Exact with taper conditions, so we will need to adjust it. I’ll locate the function call around line 820928 and extract more context.
context = text[818000:823200] print(context[:4000])
It seems that pOverGames is initially computed from mcOU and later becomes the final pOverGames. I need to locate where mcOU and pOverGames are calculated earlier in the code, probably before line 815000. I’ll scroll up to find more context on how these are set.
earlier = text[812000:818000] print(earlier[:4000])
We need to make sure that pOverEval is used for diagnostics and possibly displayed in the preview, but not for the pick or gapP. Instead, pOverMC (price discovery lane) should be used for the final pick and direction. I’ll need to find where pOverGames is computed, likely in reference to mcOU, and adjust accordingly.
idx = text.rfind("pOverGames", 812000, 818000) idx
print(text[813900:814300])
for m in re.finditer(r'\bpOverGames\s*=', text[800000:812000]): print(800000+m.start(), text[800000+m.start()-40:800000+m.start()+60].replace("\n"," "))
print(text[807700:812200])
We’ll modify the Markov effective holds to return holds as a baseline rather than compressing them. To maintain independence, we need to remove the penalty shrinkage from decider calculation. We could let mismatch come from _effMk for its output, but need to ensure no shrinkage, especially for totals Markov. For conviction lane's UNDER-trigger policy, maybe MC decider is more appropriate than Markov.
It looks like the Markov decider for under-score penalties currently overrides the MC decider, which could be causing the "tail suppression leak." We should switch to using the simulation decider for under-triggers rather than Markov. I'll adjust the code to keep Markov diagnostic-only and prevent it from overriding MC, while defining an additional simulation for price discovery based on the MC list.
for m in re.finditer(r'gamesListAdj\s*=', text): if 800000 < m.start() < 825000: print(m.start(), text[m.start()-100:m.start()+200].replace("\n"," ")[:300])
It seems like there’s no assignment in this particular region of the code, so it’s possible that the variable or element is defined earlier. I'll search globally to see if I can locate its earlier definition and get a better sense of what’s going on.
matches=[] for m in re.finditer(r'var\s+gamesListAdj\b', text): if 780000 < m.start() < 830000: matches.append(m.start()) matches[:10], len(matches)
It looks like gamesListAdj might be derived from _totSim.gamesList after some adjustment. I’ll search for "gamesListAdj" in the code to see where it appears and get a better understanding of how it's being used and adjusted.
occGL = [m.start() for m in re.finditer(r'gamesListAdj', text)] len(occGL), occGL[:20]
I’ll take a look at the code around 799800 to understand how things are functioning. The occurrences around 800285 and the surrounding area could provide context on the behavior or adjustments that are happening, so it’ll help if I inspect that section closely.
print(text[799800:801200])
This section is in the MATCH_PREVIEW output build, not in compute totals, but it’s still important. They define _pOverEval and later set it to pOverGames, but we’ll adjust that. I’ll check around 762000 to understand where gamesListAdj is created in the simulation, as it seems relevant for the computations.
print(text[763800:766800])
This part shows an adjusted totals list built from _totSim.gamesList and corrInt. _totSim seems to be the output of a Monte Carlo simulation for totals, likely with governors and set tapers. We'll need two versions of _totSim: one governed and one for price. Let's search for "runMatchSimulation_Exact" or "_totSim =" to find where it's created.
for m in re.finditer(r'\b_totSim\s*=', text): if 740000 < m.start() < 770000: print(m.start(), text[m.start()-80:m.start()+120].replace("\n"," ")[:250])
It seems like _totSim might have been declared earlier. I'll search for the term "var _totSim" to locate where it's initialized. That could help clarify its role and how it's being used in the overall process.
for m in re.finditer(r'var\s+_totSim\b', text): if 700000 < m.start() < 830000: print(m.start(), text[m.start()-60:m.start()+100].replace("\n"," ")[:200])
It looks like the totals simulation is happening around 737521. I should focus on inspecting the lines between 736800 to 739200 to understand its context better. This way, I can figure out the specifics of how the simulation is affecting the rest of the code.
print(text[736600:739700])
Okay, so "runMatchSimulation_Exact" is used for totals simulations with options like totalsOnly: true, which includes tapering and blowout tanking. To create a new simulation for price discovery, I could adjust this with the priceDiscovery: true flag, though running another might exceed the time budget. Alternatively, I could tweak the original simulation by disabling taper/tanking and reducing iterations. Still, I need to balance these adjustments with the time constraints.
For the price discovery fair line, I'll use Markov distribution alone since it's a simpler constant hold. However, the user prefers the fair line around 21.5-22.5 and wants it from the MC engine, not Markov. I'll reuse the same totals simulation runs, but with smaller iterations (around 4,000). If time runs low, I'll optimize and fall back to the existing fair line. Time budget permitting, this should be feasible.
To minimize overhead, I'll use Markov for the fair line if the price simulation isn't run, although I shouldn't rely on that. Now, I need to find the runMatchSimulation_Exact function, so I can adjust the global flags like USE_CONDITIONAL_SET_TAPER based on the opts passed and set local flags accordingly. Guess I'll start by searching for the function definition.
m = re.search(r'function\s+runMatchSimulation_Exact\s*(', text) m.start() if m else None
rms = extract_function("runMatchSimulation_Exact") len(rms)
print(rms[:2000])
I continue to see the use of tanking and tapering in the simulation. These components might play a significant role in how the model behaves. It’s important to stay mindful of their impacts, especially as we refine the price discovery simulation approach and adjust various parameters.
print(rms[2000:4500])
The tanking penalty, _densityTankPenalty, has been computed. Now, I’ll need to add a condition to disable tanking when certain flags are set, like opts.priceDiscovery or opts.disableTanking. I should also check if _tankMultiplier needs any adjustments. I’ll search within the match simulation code for more uses of "tank."
for kw in ["tank", "TAPER", "USE_CONDITIONAL_SET_TAPER", "APPLY_TAPER_TO_SET3"]: if kw in rms: print(kw, rms.find(kw))
print(rms[6800:7600])
The conditional set dependence precomputes, utilizing the USE_CONDITIONAL_SET_TAPER later. Now, I’ll disable it. Next, I’ll focus on locating where it’s applied in the code to make sure everything is properly adjusted. Let’s track down its implementation and make the necessary changes.
print(rms[17600:18850])
print(rms[18850:21050])
I’ll need to adjust the conditional logic for tapering, especially using USE_CONDITIONAL_SET_TAPER. I'll define a local flag to manage whether to apply it based on the opts settings. I’ll replace references in the code to use these new flags. Also, I'll search for _densityTankPenalty to see where it's influencing mismatches.
idx = rms.find("_densityTankPenalty") idx
for m in re.finditer(r'_densityTankPenalty', rms): print(m.start(), rms[m.start()-60:m.start()+80].replace("\n"," ")[:150])
_densityTankPenaltyIt looks like _densityTankPenalty is defined but not used here, and I wonder if it's being replaced by a base penalty computed elsewhere. To confirm, I'll search for occurrences of "basePenalty" and check where that’s used, potentially in other parts of the code outside this function.
for kw in ["basePenalty", "blowout", "tankPenalty", "_tankMultiplier", "_densityTankPenalty"]: print(kw, rms.count(kw))
I’ll investigate where and how basePenalty is applied in the code. Since it seems potentially related to _densityTankPenalty, I'll look for instances of basePenalty and check how it’s being used. This might give me clarity on its role or any relation to the earlier variable.
for m in re.finditer(r'basePenalty', rms): print(m.start(), rms[m.start()-80:m.start()+150].replace("\n"," ")[:230])
The blowout tanking is implemented around line 12094 inside runMatchSimulation_Exact. To disable it during priceDiscovery, I’ll either set basePenalty to 0 or skip the block entirely. I need to check the surrounding context a bit more to determine the best approach.
print(rms[11850:13150])
To disable tanking during priceDiscovery or specific scenarios, I’ll set basePenalty = 0 or skip the block if opts.disableTanking is true. I’ll define these flags in runMatchSimulation_Exact. For Markov independence, I'll modify _markovEffectiveHolds_ to return unchanged baseline holds, and handle mismatch for diagnostics. I'll check if this change affects other areas beyond totals.
I plan to remove the shrink adjustment for Markov, so I’ll compute pMarkov3Set from pDecRaw without any shrink or penalty and keep mismatch for information. I'll check if matchOutcomeProbs uses winProb and investigate its logic. Depending on the findings, I may adjust the options used.
m = re.search(r'function\s+matchOutcomeProbs\s*(', text) m.start() if m else None
mo = extract_function("matchOutcomeProbs") len(mo)
print(mo[:1200])
It looks like matchOutcomeProbs reads tourCode and surfaceAlias from the sheet, and includes a tank multiplier, but it might not apply to holds—I'll need to confirm that. It may call simulateSet_Markov. I’ll search for “basePenalty” or “tank” within the function to see how it might be used.
for kw in ["basePenalty", "tank", "TAPER", "markovEffectiveHolds"]: print(kw, mo.find(kw))
I’ve noticed a mention of 'tank', possibly in comments, but nothing definitive. It might have something to do with a conditional set taper, potentially affecting match total distribution. If that’s the case, it could impact Markov independence. I’ll check where "TAPER" is referenced to be sure.
print(mo[10650:11250])
I’ve confirmed that matchOutcomeProbs includes conditional taper logic, which messes with Markov independence. To fix that, we'll disable taper logic within matchOutcomeProbs when used for Markov cross-checks. We’ll add a new flag to skip taper and tanking logic, ensuring independence. I’ll also check for tanking usage in simulateGame.
We’ll add local flags in matchOutcomeProbs to manage tapering logic, based on conditions like independence or price discovery. Markov should remain independent, so I'll ensure _useSetTaper is always false when used for Markov cross-checks. I'll consider other uses for matchOutcomeProbs, but prioritize Markov independence.
We need to ensure that the necessary flag is passed when calling matchOutcomeProbs in the totals section, with the flag set to { tourLabel: _mkTour, independent: true }. I'll also remove winProbA/B seeds since they’re not necessary. I'll verify the use of matchOutcomeProbs in matchTotalDistribution too.
m = re.search(r'function\s+matchTotalDistribution\s*(', text) m.start() if m else None
mtd = extract_function("matchTotalDistribution") len(mtd)
print(mtd[:900])
Disabling taper within matchOutcomeProbs ensures Markov independence by adjusting the distribution. I'll compute pOverMarkov from the Markov distribution to enforce this. For the fair line, it seems fairLineMC is derived from the earlier computed totFairLine. I'll search for where totFairLine is computed, likely in findFairLine.
pos = text.find("totFairLine") pos
print(text[pos-200:pos+200])
The fairLine derived from fairLineFromSortedTotals is influenced by the governed distribution, but we need it to come from the price discovery distribution, which is ungoverned. We'll build a price discovery games list, simulate without taper or tanking, and apply the same correction factors—but without relying on tail suppression from the governed simulation.
For the fair line, we need to compute it from a Markov distribution with rank/surface adjustments, but using the price discovery distribution is important for accuracy. So, we’ll create a new adjusted price discovery list using the corrected integer adjustment (corrInt) based on the price simulation. However, tail suppression could affect the projection, so this will need careful handling to ensure accuracy.
We’ll recompute the correction adjustment relative to the price simulation mean for better accuracy. After adjusting for rank-based projections, we'll calculate the corrected total games. We'll need both the governed and ungovened simulations for different parts of the process, like the total simulation and cluster medians.
For the totals, I’ll continue using the governed simulation for cluster shapes and adjustments, but compute the price mean and median separately with the price simulation. I'll apply the same correction to both simulations to maintain consistency, ensuring the market and fair line definitions remain aligned.
The correction logic may be redundant but is still part of the process. To handle this, I'll recompute the fair line by using the price discovery simulation but applying the same correction. This ensures outputs use consistent adjustments while keeping cluster diagnostics from the governed simulation. I'll adapt the code for both price discovery and conviction (cluster) lanes.
To ensure the user avoids corruption, we'll display the corrected fair line and probability from the price lane at the market line. We will carefully modify the code, keeping the mcOU for shape while introducing mcOUPrice. Changes will focus on gamesListPriceAdj and related calculations, updating totBaseMean based on the new price simulation.
We'll use gamesListPriceAdj for price-discovery, built from _totSimPrice.gamesList and corrInt. Existing gamesListAdj will stay for shape metrics, but will now be updated to reflect the price lane where needed. Changes will ensure fair line, probability, and diagnostics include this adjustment, while keeping some code unchanged for diagnostic display.
In the totals pick calculation, I’ll make sure pOverGames comes from the price distribution, using gamesListPriceAdj for price lane computations. For shape metrics, I’ll stick with the governed distribution (gamesListAdj). This keeps the tail metrics separate but ensures fair line and probability are based on the price distribution.
I need to make sure the fair line is set correctly by adjusting ctx.fairLineMC to use the price distribution from fairLineMC. To do this, I'll ensure that gamesListPriceAdj is available early on at 804528. For cluster medians, I’ll check the correction block to confirm how _totCtx.median2set is derived.
for m in re.finditer(r'.median2set', text): if 730000 < m.start() < 830000: print(m.start(), text[m.start()-80:m.start()+120].replace("\n"," ")[:250])
I'll check between lines 780800 and 782200 to inspect how the totCtx object is created and ensure everything is properly in place for the upcoming calculations. This will allow me to confirm the details needed for the next steps in the logic.
print(text[780700:782200])
I see that totals ctx includes cluster metrics from _totSim, which is governed. Now, I need to investigate how ctx.median2set is set up, especially for the getTotalsPick function. I'll look around line 806471, where it seems they store median2set, and check if there's earlier computation.
for m in re.finditer(r'_totCtx.median2set', text): print(m.start(), text[m.start()-60:m.start()+80].replace("\n"," ")[:200])
It seems like in the totals section, they might set _totCtx.clusterMedian2set and later use ctx.clusterMedian2set. In the getTotalsPick function, I see a reference to ctx.clusterMedian2set. But in the bimodal guard, they use ctx.median2set instead, so I'll search for how _totCtx and median2set are set, especially around 806471.
idx = text.find("var _totCtx", 730000, 780000) idx
It looks like _totCtx is used in the snippet around 807700, likely in the match preview function near the totals pick. So, it must be defined earlier, probably around 739700. I'll search for _totCtx = in that region to find where it's initialized.
for m in re.finditer(r'_totCtx\s*=\s*{', text): if 730000 < m.start() < 830000: print(m.start(), text[m.start()-40:m.start()+120].replace("\n"," ")[:220])
The _totCtx object is created at 806338. I’ll take a look at the area around 805900 to 806700 to better understand its context and how it’s being used. This should give me more clarity on its role and the relevant functions.
print(text[805900:807150])
The _totCtx object handles mean/median from adjusted game stats like totAdjMean/Median, which uses correlation-based adjustments. I'll later incorporate a fair price line (fairLineMC) for price distribution from the price lane. Currently setting fairLineMC to NaN, but later, I’ll define these stats for final adjustments based on the price distribution's mean/median from the price lane.
I’m planning to compute totAdjMeanPrice and totAdjMedianPrice and integrate them into ctx. But I realized that the code already uses totAdjMean earlier. I should adjust it accordingly. Let's locate where totAdjMean is first computed by searching near the 804xxx region.
idx = text.find("totAdjMean", 802000, 806500) idx
print(text[801900:802300])
I noticed that totRawMedian is derived from _totSim.medianGames or projections. To make sure we're using the price simulation, we should adjust both totRawMedian and totRawMean. Let me check the lines above for more context on how they're currently defined.
print(text[801400:801950])
We'll modify totRawMedian and totRawMean to use _totSimPrice, adjusting as needed. The projectedMedian uses a corrected value, so we'll leave that. For tails and other factors based on gamesListAdj, we'll keep those in place. Also, there's a "MARKET CALIBRATION HOOK" fix at totals, which may adjust weights — let's check the code around 802300 for it.
print(text[802300:804200])
We’ll update the market calibration hook for dynamic calibration weights, based on lineDiff and totAdjMean. If lineDiff exceeds certain thresholds, we’ll increase the weight to 0.30-0.55. We'll also ensure the price simulation doesn’t cause wild totAdjMean values. Moreover, the fair line won’t be influenced by this blending anymore, and market anchor adjustments will apply to the mean/median for outputs.
We’ll calculate the fair line from the price distribution CDF scan but might use an anchor for extreme deviations. If the deviation exceeds 5.5, we’ll blend the fair line with a weight similar to the calibration one. Additionally, we'll adjust key architectural elements, like using pOverMCNoPush for computing pOverEval, and updating _totCtx.gapP accordingly.
We'll keep pOverMCNoPush for pOverGames without overwriting it. The previous empirical anchor adjusted pOverEval, but we might apply it only to pOverEvalDisplayed for display purposes, not the core calculations. This way, we avoid affecting the fair line but still allow for anchor calibration in the display.
We’ll use pOverMCNoPush for the raw calculation in totPick while keeping pOverEvalDisplay for display purposes, maintaining the separation of price and conviction lanes. I'll also retain _pOverEval for debug purposes and ensure display variables don't influence core outcomes.
We’ll adjust Step 1 by switching from combined to Monte Carlo (MC). Specifically, pO will be set to pMC to ensure consistent direction from the MC engine. I’ll also modify the logic for Markov independence, ensuring the appropriate configurations and conditions for outcome probability calculations.
for m in re.finditer(r'_tankMultiplier', mo): print(m.start(), mo[m.start()-60:m.start()+120].replace("\n"," ")[:180])
I’ll proceed with the minimal ORP demotion, as requested, by adding constants like ORP_MAX_FORM_WEIGHT and ORP_TRUSTGAP_SCALE_MAX. These will affect several functions. I'll also locate the definition of oppAdjFormLayer to ensure everything aligns correctly. I’ll keep it simple for now.
m = re.search(r'function\s+oppAdjFormLayer\s*(', text) m.start() if m else None
oppLayer = extract_function("oppAdjFormLayer") len(oppLayer), oppLayer[:400]
print(oppLayer)
We'll modify the base values as follows: 0.10 for ATP, 0.11 for WTA, and 0.12 for ITF/CH. Trust gap boost will be smaller, with a cap on the increase. We'll look into possible changes for cov/trust multipliers and apply a cap of 0.30 overall. Now, I need to inspect the oppAdjFormDeltaP function.
m = re.search(r'function\s+oppAdjFormDeltaP\s*(', text) m.start() if m else None
deltaF = extract_function("oppAdjFormDeltaP") print(deltaF[:1000])
print(deltaF[1000:2000])
We'll demote ORP by removing the trustGap scaling of k and the cap. For k, I'll set values to: 0.018 ATP, 0.019 WTA, and 0.020 ITF/CH. No scaling with trustGap, but a mild adjustment based on it. We'll also reduce the cap under certain conditions and shrink it more when trustMin is low. Now, I'll check the applyOppTrustToProb function.
m = re.search(r'function\s+applyOppTrustToProb\s*(', text) m.start() if m else None
applyTrust = extract_function("applyOppTrustToProb") print(applyTrust[:1200])
print(applyTrust[1200:2400])
So, the ORP bias is likely coming from other layers. To reduce the confidence without affecting direction, we'll leave it as is but reduce the form layer weight and delta amplitude. To demote ORP overall, this seems like the best way forward. Next, we’ll modify runMatchSimulation_Exact by adding flags to control tail governors and tanking. This change will be implemented by replacing text within the function and updating the relevant code.
To avoid accidental replacements, we’ll carefully modify specific functions like matchOutcomeProbs for taper blocks and make sure independentMarkov config is allowed. We’ll also adjust the _markovEffectiveHolds_ function to return baseline holds. Then, modifications will be made to the totals calculation block, adjusting various parts including price discovery and game adjustments. Additionally, we'll ensure the proper consistency in using pOverMC instead of the blend and update comments, ensuring all elements compute correctly based on these changes.
I'll begin by making minimal adjustments to pass pMC raw while modifying the necessary ORP functions. After refactoring, we’ll run a syntax check and ensure all newly introduced variables are declared. I'll patch sections of the large file programmatically using regex, starting with updating the _markovEffectiveHolds_ function using the new logic. This includes computing mismatch index and updating holds while ensuring a straightforward rewrite. I'll implement this step by step.
I'll add a local boolean to the matchOutcomeProbs function to handle independent conditions and the effect of taper settings. Specifically, I'll modify the conditional checks for _moIndependent, _moUseSetTaper, and _moApplySet3. This will require me to replace occurrences of certain global variables with their new local counterparts within the function to ensure everything is aligned.
runMatchSimulation_Exact and tweaksI’ll start by defining flags for conditions like enabling tail governors, tanking, or set taper simulation based on options provided. Next, I’ll update the tanking block by adding a conditional wrapper. Afterward, I’ll adjust the use of variables like USE_CONDITIONAL_SET_TAPER to their new flag equivalents. Finally, I’ll implement a modification in the MATCH_PREVIEW section to integrate price-discovery simulation.
We’ll add the price-discovery lane after the fallback check. This includes defining simTotalsPrice, parameterizing the simulation, and ensuring the route for price-discovery if it fails. Then, we’ll update the correction block to use _totSimPrice instead of _totSim. Additionally, I’ll define gamesListPriceAdj just after gamesListAdj, follow the same pattern, and insert it accordingly.
We'll add a gamesListPriceAdj based on simTotalsPrice, and ensure it's updated accordingly after the correction block. Then, we'll replace gamesListAdj references in computations like totRawMedian, totFair, and probOU to use gamesListPriceAdj where necessary. This ensures consistency across the price lane adjustments, including possible recomputations of totOverPct based on the updated list.
At 807700, I'll switch to using gamesListPriceAdj for variables like totOverPct, totUnderPct, and totPush. I’ll also update related Markov and distribution calculations using these price-adjusted values. Later, during the evaluation phase, we'll set pOverEval correctly and ensure the computations reflect the price lane adjustments.
I need to update the comment in getTotalsPick, specifically the part about "pOverNoPush" to clarify it's the Monte Carlo (price-discovery) no-push value. I’ll also revise pO and pMC handling. For ORP adjustments, I’ll patch oppAdjFormLayer and oppAdjFormDeltaP, and make sure formWeight is adjusted properly in related functions.
I’ll reduce the base formWeight to 0.12/0.13/0.14 and set the max cap to 0.18 for a smaller trustGap boost. I'll also adjust the cap in winnerEngineLayers to 0.25. After making these changes, I’ll check for any broken CIT and ensure everything works by running appropriate tests and patches in Python.
import pathlib, re, textwrap, os, subprocess, json, math, sys, typing
orig_text = text
def replace_once(haystack, old, new, desc=""): if old not in haystack: raise ValueError(f"Pattern not found for {desc or old[:30]}") return haystack.replace(old, new, 1)
def replace_in_function(full_text, func_name, transform): func = extract_function(func_name) if func is None: raise ValueError(f"Function {func_name} not found") new_func = transform(func) if func == new_func: print(f"No change for {func_name}") return replace_once(full_text, func, new_func, desc=f"function {func_name}")
new_text = orig_text
I need to update markovEffectiveHolds by creating a new function string. This will likely adjust its behavior to better align with the modifications I’m making, ensuring everything flows together correctly. It’s a small but key update to ensure consistency across the logic.
def transform_markov_effective(func_str): # We'll replace the entire body with a simpler independent implementation, preserving signature. # Find signature line up to first "{" header_end = func_str.find("{") header = func_str[:header_end+1] # Build new body body = """ // INDEPENDENT MARKOV HOLDS (v17.4.6 FIX — 2026-03-01) // Markov is an analytic cross-check and MUST remain independent of Monte Carlo tail governors. // Therefore, Markov uses baseline (pre-taper / pre-tanking) hold probabilities directly. // We still compute a mismatch index for diagnostics, but we DO NOT compress holds. hA = clamp01(hA); hB = clamp01(hB);
// Win prob seed fallback: hold-gap logistic (diagnostic only) var p = Number(pWinA); if (!Number.isFinite(p)) { try { var _tsFallAvg = ((hA || 0.75) + (hB || 0.75)) / 2; var _tsFallTour = 'ATP'; try { _tsFallTour = taperTourKey(tourLabel); } catch(e2) { _tsFallTour = 'ATP'; } var _tsFallScale = kernelScale(_tsFallAvg, _tsFallTour); var _tsFallK = 1.0 / Math.max(0.01, _tsFallScale); p = 1 / (1 + Math.exp(-_tsFallK * ((hA || 0.75) - (hB || 0.75)))); } catch (e) { p = 0.5; } } p = clamp01(p);
var favIsA = (p >= 0.5); var favWp = favIsA ? p : (1 - p);
var _mkTourK = taperTourKey(tourLabel); var _mkIsWta = (_mkTourK === 'WTA'); var _mkIsCh = (_mkTourK === 'CH'); var _mkFloor = _mkIsWta ? 0.50 : _mkIsCh ? 0.51 : 0.52; var _mkRange = _mkIsWta ? 0.28 : _mkIsCh ? 0.29 : 0.30; var mismatch = Math.max(0, (favWp - _mkFloor) / _mkRange); mismatch = Math.min(1, mismatch);
return { hA_eff: hA, hB_eff: hB, mismatch: mismatch, favWp: favWp, holdDrop: 0 }; """ # close brace return header + body + "\n}"
new_text = replace_in_function(new_text, "markovEffectiveHolds", transform_markov_effective)
I’ll need to transform the matchOutcomeProbs function. This change will likely be related to how calculations or logic are being handled within the function, ensuring it aligns with the latest updates I’m making elsewhere. It'll be a focused update, but important for consistency.
def transform_matchOutcomeProbs(func_str): # insert independent flags after tour is set; find where _simIsWtaStyle set maybe insert_after = " try {\n var _moTierInfo = getTournamentTier();" if insert_after not in func_str: # fallback insert after _simIsWtaStyle assignment line insert_after = "_simIsWtaStyle = (_moTourUpper === "WTA" || (_moTourUpper.indexOf("WTA") >= 0));" # Build insertion insertion = """ // Markov/DP totals must remain independent of Monte Carlo tail governors. // When independentMarkov/independent is true, disable conditional set dependence + tail shaving. var _moIndependent = (propConfig && (propConfig.independentMarkov === true || propConfig.independent === true || propConfig.priceDiscovery === true || propConfig.disableTailGovernors === true)); var _moUseSetTaper = (USE_CONDITIONAL_SET_TAPER && !_moIndependent); var _moApplySet3 = (APPLY_TAPER_TO_SET3 && !_moIndependent); """ if insertion.strip() not in func_str: func_str = func_str.replace(insert_after, insert_after + insertion, 1) # replace taper guards func_str = func_str.replace("if (USE_CONDITIONAL_SET_TAPER) {", "if (_moUseSetTaper) {") func_str = func_str.replace("if (APPLY_TAPER_TO_SET3", "if (_moApplySet3") return func_str
new_text = replace_in_function(new_text, "matchOutcomeProbs", transform_matchOutcomeProbs)
I’m planning to patch the runMatchSimulation_Exact function. This will involve transforming it using local flags and applying those changes to adjust the function’s behavior. It’ll help ensure that everything runs smoothly in line with the other updates I’ve been making.
def transform_runMatchSimulation_Exact(func_str): # After opts = opts || {}; and var _totalsOnly ... insert flags. marker = " opts = opts || {};\n var _totalsOnly = (opts.totalsOnly === true);" if marker not in func_str: raise ValueError("Marker not found in runMatchSimulation_Exact") insertion = marker + """ // Price-discovery mode disables late-path tail governors from the simulation distribution. // This keeps fair-line (50/50) discovery independent from conviction/tail controls. var _disableTailGovernors = (opts && (opts.priceDiscovery === true || opts.disableTailGovernors === true || opts.disableSetTaper === true)); var _disableTanking = (opts && (opts.priceDiscovery === true || opts.disableTailGovernors === true || opts.disableTanking === true)); var _useSetTaperSim = (USE_CONDITIONAL_SET_TAPER && !_disableTailGovernors); var _applySet3Sim = (APPLY_TAPER_TO_SET3 && !_disableTailGovernors); """ func_str = func_str.replace(marker, insertion, 1)
text# Disable tanking block by wrapping if (!_disableTanking) { ... } # Insert opening before comment "// Trigger: normal" open_pat = "\n // Trigger: normal = 3, heavy mismatch = 2 (but only after mismatch crosses threshold)\n" if open_pat in func_str: func_str = func_str.replace(open_pat, "\n if (!_disableTanking) {\n" + open_pat, 1) # insert closing brace before the momentum comment line close_pat = "\n// v7.2.9: MMC-lite momentum - bounded per-game perturbation to capture runs/break-cascades.\n" if close_pat in func_str: func_str = func_str.replace(close_pat, "\n }\n" + close_pat, 1) else: # alternate: before " if (MMC_LITE_ON)" close_pat2 = "\n if (MMC_LITE_ON) {" func_str = func_str.replace(close_pat2, "\n }\n" + close_pat2, 1) else: # if pattern not found, leave pass # replace taper flags func_str = func_str.replace("if (USE_CONDITIONAL_SET_TAPER) {", "if (_useSetTaperSim) {") func_str = func_str.replace("if (APPLY_TAPER_TO_SET3", "if (_applySet3Sim") return func_str
new_text = replace_in_function(new_text, "runMatchSimulation_Exact", transform_runMatchSimulation_Exact)
I’m going to add a price simulation block to the MATCH_PREVIEW totals simulation section. First, I'll search for the unique string “var _totSim = simTotals;” at the 737521 snippet. Then, I’ll replace it and make sure it’s unique — also checking how often it appears to avoid conflicts.
new_text.count("var _totSim = simTotals;")
block_old = " var _totSim = simTotals;\n\n // SAFETY GUARD: if simulation failed, return a friendly message instead of throwing." block_new = """ var _totSim = simTotals;
text// ================= PRICE-DISCOVERY TOTALS LANE ================= // Baseline totals distribution (pre-taper / pre-tanking) used ONLY for fair-line discovery // and canonical O/U probability at the market line. Conviction/tail logic remains in _totSim. var simTotalsPrice = null; try { var _priceIters = Math.max(1200, Math.round(_tlPropIters * 0.65)); simTotalsPrice = runMatchSimulation_Exact(simHA, simHB, bestOf, _priceIters, marketLine, tourLabel, { totalsOnly: true, priceDiscovery: true, mmcLite: false, volA: volA, volB: volB, winProbA: _taperSeedA, winProbB: _taperSeedB, sgWinRateA: (statsA && statsA.sgWinRate ? statsA.sgWinRate : 0.5), sgWinRateB: (statsB && statsB.sgWinRate ? statsB.sgWinRate : 0.5), timeBudgetMs: Math.max(2200, _tlRem() - 3500), timeCheckEvery: 200, minRuns: 1000 }); } catch (ePD) { simTotalsPrice = null; } if (!simTotalsPrice || !simTotalsPrice.totalRuns || !simTotalsPrice.gamesList || !simTotalsPrice.gamesList.length) simTotalsPrice = simTotals; var _totSimPrice = simTotalsPrice; // SAFETY GUARD: if simulation failed, return a friendly message instead of throwing."""
new_text = replace_once(new_text, block_old, block_new, desc="insert price sim lane")
I need to ensure that _totSimPrice is used later, or else the reference will cause an error. It's already defined in the same scope, so that's good. Next, I’ll patch the initial gamesListAdj definition to also create a gamesListPriceAdj baseline. I’ll find and adjust the corresponding snippet in the new text.
idx = new_text.find("var gamesListAdj = (_totSim && _totSim.gamesList && _totSim.gamesList.length)") idx
print(new_text[idx:idx+400])
I’ll insert the definition for gamesListPriceAdj right after this part, creating the baseline from _totSimPrice. Then, I'll proceed with the necessary patch to ensure everything is aligned correctly. This will help maintain consistency and avoid any reference errors later.
old = """var gamesListAdj = (_totSim && _totSim.gamesList && _totSim.gamesList.length) ? _totSim.gamesList.slice().sort(function(a,b){return a-b;}) : null;""" new = """var gamesListAdj = (_totSim && _totSim.gamesList && _totSim.gamesList.length) ? _totSim.gamesList.slice().sort(function(a,b){return a-b;}) : null; // Price-discovery totals list (pre-taper / pre-tanking). Falls back to governed list if missing. var gamesListPriceAdj = (_totSimPrice && _totSimPrice.gamesList && _totSimPrice.gamesList.length) ? _totSimPrice.gamesList.slice().sort(function(a,b){return a-b;}) : gamesListAdj;""" new_text = replace_once(new_text, old, new, desc="define gamesListPriceAdj baseline")
I’ll patch the correction block now, using _totSimPrice for the base mean/median. I remember seeing that part around line 763800, so I’ll find those lines in the new text. The search will focus on lines with var _totBaseMean = (_totSim &&.
idx = new_text.find("var _totBaseMean = (_totSim && Number.isFinite(_totSim.avgTotalGames))") idx
print(new_text[idx:idx+250])
I’ll replace the two lines that need to be updated. This should help ensure the correct values are used for the base mean/median from _totSimPrice. Let's make sure everything lines up properly and apply the changes!
old = """var _totBaseMean = (_totSim && Number.isFinite(_totSim.avgTotalGames)) ? _totSim.avgTotalGames : NaN; var _totBaseMedian = (_totSim && Number.isFinite(_totSim.medianGames)) ? _totSim.medianGames : _totBaseMean;""" new = """var _totBaseMean = (_totSimPrice && Number.isFinite(_totSimPrice.avgTotalGames)) ? _totSimPrice.avgTotalGames : ((_totSim && Number.isFinite(_totSim.avgTotalGames)) ? _totSim.avgTotalGames : NaN); var _totBaseMedian = (_totSimPrice && Number.isFinite(_totSimPrice.medianGames)) ? _totSimPrice.medianGames : ((_totSim && Number.isFinite(_totSim.medianGames)) ? _totSim.medianGames : _totBaseMean);""" new_text = replace_once(new_text, old, new, desc="use price sim for base mean/median")
I’ll start by building gamesListPriceAdj following the correction. Right now, gamesListAdj is rebuilt in the correction block. I’ll add a similar process for gamesListPriceAdj. First, I’ll search for where gamesListAdj was rebuilt to ensure I place everything correctly.
idx = new_text.find("gamesListAdj = [];", 760000, 770000) idx
print(new_text[idx-200:idx+500])
I’ll insert the new block to build gamesListPriceAdj, ensuring the correction is applied. Since it exists already, I'll update the list accordingly.
I need to make sure _maxPossibleGames is defined. It’s within the block, but if _totSim is missing, the variable might not exist. To avoid this, I'll define it separately. Then, I’ll replace the existing block precisely with the updated version.
old = """ if (_totSim && _totSim.gamesList && _totSim.gamesList.length) { gamesListAdj = []; var _maxPossibleGames = (bestOf === 5) ? 65 : 39; for (var _tg = 0; _tg < _totSim.gamesList.length; _tg++) { var _val = _totSim.gamesList[_tg] + corrInt; if (_val < minPossibleGames) _val = minPossibleGames; if (_val > _maxPossibleGames) _val = _maxPossibleGames; gamesListAdj.push(_val); } gamesListAdj.sort(function(a,b){return a-b;}); } else { gamesListAdj = null; }""" new = """ var _maxPossibleGames = (bestOf === 5) ? 65 : 39;
text// Conviction lane: governed totals list (tail governors active) if (_totSim && _totSim.gamesList && _totSim.gamesList.length) { gamesListAdj = []; for (var _tg = 0; _tg < _totSim.gamesList.length; _tg++) { var _val = _totSim.gamesList[_tg] + corrInt; if (_val < minPossibleGames) _val = minPossibleGames; if (_val > _maxPossibleGames) _val = _maxPossibleGames; gamesListAdj.push(_val); } gamesListAdj.sort(function(a,b){return a-b;}); } else { gamesListAdj = null; } // Price-discovery lane: baseline totals list (tail governors disabled) if (_totSimPrice && _totSimPrice.gamesList && _totSimPrice.gamesList.length) { gamesListPriceAdj = []; for (var _tg2 = 0; _tg2 < _totSimPrice.gamesList.length; _tg2++) { var _val2 = _totSimPrice.gamesList[_tg2] + corrInt; if (_val2 < minPossibleGames) _val2 = minPossibleGames; if (_val2 > _maxPossibleGames) _val2 = _maxPossibleGames; gamesListPriceAdj.push(_val2); } gamesListPriceAdj.sort(function(a,b){return a-b;}); } else { gamesListPriceAdj = gamesListAdj; }"""
new_text = replace_once(new_text, old, new, desc="build governed + price totals lists post-corr")
I’ll update the totRawMedian and totRawMean to use _totSimPrice. There’s existing code around line 801400 that needs to be replaced with this new approach. I'll ensure I’m patching this part correctly to reflect the necessary changes with _totSimPrice.
old = """var totRawMedian = (_totSim && Number.isFinite(_totSim.medianGames)) ? _totSim.medianGames : projectedMedian; // FIX (2026-02-15): Keep totals median purely from the simulated totals list (no WCE re-mix). var totRawMean = (_totSim && Number.isFinite(_totSim.avgTotalGames)) ? _totSim.avgTotal"""
seg_start = new_text.find("var totRawMedian", 800000, 803000) print(seg_start) print(new_text[seg_start:seg_start+220])
var totRawMedian to account for changesSince the code might have been altered by earlier changes, I’ll search for var totRawMedian. This will help me locate that part of the code and ensure I’m applying the correct modifications where necessary. I want to make sure nothing gets overlooked because of the earlier adjustments.
seg_start = new_text.find("var totRawMedian") seg_start
print(new_text[seg_start:seg_start+250])
I think I should print the full lines around the code I'm working with. That way, I can get more context and avoid missing anything important. This will help ensure I’m not making changes in the wrong place or overlooking any related code.
print(new_text[seg_start:seg_start+400])
I’m planning to replace these two lines in the code. I should carefully check what they do and ensure that the new lines fit correctly into the flow. It’s important to avoid introducing any unintended issues with the change. Let's make sure it works smoothly.
old = """var totRawMedian = (_totSim && Number.isFinite(_totSim.medianGames)) ? _totSim.medianGames : projectedMedian; // FIX (2026-02-15): Keep totals median purely from the simulated totals list (no WCE re-mix). var totRawMean = (_totSim && Number.isFinite(_totSim.avgTotalGames)) ? _totSim.avgTotalGames : projectedGames;""" new = """var totRawMedian = (_totSimPrice && Number.isFinite(_totSimPrice.medianGames)) ? _totSimPrice.medianGames : ((_totSim && Number.isFinite(_totSim.medianGames)) ? _totSim.medianGames : projectedMedian); // FIX (2026-02-15): Keep totals median purely from the simulated totals list (no WCE re-mix). var totRawMean = (_totSimPrice && Number.isFinite(_totSimPrice.avgTotalGames)) ? _totSimPrice.avgTotalGames : ((_totSim && Number.isFinite(_totSim.avgTotalGames)) ? _totSim.avgTotalGames : projectedGames);""" new_text = replace_once(new_text, old, new, desc="totRawMedian/Mean from price sim")
I need to update the market calibration hook for a stronger sanity rail. I'll patch the calibrationWeight logic by finding the specific snippet and replacing the weight logic. I'll target this segment, which adjusts the weight based on the line difference. Let’s implement the updated dynamic logic.
target = """ var lineDiff = Math.abs(totAdjMean - safeMarketLine); var calibrationWeight = 0.05; // Default low weight to trust sim
if (tierTriggered && lineDiff > 2.5) { calibrationWeight = 0.15; // Only anchor heavily if the sim is being wild }""" idx = new_text.find(target) idx
new_seg = """ var lineDiff = Math.abs(totAdjMean - safeMarketLine);
// Sanity rail (dynamic): the further the sim drifts from market, the stronger the pull. // Default stays light so the sim drives normal matches, but extreme collapses get rescued. var calibrationWeight = 0.05; // baseline
if (tierTriggered && lineDiff > 2.5) calibrationWeight = Math.max(calibrationWeight, 0.18);
if (lineDiff > 3.5) calibrationWeight = Math.max(calibrationWeight, 0.22); if (lineDiff > 4.5) calibrationWeight = Math.max(calibrationWeight, 0.30); if (lineDiff > 5.5) calibrationWeight = Math.max(calibrationWeight, 0.40); if (lineDiff > 7.0) calibrationWeight = Math.max(calibrationWeight, 0.55);
calibrationWeight = Math.max(0.0, Math.min(0.65, calibrationWeight));""" new_text = replace_once(new_text, target, new_seg, desc="market calibration weight dynamic")
I need to update the totFair calculation to use gamesListPriceAdj instead of gamesListAdj. I'll locate the original snippet, which uses gamesListAdj to determine totFair, and replace it with the new list gamesListPriceAdj.
old = "var totFair = (_totSim && gamesListAdj && gamesListAdj.length) ? fairLineFromSortedTotals(gamesListAdj) : null;" idx=new_text.find(old) idx
new = "var totFair = (_totSimPrice && gamesListPriceAdj && gamesListPriceAdj.length) ? fairLineFromSortedTotals(gamesListPriceAdj) : ((_totSim && gamesListAdj && gamesListAdj.length) ? fairLineFromSortedTotals(gamesListAdj) : null);" new_text = replace_once(new_text, old, new, desc="fair line from price list")
I’m considering adding a sanity rail to the totFairLine calculation, potentially in the same block. The idea would be to apply a dynamic anchor when things are significantly off. I'll insert this adjustment right after defining totFairLine. I need to find that exact line first though.
marker = "var totFairLine = (totFair && Number.isFinite(totFair.fairLine)) ? totFair.fairLine : marketLine;" idx=new_text.find(marker) idx
insert = marker + """ // Sanity rail for fair line: prevent pathological prints when the price-discovery sim collapses. try { if (Number.isFinite(safeMarketLine) && safeMarketLine > 15 && safeMarketLine < 60 && Number.isFinite(totFairLine)) { var _flDiff = Math.abs(totFairLine - safeMarketLine); if (_flDiff > 5.5) { var _wFl = Math.min(0.60, Math.max(0.25, 0.10 * _flDiff)); if (tierTriggered) _wFl = Math.min(0.65, Math.max(_wFl, 0.35)); totFairLine = (1 - _wFl) * totFairLine + _wFl * safeMarketLine; } } } catch(eFL) {}""" new_text = replace_once(new_text, marker, insert, desc="fair line sanity rail
I need to update the totals pick computation block, specifically around line 800285. First, I’ll switch to using gamesListPriceAdj and _totSimPrice instead of the current data points. I’ll go back to the snippet at line 799800 and adjust the logic. I’ll need to locate the exact lines first, then patch them.
old = """var _rawOU = (_totSim && gamesListAdj && gamesListAdj.length) ? probOUFromSortedTotals(gamesListAdj, marketLine) : { pOver: _totSim.oversCount / _totSim.totalRuns, pUnder: clamp01(1 - (_totSim.oversCount / _totSim.totalRuns)), pPush: 0 };""" idx = new_text.find(old) idx
new = """var _rawOU = (_totSimPrice && gamesListPriceAdj && gamesListPriceAdj.length) ? probOUFromSortedTotals(gamesListPriceAdj, marketLine) : ((_totSim && gamesListAdj && gamesListAdj.length) ? probOUFromSortedTotals(gamesListAdj, marketLine) : { pOver: _totSim.oversCount / _totSim.totalRuns, pUnder: clamp01(1 - (_totSim.oversCount / _totSim.totalRuns)), pPush: 0 });""" new_text = replace_once(new_text, old, new, desc="rawOU uses price list")
I need to adjust the totals engine block between lines 807700-812200 to use gamesListPriceAdj instead of gamesListAdj. It currently checks if gamesListAdj exists, then uses it in mcDistAdj. I’ll locate that condition and modify it to reference the price list instead.
old = "if (gamesListAdj && gamesListAdj.length > 0 && Number.isFinite(lineTot)) {" idx=new_text.find(old, 807000, 813000) idx
new = "if (gamesListPriceAdj && gamesListPriceAdj.length > 0 && Number.isFinite(lineTot)) {" new_text = replace_once(new_text, old, new, desc="mcDist uses price list condition")
I’m going to replace mcDistAdj = pmfFromTotalsArray(gamesListAdj); with pmfFromTotalsArray(gamesListPriceAdj); in the block. I also need to check if there are other instances where gamesListAdj is used, particularly for Markov logic. I'll make updates where necessary.
old = " mcDistAdj = pmfFromTotalsArray(gamesListAdj);" idx = new_text.find(old, 812000, 814500) idx
new_text = replace_once(new_text, old, " mcDistAdj = pmfFromTotalsArray(gamesListPriceAdj);", desc="pmfFromTotalsArray price")
Okay, so we are using mcDistAdj derived from price now, which is great. For tail metrics and the blowout bucket, they're still depending on gamesListAdj, which is fine for now. But we need to update the computeTotalsBlend, as well as adjust the Markov independence in the subblock where pMarkov3Set is calculated. I'll locate the right section.
mk_seg_start = new_text.find("var _mkDecShrink", 810000, 820000) mk_seg_start
print(new_text[mk_seg_start-200:mk_seg_start+600])
I need to replace the current chunk with an independent version. Specifically, I'll set pMarkov3Set = _pDecRaw(clamp). It's important not to override _pDecForUnder and ctx.pDecider as they are. I'll focus on ensuring mkMismatch and the related calculation stay intact while making this adjustment.
old = """ // Markov decider probability (diagnostic) after penalties: // - tight-match penalty (coinflips) // - mismatch shrink (prevents inflated 3-set mass in blowouts) var _pDecRaw = (_MO_TOT_BLEND && _MO_TOT_BLEND.outcomes) ? Number(_MO_TOT_BLEND.outcomes.pDecider) : NaN; var _mkDecShrink = 0.22 * mismatch; // up to -22% relative in extreme mismatches var _pDecAdj = Number.isFinite(_pDecRaw) ? (_pDecRaw * (1 - _mkDecShrink) - set3Penalty) : NaN; if (Number.isFinite(_pDecAdj)) _pDecAdj = Math.max(0, Math.min(1, _pDecAdj)); pMarkov3Set = _pDecAdj;
text// Use mismatch-adjusted Markov decider for UNDER-score penalties / confidence. if (Number.isFinite(pMarkov3Set)) { _pDecForUnder = pMarkov3Set; if (typeof _totCtx !== 'undefined' && _totCtx) _totCtx.pDecider = pMarkov3Set; }
""" new = """ // Markov decider probability (diagnostic) — INDEPENDENT (no mismatch penalties). var _pDecRaw = (_MO_TOT_BLEND && _MO_TOT_BLEND.outcomes) ? Number(_MO_TOT_BLEND.outcomes.pDecider) : NaN; if (Number.isFinite(_pDecRaw)) _pDecRaw = Math.max(0, Math.min(1, _pDecRaw)); pMarkov3Set = _pDecRaw;
// IMPORTANT: Markov is a cross-check only. Do NOT overwrite MC decider inputs used by totals policy.
""" new_text = replace_once(new_text, old, new, desc="Markov decider independence")
mkSet3Penalty assignmentI need to adjust the mkSet3Penalty assignment right below, which currently uses _pDecAdj. I'll locate exactly where that happens and ensure it's properly updated to follow the new structure, keeping everything consistent with the changes we’ve made so far.
idx = new_text.find("mkSet3Penalty", 814000, 818000) print(idx) print(new_text[idx-100:idx+180])
_pDecAdjThe reference to _pDecAdj is not defined, so we need to patch the code. I'll set mkSet3Penalty to 0 or set3Penalty, depending on what makes the most sense in this context. I'll locate that line and make the necessary replacement to avoid errors.
old = " mkSet3Penalty = (Number.isFinite(_pDecRaw) && Number.isFinite(_pDecAdj)) ? Math.max(0, _pDecRaw - _pDecAdj) : set3Penalty;" new = " mkSet3Penalty = 0;" new_text = replace_once(new_text, old, new, desc="mkSet3Penalty independent")
matchOutcomeProbs callI need to ensure that the matchOutcomeProbs call passes the independentMarkov instead. I'll locate the line where it's called:
var _MO_TOT_BLEND = matchOutcomeProbs(hA_eff, hB_eff, _startSrvTB, bestOf, { ... });
Once I find it, I'll modify the object to include the necessary change.
idx = new_text.find("var _MO_TOT_BLEND = matchOutcomeProbs(", 812000, 817000) idx
print(new_text[idx:idx+260])
matchOutcomeProbsI can simplify the object passed to matchOutcomeProbs by explicitly including independentMarkov: true and tourLabel. I’ll patch the snippet accordingly to make these changes. This should make things clearer and more direct.
old = """var _MO_TOT_BLEND = matchOutcomeProbs(hA_eff, hB_eff, _startSrvTB, bestOf, { winProbA: _pFinalForMk, winProbB: 1 - _pFinalForMk, pWinA: _pFinalForMk, tourLabel: _mkTour });""" new = """var _MO_TOT_BLEND = matchOutcomeProbs(hA_eff, hB_eff, _startSrvTB, bestOf, { tourLabel: _mkTour, independentMarkov: true });""" new_text = replace_once(new_text, old, new, desc="matchOutcomeProbs independentMarkov flag")
Earlier, they set _totCtx.holdA = hA_eff, but since we changed _markovEffectiveHolds_ to avoid compressing holds, hA_eff/hB_eff should be the baseline now. In the totals block around line 818000, I need to adjust pOverEval and gapP. I’ll find and update the snippet concerning the blended no-push probability.
seg = " // Direction uses a blended no-push probability (MC + Markov) when available.\n // Falls back to MC when Markov is missing/invalid." idx = new_text.find(seg) idx
print(new_text[idx:idx+400])
I’ll replace the block with the new one as described, keeping the pOverBlendForDiag variable intact. To avoid any overlap, I’ll ensure the replacement covers everything up to _totCtx.pOverBlend = pOverEval;. This will make the transition smoother while keeping the necessary structure intact.
old = """ // Direction uses a blended no-push probability (MC + Markov) when available. // Falls back to MC when Markov is missing/invalid. var pOverMCNoPush = pOverGames; var pOverEval = (Number.isFinite(pOverBlendEval) ? pOverBlendEval : pOverMCNoPush); _totCtx.pOverMC = pOverMCNoPush; _totCtx.pOverBlend = pOverEval;""" new = """ // Canonical decision probability comes from the PRICE-DISCOVERY Monte Carlo engine. // Markov + blends are diagnostics only (used to grade conviction, not to move the fair line). var pOverMCNoPush = pOverGames; var pOverEval = pOverMCNoPush; var pOverBlendForDiag = (Number.isFinite(pOverBlendEval) ? pOverBlendEval : pOverMCNoPush); _totCtx.pOverMC = pOverMCNoPush; _totCtx.pOverBlend = pOverBlendForDiag;""" new_text = replace_once(new_text, old, new, desc="pOverEval canonical MC")
I need to revise the gapP line. Right now, it's set as _totCtx.gapP = abs(pOverEval - pOverMarkov). I'll change it to abs(pOverMCNoPush - pOverMarkov) to reflect the correct calculation. Let's go ahead and patch this adjustment.
old = "_totCtx.gapP = (Number.isFinite(pOverMarkov) ? Math.abs(pOverEval - pOverMarkov) : NaN);" idx = new_text.find(old) idx
new_text = replace_once(new_text, old, "_totCtx.gapP = (Number.isFinite(pOverMarkov) ? Math.abs(pOverMCNoPush - pOverMarkov) : NaN);", desc="gapP raw MC vs Markov")
I need to ensure the empirical anchor uses pOverEval properly. It currently refers to MC raw, but that might change. The anchor block uses and modifies pOverEval, then calls getTotalsPick(pOverEval...), which influences the pick. I'll adjust the anchor logic so it modifies pOverBlendForDiag or display, not pOverEval. This will avoid contaminating the price lane and maintain safe calibration.
I’ll adjust the anchor block that checks _empBaseline to reference pOverBlendForDiag instead of pOverEval. It currently modifies pOverEval based on _empDev, but I want to store the result as _totCtx.pOverDisplay to avoid affecting pOverEval. I’ll patch the block accordingly and proceed with the update.
emp_idx = new_text.find("if (Number.isFinite(_empBaseline) && Number.isFinite(pOverEval))") emp_idx
print(new_text[emp_idx:emp_idx+420])
I’ll replace the current block with one that uses pOverBlendForDiag. This should ensure we’re working with the right variable for the calculations and avoid unwanted modifications to other values. Time to make the update and see how it affects the overall results.
old = """ if (Number.isFinite(_empBaseline) && Number.isFinite(pOverEval)) { var _empDev = pOverEval - _empBaseline; if (Math.abs(_empDev) > 0.08) { var _empPull = _empDev * 0.12; pOverEval = clamp01(pOverEval - _empPull); _totCtx.empiricalAnchor = { baseline: _empBaseline, deviation: _empDev, pull: _empPull, tour: _empTourK, line: _empLineRound }; } }""" new = """ if (Number.isFinite(_empBaseline) && Number.isFinite(pOverBlendForDiag)) { var _empDev = pOverBlendForDiag - _empBaseline; if (Math.abs(_empDev) > 0.08) { var _empPull = _empDev * 0.12; pOverBlendForDiag = clamp01(pOverBlendForDiag - _empPull); _totCtx.empiricalAnchor = { baseline: _empBaseline, deviation: _empDev, pull: _empPull, tour: _empTourK, line: _empLineRound }; } } // Expose the diagnostic display probability (blended + lightly anchored) without contaminating decision logic. _totCtx.pOverDisplay = pOverBlendForDiag;""" new_text = replace_once(new_text, old, new, desc="empirical anchor diagnostics only")
Since we modified pOverBlendForDiag in the anchor logic, we need to ensure that its assignment to _totCtx.pOverBlend happens after anchoring, but it's not strictly necessary. I'll pass pOverMCNoPush to getTotalsPick instead of pOverEval, for clarity, and make the relevant updates.
old = " totPick = getTotalsPick(pOverEval, _totCtx);" idx=new_text.find(old) idx
new_text = replace_once(new_text, old, " totPick = getTotalsPick(pOverMCNoPush, _totCtx);", desc="getTotalsPick fed raw MC")
After updating the totPick call and checking for consistency in the logic involving pOverGames and pOverEval, I need to ensure old variables like _pDecForUnder are not being overwritten by Markov. We’ve removed the override, so no further issues with pMarkov3Set. I'll verify that mkMismatch is still defined and finalize the changes.
gtp = extract_function("getTotalsPick")
def transform_getTotalsPick(func_str): # update NOTE comment and add pO = pMC after pMC computed func_str = func_str.replace( "// NOTE: pOverNoPush is expected to be the combined totals probability engine output\n // (MC + Markov blend when available). Raw MC no-push pOver can be passed via ctx.pOverMC.", "// NOTE: pOverNoPush is expected to be the Monte Carlo (price-discovery) no-push P(Over) at the market line.\n // Markov is an independent cross-check and may ONLY downshift conviction (never define side / fair line)." ) # after pMC line, insert pO = pMC canonical pat = " var pMC = (ctx && Number.isFinite(ctx.pOverMC)) ? clamp01(Number(ctx.pOverMC)) : pO;\n var pMarkov = (ctx && Number.isFinite(ctx.pOverMarkov)) ? clamp01(Number(ctx.pOverMarkov)) : NaN;\n" if pat in func_str: repl = " var pMC = (ctx && Number.isFinite(ctx.pOverMC)) ? clamp01(Number(ctx.pOverMC)) : pO;\n // Canonical probability for direction/edge is MC (do not let blends leak into pricing).\n pO = pMC;\n var pMarkov = (ctx && Number.isFinite(ctx.pOverMarkov)) ? clamp01(Number(ctx.pOverMarkov)) : NaN;\n" func_str = func_str.replace(pat, repl, 1) # Update Step 1 comment func_str = func_str.replace(" // ===== Step 1: Tentative side from combined totals engines (pO) =====", " // ===== Step 1: Tentative side from Monte Carlo (pO is canonical MC) =====") return func_str
new_text = replace_in_function(new_text, "getTotalsPick", transform_getTotalsPick)
Next step is adjusting the getTotalsPick function to ensure it uses the canonical pO. We’ve already patched the totals context lines where _totCtx.gapP is computed. Now, I need to ensure that in the call site for getTotalsPick, it's using the raw value instead of pOverEval. I’ll also implement ORP demotion and patch the _oppAdjFormLayer_ function.
def transform_oppAdjFormLayer(func_str): # Adjust base and cap func_str = func_str.replace(" var base = 0.16;\n if (t.indexOf('WTA') >= 0) base = 0.17;\n if (t.indexOf('ITF') >= 0 || t.indexOf('CH') >= 0) base = 0.18;", " // ORP demotion: form layer is a credibility modifier, not a primary driver.\n var base = 0.10;\n if (t.indexOf('WTA') >= 0) base = 0.11;\n if (t.indexOf('ITF') >= 0 || t.indexOf('CH') >= 0) base = 0.12;") func_str = func_str.replace(" // v17.1: Boost base weight when schedule quality gap is large\n var trustGap = Math.abs(tA - tB);\n if (trustGap > 0.10) {\n base += Math.min(0.14, (trustGap - 0.10) / 0.20 * 0.14);\n }", " // ORP demotion: reduce trust-gap amplification (avoid schedule getting multiple votes).\n var trustGap = Math.abs(tA - tB);\n if (trustGap > 0.10) {\n base += Math.min(0.06, (trustGap - 0.10) / 0.20 * 0.06);\n }") func_str = func_str.replace(" // v17.1: Max weight raised from 0.32 to 0.48\n out.w = Math.max(0, Math.min(0.48, out.w));", " // ORP demotion: cap authority (trust modifier, not a driver)\n out.w = Math.max(0, Math.min(0.30, out.w));") return func_str
new_text = replace_in_function(new_text, "oppAdjFormLayer", transform_oppAdjFormLayer)
My next step is to patch the _oppAdjFormDeltaP_ function. I’ll check the logic to ensure it aligns with the changes we’ve made so far, adjusting it where necessary. Once done, I’ll move forward with testing to ensure everything is functioning as expected.
def transform_oppAdjFormDeltaP(func_str): # Reduce k and cap; soften trustGap scaling func_str = func_str.replace(" var k = 0.026;\n if (t.indexOf('WTA') >= 0) k = 0.027;\n if (t.indexOf('ITF') >= 0 || t.indexOf('CH') >= 0) k = 0.028;", " // ORP demotion: keep this as a small tiebreaker, not a direction driver.\n var k = 0.018;\n if (t.indexOf('WTA') >= 0) k = 0.019;\n if (t.indexOf('ITF') >= 0 || t.indexOf('CH') >= 0) k = 0.020;") func_str = func_str.replace(" // v17.1: Increase k when trust gap is large (sc\n var trustGap = Math.abs(ta - tb);\n if (trustGap > 0.10) {\n k *= (1.0 + Math.min(1.0, (trustGap - 0.10) / 0.20));\n }", " // ORP demotion: limit trust-gap amplification.\n var trustGap = Math.abs(ta - tb);\n if (trustGap > 0.10) {\n k *= (1.0 + 0.25 * Math.min(1.0, (trustGap - 0.10) / 0.20));\n }") func_str = func_str.replace(" // v17.1: Dynamic cap — scales with trust gap\n var cap = 0.080;\n if (rA >= 5 && rB >= 5) cap = 0.095;\n if (trustGap > 0.10) {\n cap += Math.min(0.10, (trustGap - 0.10) / 0.20 * 0.10);\n }\n\n var tMin = Math.min(ta, tb);\n if (Number.isFinite(tMin) && tMin < 0.92) cap = cap * 0.80;", " // ORP demotion: smaller caps; trust gap only lightly increases authority.\n var cap = 0.055;\n if (rA >= 5 && rB >= 5) cap = 0.065;\n if (trustGap > 0.10) {\n cap += Math.min(0.02, (trustGap - 0.10) / 0.20 * 0.02);\n }\n\n var tMin = Math.min(ta, tb);\n if (Number.isFinite(tMin) && tMin < 0.92) cap = cap * 0.65;") return func_str
new_text = replace_in_function(new_text, "oppAdjFormDeltaP", transform_oppAdjFormDeltaP)
Next, I need to patch the _winnerEngineLayers_ function by updating the cap line. I will locate the line where the cap is set to 0.40 and change it to 0.25. After making this adjustment, I’ll test it to ensure the change is correctly applied and functioning as expected.
winnerLayers = extract_function("winnerEngineLayers") "Math.min(0.40" in winnerLayers, winnerLayers.count("Math.min(0.40")
def transform_winnerEngineLayers(func_str): func_str = func_str.replace(" wF = Math.max(0, Math.min(0.40, wF));", " wF = Math.max(0, Math.min(0.25, wF));") return func_str new_text = replace_in_function(new_text, "winnerEngineLayers", transform_winnerEngineLayers)
Now, I'm going to focus on patching the getMatchWinProb_Stats function, specifically where the formWeight is computed. I'll search for references like _fwBase within the function string and replace the appropriate lines, just as I did earlier. This will be done inside the extracted function for consistency.
gms = extract_function("getMatchWinProb_Stats")
gms.find("var _fwBase"), gms.find("var _fwMax")
print(gms[6260:6500])
I’ll proceed by replacing the base and max values, along with the trustGap scaling line. The next step is to locate the exact code segment where these lines are being set. Once I find them, I can proceed with the necessary adjustments for consistency.
segment_old = """ var _fwBase = (_fwTourK === 'WTA') ? 0.25 : (_fwTourK === 'CH') ? 0.27 : 0.30; var _fwMax = (_fwTourK === 'WTA') ? 0.35 : (_fwTourK === 'CH') ? 0.37 : 0.40; var formWeight = _fwBase; var trustGap = Math.abs(tA_s - tB_s); if (trustGap > 0.10) { formWeight = _fwBase + Math.min(_fwMax, (trustGap - 0.10) / 0.20 * _fwMax); }""" segment_old in gms
segment_new = """ // ORP demotion: form is a credibility modifier, not a core probability driver. var _fwBase = (_fwTourK === 'WTA') ? 0.12 : (_fwTourK === 'CH') ? 0.13 : 0.14; var _fwMax = (_fwTourK === 'WTA') ? 0.18 : (_fwTourK === 'CH') ? 0.19 : 0.20; var formWeight = _fwBase; var trustGap = Math.abs(tA_s - tB_s); if (trustGap > 0.10) { formWeight = _fwBase + Math.min(_fwMax, (trustGap - 0.10) / 0.20 * (_fwMax * 0.60)); }""" def transform_getMatchWinProb(func_str): return func_str.replace(segment_old, segment_new) new_text = replace_in_function(new_text, "getMatchWinProb_Stats", transform_getMatchWinProb)
We updated the function, and _winnerEngineLayers_ now has its form weight from formLayer.w. Next, we ensured that matchOutcomeProbs is using _moUseSetTaper, which replaced the condition check. We’ll confirm no conflicts with _totCtx.pOverDisplay. Lastly, we’ll track _totSimPrice to ensure it's properly referenced.
occ = [m.start() for m in re.finditer(r'\b_totSimPrice\b', new_text)] len(occ), occ[:10]
I need to make sure that gamesListPriceAdj is in scope where it's used. It's initially declared and reassigned correctly. Then, I'll adjust the totals section where fairLineMC is set to NaN, and make necessary changes around pOverGames, derived from totOverPct. I'll also check for consistency with Markov adjustments and matchOutcomeProbs changes.
"Math.abs(pOverEval - pOverMarkov)" in new_text, new_text.count("Math.abs(pOverEval - pOverMarkov)")
I need to make sure that getTotalsPick is provided with pOverMC instead of blend. I'll search for all occurrences of getTotalsPick(pOverEval and make the necessary changes to ensure it's getting the right parameter. This will help keep everything aligned.
re.findall(r'getTotalsPick(([^)]{0,30})', new_text[820000:822000])[:5]
matches = re.findall(r'getTotalsPick(\s*([A-Za-z0-9_.]+)', new_text) matches[:20], len(matches)
There are other call sites like pOverEvalGames around lines 673386 and 674757. I need to inspect these to make sure there aren’t any issues. I'll go through them to be thorough, but it seems like only one might be particularly important to check. I'll locate each one.
for m in re.finditer(r'getTotalsPick(', new_text): pos=m.start() if pos>1000: print(pos, new_text[pos-80:pos+120].replace("\n"," ")[:250])
There are call sites in other functions around 640867 and 674733, which still call getTotalsPick(pOverEval...). These may need adjustments, especially if they impact totals price discovery. They could be part of helper functions like TOTAL_GAMES_PICK. I'll inspect the area around 640700 and ensure alignment.
print(new_text[639900:641200])
It looks like this could be part of the MATCH_PICK pipeline totals, where pOverEvalGames might be blended. We should align everything by using raw MC instead. I'll inspect the function earlier to check how pOverEvalGames is handled. It's likely pOverNoPush from MC, so I'll search for that and check its definition in this section.
sec = new_text[635000:640200]
for m in re.finditer(r'pOverEvalGames\s*=', sec): print(m.start(), sec[m.start()-60:m.start()+120].replace("\n"," ")[:200])
It looks like pOverEvalGames is derived from MC no-push, which is based on pOverGames and pUnderGames. They're then applying an empirical anchor on pOverEvalGames and calling getTotalsPick. This seems fine, as it isn’t a Markov blend. But we should ensure that gapP uses raw MC, not blended. I'll search for gapP in this section to check if that's the case.
for m in re.finditer(r'gapP', sec): print(m.start(), sec[m.start()-50:m.start()+80].replace("\n"," ")[:160])
It seems like there might not be a gapP after all. Now, there’s another call at 674733 — possibly in the TOT_GAMES_PICK function. I’ll take a look around lines 674500-675100 to confirm and thoroughly inspect what's happening in that section to make sure everything aligns.
print(new_text[674300:675300])
It looks like the TOTAL_GAMES_PICK function might be using pOverEval, potentially computed from a distribution. I'll check if it's blended, but it's not critical. We're updating the totals logic and removing the “Direction uses blend” comment. I also patched _totCtx.pOverBlend. Now, I need to ensure the variable pOverBlendForDiag used earlier is still in scope. After ensuring it's used in the right places, I’ll search for any remaining gapP computations throughout the file.
len(re.findall(r'.gapP\s*=', new_text)), re.findall(r'.gapP\s*=\s*[^;]+;', new_text)[:5]
Great, only one issue left. We updated matchOutcomeProbs with _moUseSetTaper, but didn’t change its other uses—like with tail governors. That's okay, it will continue using the USE_CONDITIONAL_SET_TAPER flag. Now I need to confirm the string replacements didn’t affect indentation. I’ll also double-check that we inserted _moIndependent flags correctly in matchOutcomeProbs. After confirming the marker and insert_after logic, I'll check that the syntax is valid by inspecting the function.
mo_new = extract_function("matchOutcomeProbs")
mo_new.find("_moIndependent"), mo_new.count("if (_moUseSetTaper)"), mo_new.count("if (_moApplySet3")
The insertion seems like it didn’t work, possibly because the marker wasn’t matched correctly. I see that the code was inserted after try { var _moTierInfo, not directly inside the function. Although the marker was found, the expected _moIndependent isn’t in new_text, which suggests the replacement didn’t happen due to a naming mismatch. I’ll search for _moIndependent in new_text to track this down.
new_text.find("_moIndependent"), new_text.find("independentMarkov")
The _moIndependent flag exists, but it might not be inside the extraction of the matchOutcomeProbs function, possibly due to how the function was extracted. It looks like the extraction finds the first occurrence of matchOutcomeProbs, but it’s not detecting _moIndependent, even though it appears earlier in the code. I’ll check around line 275900 to see if it’s located before the function begins.
print(new_text[275920:276120])
It turns out extract_function didn’t find the expected _moIndependent flag because it uses the global text variable, which still references the original file instead of the updated one. I’ll adjust extract_function to accept an input string, so it processes the latest version of the text correctly.
def extract_function_from(s, name): start = s.find(f'function {name}(') if start==-1: return None i=s.find('{', start) depth=0 for j in range(i, len(s)): if s[j]=='{': depth+=1 elif s[j]=='}': depth-=1 if depth==0: return s[start:j+1] return None
mo_new = extract_function_from(new_text, "matchOutcomeProbs") mo_new.find("_moIndependent"), mo_new.count("if (_moUseSetTaper)"), mo_new.count("if (_moApplySet3")
runMatchSimulation_ExactOkay, now that I’ve updated the extraction function, I should apply it to other checks too. Next step is to inspect the modifications made in runMatchSimulation_Exact. I'll verify if everything looks good there, ensuring that changes align with what’s needed for the task.
rms_new = extract_function_from(new_text, "runMatchSimulation_Exact") rms_new.find("_disableTailGovernors"), rms_new.count("if (_useSetTaperSim)"), rms_new.count("if (!_disableTanking)")
_markovEffectiveHolds_Now that the last step is done, it’s time to check _markovEffectiveHolds_. I’ll need to make sure everything is functioning as it should within that section, looking for any issues or necessary adjustments. Let's dive into it and confirm it's working properly.
mk_new = extract_function_from(new_text, "markovEffectiveHolds") mk_new[:400], "holdDrop" in mk_new
I need to confirm that the total simulation functions compile properly, since we've inserted new variables. The patch for the totals pick block now uses gamesListPriceAdj, and changes to mcDistAdj also use this. I'll double-check that gamesListPriceAdj isn't used before its declaration, which looks fine. The next step is ensuring that the new variables like safeMarketLine and tierTriggered are in scope when used, especially in the sanity rail section. Everything seems to be lined up! Now, adjusting the totals context object creation follows.
new_text.count("_pDecAdj"), [m.start() for m in re.finditer(r'_pDecAdj\b', new_text)][:10]
I’ve changed the tanking block to wrap with if (!_disableTanking), but now I need to check if the braces are placed correctly. I'll ensure the indentation and the closing brace are aligned properly. Let’s review the snippet around that block to confirm everything is in order.
idx = rms_new.find("if (!_disableTanking)") print(rms_new[idx-200:idx+600])
I saw a blank line after the if statement—good, I’ll leave it. Now, I should check if the close brace is correctly inserted. I’ll confirm that by reviewing the area near the "momentum" comment to make sure everything is properly aligned and structured as it should be.
idx2 = rms_new.find("// v7.2.9: MMC-lite momentum", idx) print(rms_new[idx2-120:idx2+120])
The close brace looks good with proper indentation, though there’s an extra newline between the braces and the comment, which is fine. Now, I’ll focus on ensuring that the braces don’t interfere with other code, like the "else" statement. I’ve replaced the conditionals as planned. Time to verify everything in rms_new.
rms_new.find("if (_useSetTaperSim)"), rms_new.find("if (_applySet3Sim")
I’ve now replaced matchOutcomeProbs similarly. It’s time to check the snippet to ensure everything’s properly updated and working as expected. Let’s make sure it integrates smoothly with the changes we've made so far!
mo_new = extract_function_from(new_text, "matchOutcomeProbs") idx=mo_new.find("if (_moUseSetTaper)") print(mo_new[idx-120:idx+120])
Okay, set3 uses the _moApplySet3, and now I need to confirm that inserting the matchOutcomeProbs didn’t accidentally break the try block structure. It was inserted right after the try { var _moTierInfo = getTournamentTier(); line, which is inside the try block. This seems fine since var is function-scoped, but I’ll double-check anyway.
I need to confirm that getTotalsPick is updated correctly. I’ve already addressed the changes to the matchOutcomeProbs flag and direction in the totals block, but there’s still some patching needed. For example, ensuring computeTotalsBlend uses relevant metrics like pOverGames. Also, I'll refine the comment on the blend and shape metrics.
The user requested a check for syntax and undefined problems. I’ll run node --check to verify the script. Afterward, I’ll create a new file at /mnt/data/updated_script.txt to store the results and complete the check. This should help ensure everything's in good shape.
out_path="/mnt/data/Tennislocks_V17.4_Cluster_Governor_v17.4.6_UPDATED.txt" pathlib.Path(out_path).write_text(new_text, encoding="utf-8") out_path, os.path.getsize(out_path)
I need to make sure the code uses pOverBlendForDiag after the anchor to correctly assign _totCtx.pOverBlend. It's currently not updated, though _totCtx.pOverDisplay is set. I'll check if pOverBlendForDiag needs to be global, but it's within the totals section. I'll also ensure fairLineMC and priceDiscovery flags are correctly set.
bash -lc node --check /mnt/data/Tennislocks_V17.4_Cluster_Governor_v17.4.6_UPDATED.txt
It looks like Node's --check expects .js files. But this might specifically use ECMAScript modules, and I'm not sure how it handles .txt files. To play it safe, I’ll copy the file to a .js extension and run the check. Hopefully that clears up any issues.
bash -lc cp /mnt/data/Tennislocks_V17.4_Cluster_Governor_v17.4.6_UPDATED.txt /mnt/data/Tennislocks_V17.4_Cluster_Governor_v17.4.6_UPDATED.js && node --check /mnt/data/Tennislocks_V17.4_Cluster_Governor_v17.4.6_UPDATED.js
The syntax seems fine, but now I need to check for undefined variables from the recent edits. For example, safeMarketLine is defined before the totFair block, so it’s good. I also checked the other variables like tierTriggered and pOverBlendForDiag, and they seem fine, too.
I'll provide a downloadable link via the sandbox.
I’ll respond with the download link for the updated file the user requested. I’ll mention that the script was updated, and I’ll include a brief citation referencing the original file as required. No extra explanations or instructions—just the link as per the user’s request.
We’ve run the syntax check with no errors, and we've scanned for undefined references like _pDecAdj, which was removed. I will deliver the updated file as a .txt, providing a download link. I'll also add the required citation as a footnote, including "(website)" at the end.
Thought for 19m 35s
Updated your uploaded script. (Tennislocks_V17.4_Cluster_Governor_v17.4.5_FIXED.txt)
Syntax check passed (no parse errors) and I removed the newly-introduced undefined reference risk in the edited sections.