LotteryOracle
GamesForecastPlaygroundCase filesMy numbers
← MultiMatch
pool inferredsingle source
Frequency ExplorerGap & “Overdue” TrackerSum DistributionConsecutive Numbers SurpriseHarmony MatrixNumber ConstellationCarry-over / Déjà VuDelta SpaceCoverage RaceDraw FingerprintsRandomness ObservatoryPositional RibbonsCross-Lottery MirrorSix true storiesCultural Numbers AtlasThe Unpopular Numbers EdgeWheel WorkshopMyth RebuttalPattern CourtDraw Rank StreamAnytime Bias WatchWhole-Draw DriftConditional HarmonyResidue KaleidoscopeDigit LaboratoryCrowd Calibration LabCalibration ForgeJohnson SpectrumCompression LabForecast ArenaExchangeability WatchGap UniformizerSharing MapChernoff MapReturn LedgerRule-Change LedgerMachine RoomCalendar CourtBalls versus RNGWorld Fairness BoardRegression LedgerLottery Design StudioChance DetectiveThe Headline FactoryThe Crowd Through TimeThirty Years of SaturdaysPattern Recipe LabArithmetic Progression GardenSame Odds, Different WaitsWrong Formula LabEuler’s Lottery DeskCasanova’s Risky TreasuryThe Lottery That Chose LivesThe Museum Built by Chance

Loading…

Reading the draws and working out what chance predicts.

← PreviousCalibration ForgeNext →Compression Lab
LotteryOracle

LotteryOracle reports what happened; it does not predict what is next. Every draw is independent — no number is ever "due".

GamesPlaygroundCase filesThe weekDataAboutMethodologyPrivacy
Built byejoyful

Responsible play.A lottery costs more than it pays back; if it stops being fun, help is free and confidential:🇺🇸 1-800-GAMBLERall helplines →

Johnson Spectrum

If the sequence bends, where does the bend live?

Fixed-size draws live on a mathematical slice, not in an ordinary grid. This spectrum separates single-ball imbalance, pair structure left after singles, and structure needing whole draws.

Three registered structural bands

MultiMatch6/43 era · since Sep 2025109 draws

single-ball band
1.114
raw p 0.300 · adjusted 0.900
pair band after singles
1.017
raw p 0.380 · adjusted 1.000
all-degree set kernel
0.006
raw p 0.540 · adjusted 1.000

Largest single-ball loadings

8+2.71σ
37-2.55σ
41+1.88σ
15-1.72σ
33-1.72σ
36-1.72σ
29+1.60σ
5-1.44σ
10+1.32σ
18+1.32σ
21-1.16σ
1+1.05σ

Largest pair loadings after singles

11 + 34+4.65σ
8 + 41+4.37σ
4 + 18+3.07σ
10 + 25+3.07σ
19 + 32+3.07σ
39 + 41+2.86σ
11 + 19+2.76σ
4 + 6+2.74σ
18 + 19+2.66σ
6 + 32+2.64σ
7 + 24+2.64σ
13 + 38+2.64σ

Johnson-slice harmonic spectrumjohnson-spectrum-v3seed 2026082799 fair-machine histories; three-band Bonferroni

Analysis ledger
Draw stream
main
Usable evidence
109 recent / 109 draws
Trust filter
all canonical draws
Source omitted
none
Registered family
degree 1, degree 2, and all-degree kernel
Correction
three spectral bands adjusted together by Bonferroni; the all-degree band is read from both tails
Kernel bandwidth
0.100 — the median heuristic on the first 20 draws, declared before any of the rest were scored
∑The maths, in plain language

Harmonics on fixed-size subsets

A kkk-of-NNN draw is a vertex of the Johnson graph: two vertices are close when their sets overlap. Degree 1 measures centred single-ball indicators. Degree 2 starts with pair indicators and removes the part already explained by their two single-ball coordinates. The all-degree band uses an overlap kernel.

Fresh fair histories calibrate all three statistics. If p1,p2,p∗p_1,p_2,p_\astp1​,p2​,p∗​ are their raw Monte Carlo p-values, each displayed adjusted value is min⁡(1,3p)\min(1,3p)min(1,3p).

✦The story behind it

A prism for pattern claims

“Something is unusual” is not yet an explanation. A heavy first band points toward marginal ball frequencies. A heavy second band says some pairing remains after those margins are removed. A kernel-only signal suggests structure that neither summary captures alone.

The separation makes follow-up work narrower and more falsifiable. It does not make an unusual band predictive.