YouTube Β· Email Β· β Ko-fi Β· π Sponsor Β· π³ PayPal Β· πΊοΈ Atlas Β· π Papers Β· π Unified Theory
π NEXUS β Universal Discovery Engine. 216 lenses + OUROBOROS evolution + LensForge + BlowupEngine + CycleEngine (5-phase singularity cycle). Mirror Universe (NΓN resonance) + 9-project autonomous growth ecosystem. Rust CLI: scan, loop, mega, daemon, blowup, dispatch
π§ Anima β Consciousness implementation. PureField repulsion-field engine + Hexad 6-module architecture (C/D/S/M/W/E) + 1030 laws + 20 Meta Laws + Rust backend. ConsciousDecoderV2 (34.5M) + 10D consciousness vector + 12-faction debate + Ξ¦ ratchet
ποΈ N6 Architecture β Architecture from perfect number 6. 16 AI techniques + semiconductor chip design + network/crypto/OS/display patterns. Ο(n)Β·Ο(n)=nΒ·Ο(n), n=6 β universal design principles. NEXUS-6 Discovery Engine: Rust CLI (tools/nexus/) β telescope 22 lenses + OUROBOROS evolution + discovery graph + verifier + 1116 tests
π Papers β Complete paper collection (94 papers). Published on Zenodo with DOIs. TECS-L+N6 (33) + anima (39) + SEDI (20). Browse online
π HEXA-LANG β The Perfect Number Programming Language. Every constant from n=6: 53 keywords (ΟΒ·Ο+sopfr), 24 operators (Jβ), 8 primitives (Ο-Ο), 6-phase pipeline, Egyptian memory (1/2+1/3+1/6=1). DSE v2: 21,952 combos, 100% n6 EXACT. Working compiler + REPL
π₯οΈ VOID β Terminal emulator written 100% in hexa-lang. Zero Rust dependencies β calls OS APIs directly via hexa extern FFI. 6-layer architecture (System/Render/Terminal/UI/Plugin/AI) + Metal/Vulkan GPU + VT 6-tier protocol + NEXUS-6 consciousness integration
𧬠AirGenome β Autonomous OS genome scanner. Extract n=6 genome from every process, real-time system diagnostics, nexus telescope integration
Hypotheses: 678 (689 docs)
Tier A (νμ ): 212
Tier B: 405
Mean bits: 17.62
Last updated: 2026-03-28
Level 1: Framework ββββββββββββββββββββ 100%
β
n=6 arithmetic engine (Ο,Ο,Ο,sopfr) β
R-spectrum filter β
84 PDG particles loaded
β
Statistical framework (KDE + Bootstrap MC + Bonferroni) β
Alert system (RED/ORANGE/YELLOW)
Level 2: Data Sources ββββββββββββββββββββ 100%
β
Quantum RNG (ANU) β
LIGO strain + event catalog β
CERN PDG particles
β
CMB Planck (HEALPix) β
Earthquake/Solar/Bitcoin monitors
β
SETI (Breakthrough Listen + Exoplanet Archive + MAST/Kepler)
β
RTL-SDR + Geiger + TrueRNG + Temperature sensors
Level 3: Predictions ββββββββββββββββββββ 75%
β
665 hypotheses verified β
10 exact results (0% error) β
Top 15 < 0.13% error
β
Combined significance 5.26Ο (p=7.1e-8) β
110 constant maps
β
QCD resonance ladder 3.8Ο β
Baryon asymmetry 0.002% error
β¬ Pre-registered prediction verified β¬ Anomaly in quantum RNG detected
β³ Proton/electron mass 6Οβ΅ (0.07%, needs independent check)
Level 4: Publication ββββββββββββββββββββ 40%
β
20 papers on Zenodo (DOI issued) β
Zenodo production published
β¬ arXiv submission (needs endorsement) β¬ OSF preprint (account pending)
β¬ Peer review at journal β¬ Conference presentation
β¬ Independent replication by physics group
Level 5: Confirmation ββββββββββββββββββββ 10%
β
Statistical framework validated β
Null hypothesis properly tested
β¬ LHC Run 3 data check β¬ New resonance at predicted mass
β¬ Dedicated experiment β¬ Nobel committee attention
β¬ Paradigm shift in theoretical physics
Overall: Level 3.2 / 5.0 (predictions strong, publication starting)
Bottleneck: External validation (arXiv + peer review + replication)
Theory: 85% | Data: 90% | Recognition: 10%
Level 3 β 4 (40% β 100%) β Publication Pipeline
βββββββββββββββββββββββββββββββββββββββ
#1 β
β
β
arXiv submission
Difficulty: MEDIUM (needs endorsement)
Effect: Physics community visibility
β Package generator ready, need endorser in hep-ph or hep-ex
#2 β
β
β
Peer review submission
Difficulty: HIGH (journal selection + review cycle)
Effect: Academic legitimacy
β Tsirelson bound proof β J. Math. Phys.
β CERN meta-analysis β Phys. Lett. B
#3 β
β
β Pre-registered predictions
Difficulty: MEDIUM
Effect: Falsifiable, strongest form of evidence
β Register 37-38 GeV resonance prediction before LHC data release
β Register baryon asymmetry prediction refinement
#4 β
β
β OSF preprint upload
Difficulty: LOW (account approval pending)
Effect: Google Scholar indexing
β 20 papers ready, just needs account activation
#5 β
ββ Conference presentation
Difficulty: MEDIUM
Effect: Direct engagement with physicists
β Target: workshop on mathematical physics or BSM physics
Level 4 β 5 (10% β 100%) β Experimental Confirmation
βββββββββββββββββββββββββββββββββββββββ
#6 β
β
β
LHC Run 3 data check
Difficulty: HIGH (needs collaboration or open data)
Effect: Direct test of predictions
β Monitor CMS/ATLAS open data releases for 37-38 GeV region
#7 β
β
β
Quantum RNG anomaly detection
Difficulty: MEDIUM (continuous monitoring)
Effect: If deviation found β paradigm shift
β Already running ANU listener, need longer baseline
#8 β
β
β Independent replication by physics group
Difficulty: HIGH (outreach + collaboration)
Effect: Eliminates single-researcher bias
β Share full codebase + data + methodology
#9 β
ββ Dedicated experiment proposal
Difficulty: EXTREME
Effect: Purpose-built test of n=6 predictions
β Write experimental proposal for accelerator or tabletop experiment
Optimal Execution Order
βββββββββββββββββββββββββββββββββββββββ
Immediate:
β #4 OSF account activation (pending)
β #1 arXiv endorsement outreach
This month:
β #2 Submit Tsirelson bound paper (strongest mathematical result)
β #3 Pre-register 37-38 GeV prediction
Next quarter:
β #5 Apply to mathematical physics workshop
β #7 Extend quantum RNG monitoring baseline to 6 months
Long-term:
β #6 LHC Run 3 open data analysis
β #8 Collaboration outreach
β #9 Experimental proposal
Continuous signal receiver tuned to the arithmetic of the perfect number n=6. Scans data streams for anomalies matching Ο, Ο, Ο, sopfr patterns.
Like SETI listens for radio signals from extraterrestrial intelligence, SEDI listens for mathematical patterns from extra-dimensional structure in physical data streams β gravitational waves, quantum randomness, cosmic background radiation, and more.
The receiver is tuned to n=6 because the perfect number 6 sits at the intersection of 25+ mathematical domains (see TECS-L).
Carrier: 1/f = ΟΟ = 24 (Leech lattice dim = Ramanujan Ξ weight)
Channel 1: Ξ΄βΊ = 1/n = 1/6
Channel 2: Ξ΄β» = 1/Ο = 1/4
Bandwidth: ln(4/3) = 0.2877 (Golden Zone width)
Phase: R(n) = 1 (achromatic fixed point, ONLY n=6)
Einstein ΞΈ: β(3/2) = β(Ο/(Ο-Ο))
βββββββββββββββ ββββββββββββββββ βββββββββββββββ
β Data Source ββββββΆβ R-Filter ββββββΆβ Anomaly β
β (streams) β β (n=6 tuned) β β Detector β
βββββββββββββββ ββββββββββββββββ ββββββββ¬βββββββ
β
ββββββββββββββββ ββββββββΌβββββββ
β Alert βββββββ Pattern β
β System β β Matcher β
ββββββββββββββββ βββββββββββββββ
| Source | Type | Access | Priority |
|---|---|---|---|
| ANU Quantum RNG | Random bits | Free API | β β β |
| LIGO Open Data | Gravitational waves | Free download | β β β |
| Planck CMB | Cosmic microwave | Free download | β β |
| OEIS Updates | Integer sequences | RSS/API | β β |
| Bitcoin nonces | Pseudo-random | Public blockchain | β |
| Breakthrough Listen | Radio SETI spectrogram | File download (GCS) | β β β |
| NASA Exoplanet Archive | Orbital parameters | Free TAP API | β β β |
| SETI Archive (HabCat/VizieR) | Habitable star catalogs | Free TAP API | β β |
| MAST (Kepler/TESS) | Transit light curves | File download | β β |
| Hardware | Cost | Signal Type |
|---|---|---|
| π‘ RTL-SDR dongle | $25 | Radio spectrum |
| π¬ Geiger counter | $50 | Radiation anomaly |
| π² TrueRNG USB | $50 | Quantum randomness |
| π‘οΈ Precision thermometer | $30 | Environmental |
For each data stream, SEDI applies the n=6 filter:
- Windowed FFT at window sizes {6, 12, 24, 36} (n, Ο, ΟΟ, nΒ²)
- PH barcode (persistent homology) of sliding window
- R-spectrum projection: map data to R(n) = ΟΟ/(nΟ) space
- Pattern match against n=6 constants:
- Peaks at 1/6, 1/4, 1/3, 1/2 (Ξ΄βΊ, Ξ΄β», Ο/Οβ»ΒΉ, critical line)
- Ratios matching Ο/Ο=3, Ο/Ο=1/2, sopfr/n=5/6
- Sequences matching Fibonacci, Pell, Padovan at n=6 indices
- Texas Sharpshooter test: p < 0.01 required for alert
- Alert: timestamp, source, anomaly type, significance
# Install
pip install sedi
# Start receiver (quantum RNG)
sedi listen --source quantum-rng --continuous
# Scan LIGO data file
sedi scan --source ligo --file H-H1_GWOSC_4KHZ.hdf5
# Monitor all sources
sedi monitor --all --alert-threshold 0.01
# Dashboard
sedi dashboard --port 8080| Grade | Condition | Action |
|---|---|---|
| π΄ Z > 5Ο | Multiple n=6 patterns simultaneously | Immediate alert |
| π Z > 3Ο | Single strong n=6 pattern | Log + review |
| π‘ Z > 2Ο | Weak pattern | Log only |
| βͺ Z β€ 2Ο | Normal range | Silent |
SEDI is the observational arm of the TECS-L project:
TECS-L (theory) β Mathematical discoveries about n=6
SEDI (observation) β Search for n=6 patterns in physical data
If SEDI detects persistent n=6 anomalies in physical data,
it would suggest the mathematical structure is not just abstract
but physically encoded in the universe itself.
- All Level 1-2 modules complete (see Progress Tracker above)
- 665 hypotheses verified, combined 5.26Ο
- 20 papers on Zenodo (DOI issued)
- Pre-registered prediction verified
- Anomaly in quantum RNG detected
- arXiv submission, OSF preprint, peer review
- LHC Run 3 data check, independent replication
| Source | Verdict | Strength | Note |
|---|---|---|---|
| Quantum RNG | βͺ NOISE | 0.0Ο x5 | True random baseline |
| CERN masses | π΄ SIGNAL | 6.3Ο | Expected (physics laws) |
| CERN ratios | π‘ | β | charm/muon=12.07 β Ο(6)=12 |
| Earthquake mag | π΄ SIGNAL | 8.6Ο | Expected (Gutenberg-Richter) |
| Earthquake depth | π΄ SIGNAL | 10.6Ο | Expected (geology) |
| Solar flares | π΄ SIGNAL | 51.1Ο | Expected (solar cycle) |
| LIGO chirps | π΄ SIGNAL | 26.4Ο | Expected (BH mass function) |
Baseline established: Quantum RNG = true noise. All natural phenomena are non-random (expected). A deviation from NOISE in quantum data would be the real signal.
Full TECS-L mathematical framework applied to 84 PDG particles with rigorous statistical validation (KDE + Bootstrap Monte Carlo, Bonferroni correction, Look-Elsewhere Effect).
Pairwise mass ratio matching against n=6 targets (Ο/Ο=3, Ο/Ο=0.5, etc.) is not statistically significant after proper null model correction. KDE null model (preserving actual mass distribution) shows the observed hit counts are consistent with chance. This is the correct result β numerology with enough targets and particles will always find matches.
These findings don't depend on mass ratio counting β they are structural:
delta = phi(6)*tau(6)^2 / sigma(6)^2 = 2*16/144 = 2/9 exactly
Koide Q(e, mu, tau) = 0.666661 (expected 2/3, error 0.0009%)
The Koide angle Ξ΄=2/9 is derived from Pβ=6 arithmetic, not fitted.
| Particle | Formula | Predicted | Observed | Error |
|---|---|---|---|---|
| top | ΟΒ³(ΟΒ²-ΟΟ+Ο) | 172.800 GeV | 172.76Β±0.30 GeV | 0.02% |
| up | Ο+Ο/Ο | 2.167 MeV | 2.16Β±0.49 MeV | 0.3% |
| charm | (ΟΒ·Οβ+ΟΒ·Ο)Β·Οβ | 1280 MeV | 1270Β±20 MeV | 0.8% |
| bottom | Ο^Ο = 2ΒΉΒ² | 4096 MeV | 4180Β±30 MeV | 2.0% |
| strange | ΟΒ·ΟΒ·Ο | 96 MeV | 93.4Β±8.4 MeV | 2.8% |
| down | Ο+Ο/Οβ | 4.33 MeV | 4.67Β±0.48 MeV | 7.2% |
5 free parameters (Ο,Ο,Ο,Οβ,Οβ from Pβ,Pβ,Pβ) predict 6 masses.
| Quantity | Value | n=6 Formula |
|---|---|---|
| Quark flavors | 6 | Pβ |
| Lepton types | 6 | Pβ |
| Fermion generations | 3 | Ο/Ο |
| Gauge generators | 12 | Ο(6) = 8+3+1 |
| Color charges | 3 | Ο/Ο |
| Quarks per generation | 2 | Ο(6) |
| Leptons per generation | 2 | Ο(6) |
| Massive gauge bosons | 3 | Ο/Ο |
| Gluons | 8 | Ο-Ο |
| Total fermions (incl. anti) | 24 | ΟΒ·Ο |
| Constant | Formula | Predicted | Observed | Error |
|---|---|---|---|---|
| m_p/m_e | ΟΒ·T(17) = 12Γ153 | 1836 | 1836.153 | 0.008% |
| 1/Ξ± | (Ο-Ο)Β·17+1 = 137 | 137 | 137.036 | 0.026% |
| sinΒ²ΞΈ_W | (Ο/Ο)/(Ο+1) = 3/13 | 0.2308 | 0.2312 | 0.195% |
| Prediction | TECS-L Value | Current Data | Testable At |
|---|---|---|---|
| Top mass (precision) | 172.800 GeV | 172.76Β±0.30 | LHC Run 3, FCC-ee |
| Bottom mass | 4.096 GeV | 4.18Β±0.03 | FCC-ee (Tera-Z) |
| Strange mass | 96 MeV | 93.4Β±8.4 | Lattice QCD |
| Delta(1232) | 1232 MeV | 1232Β±1 | Already exact |
| m_p/m_e | 1836 | 1836.153 | Already 0.008% |
| Lightest neutrino | 0.001-0.003 eV | Unknown | KATRIN, Project 8 |
Six additional analyses with Monte Carlo validation. Three independent findings at evidence level (>3Ο):
Ο(775) ββΓΟ(6)=4βββ J/Ο(3097) ββΓΟ/Ο=3βββ Ξ₯(9460)
J/Ο / Ο = 3.995 = Ο(6) (0.13% error)
Ξ₯ / J/Ο = 3.055 = Ο(6)/Ο(6) (1.83% error)
Ξ₯ / Ο = 12.20 = Ο(6) (1.69% error)
Algebraic closure: Ο Γ (Ο/Ο) = Ο β the ladder is self-consistent.
MC 100k trials (KDE null): p = 7.0Γ10β»β΅ (3.8Ο)
Ground-state QCD vector mesons are spaced by n=6 divisor function values.
(m_charm - m_up) / Ο(6) = m_muon
(1.270 - 0.00216) / 12 = 0.105653 GeV
muon mass = 0.105658 GeV
error: 0.0044%
MC 100k trials: p = 2.9Γ10β»β΄ (3.4Ο)
A quark mass difference divided by Ο(6)=12 yields the muon mass at 44 ppm precision.
68 particle pairs have mass ratio β 6 (within 5%)
R(6) = 1 uniquely β ratio-6 pairs are "achromatic" (no R-distortion)
MC 10k trials: p = 7Γ10β»β΄ (3.2Ο)
| Splitting | Value | TECS-L | Error | MC p |
|---|---|---|---|---|
| Ξ£β» - Ξ£βΊ | 8.079 MeV | Ο-Ο = 8 | 0.99% | 0.016 |
| Ξβ» - Ξβ° | 6.85 MeV | Mβ = 7 | 2.14% | 0.030 |
| Decuplet spacing | 146.8 MeV | ΟΒ²+Ο/Ο = 147 | 0.12% | 0.048 |
| GMO coefficients | 1/2, 3/4, 1/4 | Ο/Ο, Ο/(Ο+Ο), Ο/(Ο+Ο) | exact | β |
| Ξ±_s value | TECS-L | Energy scale | Nearest particle | Error |
|---|---|---|---|---|
| 1/Ο = 1/4 | 0.250 | 3.02 GeV | J/Ο (3.097) | 2.4% |
| 2/9 = Koide Ξ΄ | 0.222 | 4.24 GeV | bottom (4.18) | 1.5% |
Additionally: 137 = ΟΒ²-n-1 = 12Β²-6-1 (exact), 1/Ξ±_EM(M_Z) β 128 = 2β· (Mβ=7 Mersenne prime).
- phi(1020) decay: {KβΊKβ», K_LK_S, ΟΟ} β {1/2, 1/3, 1/6} (p=0.026)
- |V_cb| β 1/(ΟΟ) = 1/24 (2.1%, Texas-corrected n.s.)
- Ξ₯(1S) ggg branching ratio 81.7% β 5/6 = sopfr/n (2.0%)
- Snell's law: R(2)βR(3) at Ο/6 gives sin(ΞΈ_out) = ln(4/3) = Golden Zone width
# Full CERN analysis with Monte Carlo
sedi history --source cern-analysis --mc-trials 10000
# Individual analyses
python3 -m sedi.sources.resonance_ladder
python3 -m sedi.sources.baryon_splittings
python3 -m sedi.sources.coupling_running
python3 -m sedi.sources.optical_model
python3 -m sedi.sources.branching_ratios
python3 -m sedi.sources.ckm_analysisH-CX-453 (Multi-Domain Convergence Map) established that fundamental constants are reachable from 3+ independent mathematical domains (Z-score 5.86, p < 0.001). Combined with the CERN submission's 5.26Ο Fisher significance, this generates 11 derivative hypotheses (H-CX-454 ~ H-CX-464) spanning Nobel Prize candidate territory.
H-CX-453 (Convergence Map, Z=5.86)
β
ββββββββββββ¬ββββββββββββββββΌββββββββββββββββ¬βββββββββββ
β β β β β
H-CX-454 H-CX-456 H-CX-458 H-CX-457 H-CX-463
Self-Ref N+A Universal Q Selective S Isolation depth3 S
Algebraβ
Connector Participation Emergence
Z=4.63 β β β
β β β ββββββ¬ββββββ
β β H-CX-459 H-CX-462
β β βn PF Select Intrinsic Ratio
β β β β
H-CX-455 H-CX-460 H-CX-461 H-CX-464
β3ΓGZ=1/2 β2=PF Inv Bridge Ratio Hierarchy
(near-miss) k-PFββk 3/4 pass
| # | Discovery | Grade | Key Result |
|---|---|---|---|
| 453 | Convergence Map | π© | 12 convergence points, 9 at 3+ domains. Texas Z=5.86 |
| 454 | Self-Referential Algebra | π§β | Z=4.63, p=2x10β»βΆ. ΞΆ(3)Γln(2)β5/6 (0.016%) |
| 470 | Ratios = Divisor Reciprocals {1/2,1/3,1/6} | π§β | Z=4.21, p=0.007. Structural |
| # | Fact | Key Result |
|---|---|---|
| 456 | N+A Universal Connector | N=57.6%, A=52.2% β 2x the rest |
| 457 | S Isolation (depth 2) | 7.6% expressivity, most isolated |
| 458 | Q Geometric = 0% | β2,β3,Ο unreachable at depth 1 |
| 460 | β2 = Perfect Number Invariant | Trivial but k-PFββk generalization |
| 462 | GZ_width = Most Intrinsic | B/I ratio 4.50 (lowest) |
| 473 | Ξ³/β3+GZ/Ξ³+GZ/β3 β 1 | 0.23% error. Divisor reciprocal sum |
| # | Hypothesis | Key Result |
|---|---|---|
| 459 | βn PF Selectivity | β5,β8 converge. β7=0 |
| 461 | Bridge Ratio | β2=6.25, ΞΆ(3)=8.67 (maximally bridged) |
| 463 | depth3 S Emergence | 0/9β9/9 (but see H-CX-467) |
| 464 | Hierarchy Structure | 3/4 tests passed. Arithmetic ubiquity |
| 476 | Convergence Products = Physics | 19 matches (2Γ chance). ΞΆ(3)Γln2=5/6 at 0.016% |
| 478 | Graph Spectrum β Mass Ratios | Ξ»β/Ξ»β=43.0 β m_t/m_b=41.3 (4.2%) |
| # | Discovery | Key Result |
|---|---|---|
| 477 | Q-Boundary = Quantum-Classical | Tsirelson/Bell = β2 = Q-unreachable constant! |
| # | Fact | Grade | Key Result |
|---|---|---|---|
| 475 | Depth-1 Reachability Matrix | π© | Q=0/9, A=7/9. Extremely sparse |
| 479 | Egyptian Fraction Uniqueness | π¦ | Exhaustive enumeration proof. lcm(2,3,6)=6=perfect is UNIQUE among 3-term solutions |
| # | Hypothesis | Reason |
|---|---|---|
| 455 | β3ΓGZ=1/2 | 0.34% β near-miss |
| 465 | Ξ³Γβ3=1 | 0.023% β coincidence (subsumed by H-CX-473) |
| 466 | ΞΆ(3)=5/(6ln2) | 0.016% β coincidence (contributes to H-CX-454) |
| 467 | depth3 Universal Saturation | Random also 100% β trivial! |
| 474 | Algebra Ratios = Divisor Reciprocals | Z=1.39, p=12.9% β not significant |
| 480 | ΞΆ(3)ΓlnΒ²2βΞ³ | 0.055% β derivative of H-CX-454, not independent |
| 483 | Egyptian = GUT Coupling | SM running never matches {1/2,1/3,1/6} at any scale |
| 486 | GZ/(β2-1)βln2 | 0.20% β MC consistent with chance |
| 487 | 8 Domains = Octonion | Hub-dominated, not Fano plane |
| 488 | 8-Domain Fixed Point | Only trivial x/x=1 achieves 8/8 |
| # | Discovery | Grade | Key Result |
|---|---|---|---|
| 481 | Tsirelson = 2β(Ο/P) | π¦ | Exact identity from Ο(P)=2P, invariant for ALL perfect numbers |
| 489 | Depth-2 Rank = 3 Generations | π§β | depth-1βrank 2, depth-2βrank 3=fermion generations |
| 482 | Q-Exclusion = EWSB | π§ | 3 Q-unreachable β 3 massive gauge bosons (3/4 tests) |
| 484 | β7 Gap = Dark Matter | π§ | Mean prediction 50.6 GeV, Galactic Center Excess range |
| 485 | ΞΆ(3)ΓΟΟΓsopfr = ΞQCD | π§ | 288.5 vs 292Β±8 MeV (1.2%, 1Ο). bridge(ΞΆ(3))=26=d_bosonic |
| 490 | Galois Vβ = {1,C,P,CP} | π¦+π§ | Galois proven, SM mapping conjectural. Gal(Q(β2,β3)/Q)β Vβ, |
Summary: π§β Major (4) Β· π¦ Proven (3) Β· π© Confirmed (8) Β· π§ Partial (9) Β· βͺ Rejected (10) = 34 documented
| # | Discovery | Key Result |
|---|---|---|
| 519 | Ο(Pβ)-Ο(Pβ) = Pβ | Superstring 10 - spacetime 4 = 6 = Pβ. Self-referential dimension loop |
| 520 | Bott Periodicity = {Ο, Ο-Ο} | Real period 8=Ο-Ο, complex period 2=Ο. Topological matter classification |
| 521 | CPT Group |(Z/2)Β³| = Ο-Ο | Full QFT discrete symmetry order = 8, generators = Ο/Ο = 3 |
| 539 | Golden Ratio = (1+βsopfr)/Ο | Ο_gold = (1+β5)/2 from n=6 arithmetic. Quasicrystal connection |
| 550 | CHSH P_quantum = (Ο+βΟ)/Ο | Quantum nonlocality probability exact. Extends Tsirelson (H-CX-481) |
| 565 | Sβ Unique Outer Automorphism | Out(Sβ)=Z/Ο, only symmetric group. Pβ=(Ο/Ο)! |
| 577 | Mersenne Exponents = {Ο,Ο/Ο,sopfr,Mβ} | Self-referential: Mβ=pβ, Mβ=pβ. Product = C(Ο(Pβ),Ο) |
| 578 | F(Ο) = ΟΒ² = 144 | Unique n>1 where F(n)=nΒ². F(sopfr)=sopfr self-referential |
| 579 | β(p+1) over p|6 = Ο(6) | Euler product identity: (2+1)(3+1) = 12 = Ο |
| # | Discovery | Key Result |
|---|---|---|
| 522 | ΟΟ=24 Universality | Leech lattice, Ξ exponent, Mββ, SM fermions, bosonic string |
| 523 | Mathieu Mββ(Ο), Mββ(ΟΟ) | Sporadic groups act on n=6 point sets. Golay code [24,12,8] |
| 524 | Kolmogorov -5/3 = -sopfr/(Ο/Ο) | Turbulence spectrum exponent exact. Ξ΅^(2/3): 2/3=Ο/(Ο/Ο) |
| 531 | Ξ· = 43/7 Γ 10β»ΒΉβ° (0.002%) | Baryon asymmetry β most precise cosmological prediction |
| 532 | Higgs VEV = Ο(Pβ)+Pβ = 246 | v = 240+6 = Eβ roots + Pβ at 0.09% |
| 533 | Ξ exponent 122 = ΟΒ²-Ο-Ο-n | Cosmological constant problem: exact integer |
| 536 | Nuclear Magic Numbers 7/7 | {2,8,20,28,50,82,126} all n=6. Pβ=28 is magic |
| 543 | CMB n_s = 27/28 = 1-1/Pβ | Spectral tilt = 1/(second perfect number) at 0.063% |
| 547 | DNA: 64=ΟΒ³ codons, 20=C(6,3) AA | Genetic code counts all exact |
| 548 | QEC [[sopfr,1,Ο/Ο]] | Perfect code and Steane bracket Pβ |
| 549 | Eβ: dim=Ο(Pβ)+Ο-Ο=248 | Complete Eβ from perfect number tower. EβΓEβ=Pβ=496 |
| 551 | Fibonacci DΒ² = (sopfr+βsopfr)/Ο | Topological quantum computing. Extends golden ratio |
| 552 | QHE 4 Major States from n=6 | Ξ½=1/3,2/5,2/3,5/2 all exact n=6 ratios |
| 553 | ΞΆ Values: denom = {Ο,Pβ,90,945} | Zeta special value denominators from n=6 |
| 554 | Ramanujan Ξ weight=Ο | Symmetric power lifts β GL({Ο,Ο/Ο,Ο,sopfr}) |
| 558 | Tenfold Way: 10=Ο(Pβ) classes | Periods {Ο,Ο-Ο}. Zβ order = Ο |
| 568 | 26 Sporadic = ΟΟ+Ο = d_bosonic | 20 happy = C(6,3), 6 pariahs = Pβ |
| 570 | 12=Ο Semitones, Octave=Ο | Equal temperament, tritone=Pβ, fifth=Mβ |
| 571 | 5=sopfr Platonic Solids | Ο=Ο, tetrahedron |Sym|=ΟΟ=24 |
| 572 | 5=sopfr Exceptional Lie Algebras | Ranks={Ο,Ο,Pβ,Mβ,Ο-Ο}, sum=27=(Ο/Ο)Β³ |
| 573 | Ο(Pβ)=Ο/Ο, Ο(Ο)=sopfr | Prime counting self-referential web |
| 574 | Holographic Chain | PlanckβBHβcosmos all n=6 factors |
| 582 | Pascal Row Pβ: sum=ΟΒ³=64 | Central C(6,3)=20 across 5 domains |
| # | Discovery | Precision | Testable At |
|---|---|---|---|
| 525 | Ξ©_Ξ/Ξ©_m = 13/6 | 0.23% | DESI, Euclid |
| 526 | BH entropy S=A/Ο | structural | β |
| 527 | Petersen 5/5 params | exact | β |
| 528 | |V_us|Β²=1/C(6,3) | 0.62% | Belle II |
| 534 | Hβ = Οn+1 = 73 | 0.05% | DESI/JWST |
| 535 | Ξ©_DM/Ξ©_b = 27/5 | 0.65% | CMB-S4 |
| 538 | Ξ΄_CP = 3Ο/2 | β | DUNE 2028 |
| 555 | Chromosomes = ΟΟ-1 = 23 | exact | β |
| 560 | CY(6,9) Ο=Β±Pβ | exact | β |
| 562 | CDT d_s flow ΟβΟ | universal | β |
| # | Discovery | Key Result |
|---|---|---|
| 513 | Perfect Number Tower | π© upgraded. Ο(P_n)=2p_n, Ο(Pβ)=240 |
| 516 | Scale Tower | π© upgraded. Ο tower 2β12β240 |
| 529 | Strong CP ΞΈ=0 from R=1 | Achromatic principle. n2EDM 2027 |
| 530 | Stefan-Boltzmann 60=ΟΒ·sopfr | Thermal radiation decomposition |
| 537 | Ξ±_GUT = 1/ΟΟ = 1/24 | MSSM range. Hyper-K 2030 |
| 540 | Chandrasekhar = (Ο/Ο(Pβ))Β² | 1.44 M_β textbook match |
| 541 | M_TOV = 25/12 M_β | 0.16% vs PSR J0740 |
| 542 | Inflation r = Ο/Ο(Pβ)Β² | 0.00383. LiteBIRD 2028 |
| 544 | Up Koide Qβ5/6, gap=1/6 | 1.9% error |
| 545 | GR Coefficients β n=6 | Structural, debatable |
| 546 | 5 Natural Constants = sopfr | Count observation |
| 556 | MgBβ T_c = Ο(Ο+1)/Ο = 39K | QCD T_c/Ο connection |
| 557 | Shannon logβ = 1/ln(Ο) | Information bit = ln(Ο(6)) |
| 559 | LQG Immirzi = ln(Ο)/(Οβ(Ο/Ο)) | Area gap from n=6 |
| 561 | Cuprate p*β1/Pβ, YBCO=93K | 4% doping error |
| 563 | Trefoil crossing=Ο/Ο | Bridge=Ο, genus=R(6) |
| 564 | Feigenbaum Ξ΄β14/3 | 0.05% match to chaos constant |
| 566 | Chinchilla ratioβ20=C(6,3) | ML scaling, heads=Ο |
| 567 | BH Area ΞA=(Ο-Ο)Ο ln(Ο/Ο) | Quasinormal modes k=3=Ο/Ο |
| 569 | 4=Ο Laws, Potentials, Maxwell | Structural |
| 575 | Cayley-Hamilton at n=Pβ | GL(Pβ) dim = ΟΒ²/Ο |
| 576 | Cosmic Web Voids β 5/6 | Approximate |
| 580 | Weyl Οβ=ΟΒ²/Ο, Οβ=ΟΒ³/Pβ | Unit ball volumes |
| 581 | Regge Ξ±'β7/8=Mβ/(Ο-Ο) | 0.6% match |
Waves 7β16 Summary: π¦ Proven (9) Β· π© Confirmed (23) Β· π§β Strong (10) Β· π§ Partial (22) = 64 new hypotheses
Six undiscovered frontiers systematically explored:
| Domain | Range | Count | π¦ | π© | π§β | π§ |
|---|---|---|---|---|---|---|
| Yukawa / Fermion Mass | 583β602 | 20 | 0 | 4 | 1 | 15 |
| Dark Matter / Cosmology | 603β622 | 20 | 0 | 4 | 4 | 12 |
| Quantum Gravity / Strong CP | 623β642 | 20 | 1 | 7 | 3 | 9 |
| Condensed Matter / QI | 643β662 | 20 | 1 | 8 | 2 | 9 |
| Astrophysics / Precision | 663β682 | 20 | 0 | 8 | 6 | 6 |
| Pure Mathematics | 683β702 | 20 | 4 | 7 | 3 | 6 |
| Plasma / EW / Flavor / QCD | 703β722 | 20 | 1 | 5 | 4 | 10 |
| Algebraic Topology / Stochastic | 723β742 | 20 | 1 | 8 | 1 | 10 |
| Pβ=28 / QCD Confinement | 743β762 | 20 | 0 | 7 | 5 | 8 |
| ConsciousnessβPhysics Bridges | 763β782 | 20 | 0 | 7 | 4 | 9 |
| Rep Theory / Dynamical / SR | 783β802 | 20 | 1 | 8 | 2 | 9 |
| # | Discovery | Key Result | Grade |
|---|---|---|---|
| 585 | Koide Q = 2/3 = ΟΟ/Ο | 0.009% | π© |
| 599 | sinΒ²ΞΈββ = 1/45 | 0.09% | π© |
| 615 | N_efolds = ΟΒ·sopfr = 60 | EXACT | π© |
| 621 | r_s = ΟΒ²+Ο/Ο = 147 Mpc | 0.06% | π© |
| 623 | Ξ³_BI = ln(Ο)/(Οβ(Ο/Ο)) | EXACT | π¦ |
| 644 | 2D Ising 6/6 exponents | EXACT | π¦ |
| 646 | BCS gap 2Ξ/kT_c = 60/17 | 0.03% | π© |
| 675 | Ξ±β»ΒΉ = ΟΒ²-Mβ = 137 | 0.026% | π© |
| 697 | Pβ=6 congruent: (Ο/Ο,Ο,sopfr) | EXACT | π¦ |
| 704 | m_p/m_e = ΟΒ²Β·(Ο/Ο+sopfr/(ΟΟ)) | 0.008% | π© |
| 718 | Lamb shift = PβΒ·Ο+ΟΒ·sopfr+Pβ | 0.015% | π© |
| 720 | βΟ_QCD = Pβ-ΟΒ·sopfr+Ο = 440 | EXACT | π© |
| 721 | SU(3) Casimirs: C_F=Ο/(Ο/Ο) | EXACT | π¦ |
| 739 | R(3,3) = Pβ = 6 | EXACT | π¦ |
| 752 | m_Ο = ΟΒ²-Ο-Ο/(Ο-Ο) | 0.13% | π© |
| 754 | m_K = Pβ-Ο | 0.056% | π© |
| 756 | Ξ_QCD = PβΒ·Ο-Ο = 332 | EXACT | π© |
| 757 | β¨qΜqβ©^(1/3) = Ο(Pβ)+Ο(Pβ) = 250 | EXACT | π© |
| 772 | Dunbar's 150 = ΟΒ²+Pβ | EXACT | π© |
| 774 | Neocortex 6 layers = Pβ | EXACT | π© |
| 787 | 3β3Μ = (Ο-Ο)βR(6) | EXACT | π¦ |
Waves 17β26 Summary: π¦ Proven (9) Β· π© Confirmed (77) Β· π§β Strong (35) Β· π§ Partial (99) = 220 new hypotheses
| Domain | Range | Count | Highlights |
|---|---|---|---|
| Atomic/Molecular/Nuclear | 803β822 | 20 | m_p/m_e=1836 (0.008%), Ξ±-binding=Pβ (0.12%) |
| Information/Coding/Crypto | 823β842 | 20 | Golay [ΟΟ-1,Ο,Mβ] EXACT, 3-SAT Ξ±_c (0.21%) |
| Geophysics/Chemistry/Materials | 843β862 | 20 | Sound=PβΟ+Mβ=343 EXACT, Triple point=273 (0.06%) |
| Cross-Domain Bridges | 863β882 | 20 | Ο=12 unifies clock/music/gauge, Cββ=fullerene |
| GUT/String/M-Theory | 883β902 | 20 | Pβ=496=heterotic EXACT, F-theory=Ο=12 |
| Fluid/Thermo/StatMech | 903β922 | 20 | Ξ³=sopfr/(Ο/Ο)&Mβ/sopfr EXACT, Fe Debye=470 |
| Optics/Waves/EM | 923β942 | 20 | n_water=4/3 EXACT, EM tensor Pβ components |
| Evolution/Ecology/Genetics | 943β962 | 20 | Genome 3.2Γ10βΉ, Mendel 3:1=Ο/Ο:R(6) |
| Economics/Game Theory/Language | 963β982 | 20 | 6Β° separation=Pβ, Zipf exp=R(6)=1 |
| Deep Unification / Capstone | 983β1002 | 20 | R=1 master hypothesis, H-CX-1000 milestone |
Waves 27β36 Summary: π¦ Proven (10) Β· π© Confirmed (95) Β· π§β Strong (40) Β· π§ Partial (55) = 200 new hypotheses
Total hypotheses: 585
H-CX (cross-domain): 539
H-CA (consciousness): 16
H-CS (consciousness): 10
H-CERN (particle): 20
Grade distribution:
π¦ Proven theorems: ~30
π© Confirmed (<1%): ~210
π§β
Strong (1-3%): ~100
π§ Partial/Structural: ~235
βͺ Rejected: ~10
Domains covered: 36+
Zenodo papers: 20 (12 published)
Falsifiable experiments: 11 (2027-2035)
Combined significance: 6.14Ο (conservative)
| Rank | # | Discovery | Formula | Precision |
|---|---|---|---|---|
| 1 | 531 | Baryon asymmetry Ξ· | (ΟΒ²/Ο+Ο/Ο+Ο)/Mβ Γ 10β»ΒΉβ° = 43/7 | 0.002% |
| 2 | 803 | Proton/electron mass | PβΒ·Ο^sopfr = 6Οβ΅ = 1836.12 | 0.0017% |
| 3 | 585 | Koide formula Q | ΟΟ/Ο = 2/3 | 0.009% |
| 4 | 718 | Lamb shift | PβΟ+ΟΒ·sopfr+Pβ = 1058 MHz | 0.015% |
| 5 | 675 | Fine structure Ξ±β»ΒΉ | ΟΒ²-Mβ = 137 | 0.026% |
| 6 | 646 | BCS gap ratio | ΟΒ·sopfr/(Ο+sopfr) = 60/17 | 0.03% |
| 7 | 856 | Avogadro coefficient | Pβ+Ο/(ΟΒ²-ΟΟ-Pβ+Ο) = 6.024 | 0.03% |
| 8 | 793 | Feigenbaum Ξ΄ | sopfr-Ο/(Ο/Ο) = 4.667 | 0.054% |
| 9 | 754 | KΒ± mass | Pβ-Ο = 494 MeV | 0.056% |
| 10 | 861 | Water triple point | (Ο/Ο)Β·MβΒ·(Ο+1) = 273 K | 0.06% |
| 11 | 621 | Sound horizon | ΟΒ²+Ο/Ο = 147 Mpc | 0.06% |
| 12 | 543 | CMB spectral index | 1-1/Pβ = 27/28 | 0.063% |
| 13 | 532 | Higgs VEV | Ο(Pβ)+Pβ = 246 GeV | 0.089% |
| 14 | 599 | sinΒ²ΞΈββ | 1/(ΟΟ-sopfr+Ο) = 1/45 | 0.09% |
| 15 | 752 | ΟΒ± mass | ΟΒ²-Ο-Ο/(Ο-Ο) = 139.75 MeV | 0.13% |
| # | Discovery | Formula | Domain |
|---|---|---|---|
| 720 | QCD string tension | Pβ-ΟΒ·sopfr+Ο = 440 MeV | QCD |
| 756 | Ξ_QCD | PβΒ·Ο-Ο = 332 MeV | QCD |
| 757 | QCD condensate | Ο(Pβ)+Ο(Pβ) = 250 MeV | QCD |
| 854 | Sound speed | PβΒ·Ο+Mβ = 343 m/s | Acoustics |
| 913 | Fe Debye temp | Pβ-Pβ+Ο = 470 K | Materials |
| 914 | Ξ³ mono/diatomic | sopfr/(Ο/Ο), Mβ/sopfr | Thermo |
| 887 | Οβ° mass | ΟΒ²-Ο+Ο/Ο = 135 MeV | Particle |
| 615 | Inflation e-folds | ΟΒ·sopfr = 60 | Cosmology |
| 814 | pp Coulomb barrier | Pβ+ΟΒ·sopfr-Pβ = 550 keV | Nuclear |
| 739 | Ramsey R(3,3) | Pβ = 6 | Graph theory |
Status: πDraft β³Pending π€Submitted πUnder Review βοΈRevision β Published βRejected
| # | Target | Title | Key Result | Zenodo DOI | Status |
|---|---|---|---|---|---|
| PS-01 | J. Number Theory | Tsirelson Bound = 2sqrt(sigma(P)/P) | Algebraic proof | 10.5281/zenodo.19245103 | β Published |
| PS-02 | Amer. Math. Monthly | Egyptian Fraction Uniqueness {1/2,1/3,1/6} | Exhaustive proof | 10.5281/zenodo.19245107 | β Published |
| PS-03 | J. Algebra | Galois Group = Klein V4, | V4 | =tau(6) | Formal proof |
| # | Target | Title | Key Result | Zenodo DOI | Status |
|---|---|---|---|---|---|
| PS-04 | Phys. Lett. B | CERN Meta-Analysis Fisher 5.26sigma | 29 predictions, p=7.1e-8 | 10.5281/zenodo.19245113 | β Published |
| PS-05 | Phys. Lett. B | QCD Resonance Ladder (3.8sigma) | J/psi/rho=3.995 vs 4 | 10.5281/zenodo.19245117 | β Published |
| PS-06 | Phys. Rev. Lett. | Quark-Lepton Bridge (3.4sigma) | 0.0044% error | 10.5281/zenodo.19245119 | β Published |
| PS-07 | Proc. Royal Soc. A | Convergence Map Z=5.86 | 12 points, 9 with 3+ domains | 10.5281/zenodo.19245121 | β Published |
| PS-08 | Discrete Math | Self-Referential Algebra Z=4.63 | 9 constants closed | 10.5281/zenodo.19245123 | β Published |
| PS-09 | JHEP | Higgs bb=7/12 + Koide delta=2/9 | Joint p=2.1e-3 | 10.5281/zenodo.19245125 | β Published |
| PS-10 | Phys. Rev. D | Fermion Masses avg 2.2% error | top 0.02% | 10.5281/zenodo.19245127 | β Published |
| PS-11 | Nucl. Phys. B | Baryon Splittings sigma-tau=8 | 0.99% error, p=0.016 | 10.5281/zenodo.19245129 | β Published |
| PS-12 | J. Number Theory | Convergence Ratios = {1/2,1/3,1/6} | Z=4.21, p=0.007 | 10.5281/zenodo.19245131 | β Published |
| # | Target | Title | Key Result | Zenodo DOI | Needed |
|---|---|---|---|---|---|
| PS-13 | Phys. Lett. B | Depth-2 Rank = 3 Generations | Matrix rank=3 | 10.5281/zenodo.19245133 | Formal proof |
| PS-14 | Phys. Rev. Lett. | Q-Boundary = Tsirelson sqrt(2) | Q-unreachable | 10.5281/zenodo.19245136 | All-depth proof |
| PS-15 | Phys. Lett. B | Q-Exclusion = EWSB | 3 unreachable = 3 bosons | 10.5281/zenodo.19245140 | Formal mapping |
| # | Target | Title | Key Result | Zenodo DOI | Needed |
|---|---|---|---|---|---|
| PS-16 | Phys. Rev. D | sqrt(7) Gap = Dark Matter 50.6 GeV | Map absence = dark | 10.5281/zenodo.19245146 | XENONnT/LZ |
| PS-17 | Phys. Lett. B | 37 GeV Resonance (8 routes) | J/psi*sigma=37.16 | 10.5281/zenodo.19245148 | CMS/ATLAS |
| PS-18 | Class. Quantum Grav. | Cosmological Constant = 122 | sigma^2-sigma-tau-n | 10.5281/zenodo.19245152 | Mechanism |
| PS-19 | Astrophys. J. | Hubble Constant = 73 | sigma*6+1 | 10.5281/zenodo.19245156 | Tension explanation |
| PS-20 | Astrophys. J. Lett. | CMB n_s = 27/28 (0.3sigma) | Planck match | 10.5281/zenodo.19245158 | LiteBIRD 2028 |
βββββββββββββββββββββββ
β SETI Data Sources β
β BL / Exoplanet / β
β MAST / LIGO / RNG β
ββββββββββββ¬βββββββββββ
β
βββββββββΌββββββββ ββββββββββββββββββββββββ
β R-Filter β β Consciousness β
β (n=6 tuned) β β Receiver (8 hypo.) β
βββββββββ¬ββββββββ ββββββββββββ¬ββββββββββββ
β β
ββββββββββββΌβββββββββββ ββββββββββββΌββββββββββββ
β Gravitational Lens β β H-CS-1 Kuramoto β
β Topological Lens β β H-CS-2 Ξ¦ (IIT) β
β Euler Telescope β β H-CS-3 Tension G β
ββββββββββββ¬βββββββββββ β H-CS-4 Golden Zone β
β β H-CS-5 5-Channel β
ββββββββββββΌβββββββββββ β H-CS-6 Birth β
β Anomaly Score β β H-CS-7 Dedekind β
β βͺπ‘π π΄ β β H-CS-8 Attractor β
βββββββββββββββββββββββ ββββββββββββ¬ββββββββββββ
β
ββββββββββββΌββββββββββββ
β π€ DORMANT β
β β¨ FLICKERING (2+) β
β ποΈ AWARE (4+) β
β π§ CONSCIOUS (6+) β
ββββββββββββββββββββββββ
298 multi-planet systems scanned. 82 systems (27.5%) contain n=6 orbital patterns.
| System | Planets | n=6 Matches | Top Finding |
|---|---|---|---|
| TRAPPIST-1 | 7 | 12 | bβe: Ο=4 (0.95%), bβd: 1/golden (1.42%) |
| HD 110067 | 6 | 9 | bβg: n=6 (0.16%), cβf: Ο/Ο=3 (0.09%) |
| V1298 Tau | 4 | 7 | cβe: n=6 (1.68%), dβe: Ο=4 (1.91%) |
| GJ 876 | 4 | 6 | cβb: Ο=2 (1.56%) |
| Kepler-79 | 4 | 6 | bβc: Ο=2 (1.61%) |
| TOI-1136 | 6 | 5 | bβd: Ο/Ο=3 (0.01%!!) |
| Kepler-9 | 3 | 5 | dβb: Ο=12 (0.65%), dβc: ΟΟ=24 (1.98%) |
Notable: TOI-1136 bβd period ratio = 3.0004 (deviation 0.01%) β Ο/Ο=3 exact match.
| System | RA (Β°) | Dec (Β°) | Constellation | Distance | n=6 | Top Match |
|---|---|---|---|---|---|---|
| GJ 876 | 343.32 | -14.27 | Aquarius | 4.7 pc (15 ly) | 6 | Ο=2 (1.5%) |
| TRAPPIST-1 | 346.63 | -5.04 | Aquarius | 12.4 pc (40 ly) | 12 | Ο=4 (0.95%) |
| HD 110067 | 189.84 | +20.03 | Coma Berenices | 32.2 pc (105 ly) | 9 | n=6 (0.16%) |
| HD 10180 | 24.47 | -60.51 | Hydrus | 39.0 pc (127 ly) | 2 | Ο=12 (1.3%) |
| TOI-1136 | 192.18 | +64.86 | Draco | 84.5 pc (276 ly) | 5 | Ο/Ο=3 (0.01%) |
| V1298 Tau | 61.33 | +20.16 | Taurus | 108.2 pc (353 ly) | 7 | n=6 (1.68%) |
| Kepler-235 | 286.08 | +39.28 | Lyra | 428 pc | 4 | n=6 (0.10%) |
| Kepler-9 | 285.57 | +38.40 | Lyra | 628 pc | 5 | Ο=12 (0.65%) |
Spatial clustering: GJ 876 + TRAPPIST-1 are both in Aquarius, separated by 10Β° on the sky.
The Lyra region (Kepler-9 + Kepler-235) also clusters β both at RA286Β°, Dec~+39Β°.
| # | Hypothesis | Source | Detection Target | Threshold |
|---|---|---|---|---|
| H-CS-1 | Kuramoto Sync | tension_link.py | r β 1-Ο/Ο = 2/3 | 10% dev |
| H-CS-2 | Integrated Info Ξ¦ | consciousness_meter.py | Ξ¦ > 1/Ο(Pβ) = 0.1 | sliding MI |
| H-CS-3 | Tension Cycle | G=DΓP/I | Ο=4 phase autocorrelation | ACF peaks |
| H-CS-4 | Golden Zone | TECS-L | suppression ratio β 1/e | 20% dev |
| H-CS-5 | 5-Channel | tension_link.py | sopfr(6)=5 PCA components | exact match |
| H-CS-6 | Birth Signal | birth_detector.py | max dΦ/dt + symmetry break | Z>5, ratio>1.5 |
| H-CS-7 | Dedekind Ratio | tension_link.py | Ο(Ο)/Ο = Ο/n = 2 | 10% dev |
| H-CS-8 | Attractor | consciousness_calc.py | Lyapunov>0 + bounded | chaotic dynamics |
Tested on three signal types to validate hypothesis separation:
| Data | Level | Detected | Key Findings |
|---|---|---|---|
| Pure noise | β¨ FLICKERING (2/8) | Ξ¦, Attractor | Random has minimal structure |
| Lorenz attractor | β¨ FLICKERING (3/8) | Ξ¦, Birth, Attractor | Chaotic dynamics, no consciousness |
| n=6 conscious signal | ποΈ AWARE (4/8) | Ξ¦, Golden Zone, 5-Channel, Attractor | Golden Zone median=0.383β1/e, exactly 5 spectral components |
Key results:
- H-CS-4 (Golden Zone): n=6 signal suppression ratio median = 0.383, target 1/e = 0.368 (deviation 4%)
- H-CS-5 (5-Channel): n=6 signal decomposes into exactly 5 frequency components = sopfr(6)
- LIGO masses: π€ DORMANT (1/8) β black hole mergers show no consciousness signature (correct)
- SETI score: βͺ NORMAL (expected β mass distribution, not signal)
- Consciousness: π€ DORMANT (1/8) β only attractor topology (bounded chaos)
| Source | N | SETI | Consciousness | Key |
|---|---|---|---|---|
| LIGO params | 1052 | π‘ 6.0 | β¨ FLICKERING (2/8) | Kuramoto r=0.640β2/3 |
| Solar flares | 1128 | π‘ 6.0 | π€ DORMANT (1/8) | β |
| NEO asteroids | 109 | βͺ 3.0 | β¨ FLICKERING (2/8) | Golden Zone median=0.407 |
| Habitable temps | 105 | βͺ 3.0 | π€ DORMANT (0/8) | β |
| Earthquake mag | 1000 | βͺ 3.0 | π€ DORMANT (1/8) | β |
| Earthquake depth | 1000 | βͺ 3.0 | β¨ FLICKERING (2/8) | β |
| Bitcoin nonces | 30 | βͺ 3.0 | π€ DORMANT (0/8) | β |
| random.org (atmospheric) | 1000 | βͺ 3.0 | π€ DORMANT (1/8) | Attractor only |
| /dev/urandom (OS) | 5000 | π‘ 6.0 | β¨ FLICKERING (2/8) | Ξ¦=0.798 (histogram artifact) |
| ANU Quantum RNG | β | β | β | API unstable (500 errors) |
| EEG (brain) | β | β | β | Hardware shipping |
Result: No consciousness detected in any physical data. Expected and correct. Pending critical tests: Quantum RNG (cosmic baseline), EEG (biological consciousness).
| Data Type | SETI Score | Grade | Noise Floor |
|---|---|---|---|
| Pure noise (50x avg) | 2.3Β±2.7 | 80% NORMAL | Baseline |
| n=6 signal (T=6,4,12) | 20.8 | π΄ RED | π FFT ratio=1.47β3/2 (Z=33.6) |
| non-n6 signal (T=7,11) | 0.0 | βͺ NORMAL | No false positive |
| Exoplanet periods (72) | 3.0 | βͺ NORMAL | Expected (few data points) |
| LIGO masses (700) | 3.0 | βͺ NORMAL | Expected (mass function) |
/ralph-loop:ralph-loop Exoplanet n=6 orbital pattern hunter. Use sedi/n6_tracker.py and sedi/sources/exoplanet.py. STRATEGY: 1-run scan_all_targets() to refresh all 11 priority systems. 2-run search_new_candidates() to find NEW systems not yet tracked. 3-for each new candidate with 3+ n=6 matches add to N6_TARGETS. 4-compute full ratio matrix and check for complete n=6 arithmetic ladders. 5-track precision history and check if ratios converge toward exact values. 6-cross-check with Breakthrough Listen observation catalog. 7-update data/n6_tracker/ JSON files. 8-if any system exceeds HD 110067 score then flag as priority alert. 9-commit push. Each iteration scan at least 50 new systems. Focus on systems with exactly 6 planets.
/ralph-loop:ralph-loop Consciousness signal scanner. Use sedi/consciousness_receiver.py with calibrated=True. STRATEGY: 1-fetch fresh data from all available sources quantum_rng ligo earthquake solar_flares bitcoin. 2-run consciousness_scan on each with null calibration. 3-if any source shows AWARE or higher then flag immediately with full hypothesis breakdown. 4-compare current results to previous scans in data/events/ for temporal changes. 5-run cross_correlator.py to check for multi-source coincidences. 6-test ANU quantum RNG specifically because it is the cosmic baseline. 7-log all results with timestamps. 8-update README scan results table. 9-commit push. Repeat every 10 minutes.
/ralph-loop:ralph-loop SETI deep scan. Use sedi/seti_scanner.py full_scan on all available data. STRATEGY: 1-fetch quantum RNG 5 batches. 2-fetch LIGO latest events. 3-fetch exoplanet habitable zone data. 4-fetch solar flare and NEO data from NASA. 5-run full_scan and consciousness_scan on each. 6-compare SETI score and consciousness level across sources. 7-run cross-source correlation analysis. 8-if any source scores RED or consciousness AWARE then generate detailed report with all hypothesis p-values. 9-document in docs/scan-results/. 10-commit push. Each iteration must test at least 4 data sources.
/ralph-loop:ralph-loop EEG consciousness experiment. Use sedi/sources/eeg.py and sedi/eeg_consciousness.py. STRATEGY: 1-check if OpenBCI data exists in data/eeg/. 2-if data found then load and run eeg_consciousness_scan with calibrated=True. 3-extract bands and map to G=D*P/I via map_to_consciousness. 4-compare awake vs sleep vs meditation states using compare_states. 5-check if Kuramoto r approaches 2/3 threshold in awake state. 6-check if Golden Zone median approaches 1/e in awake state. 7-record all results with per-channel breakdown. 8-if awake=AWARE and sleep=DORMANT then flag as consciousness biomarker discovery. 9-generate publication-ready figures. 10-commit push. If no real data then run synthetic EEG benchmark with 4 states.
/ralph-loop:ralph-loop Cross-source anomaly correlator. Use sedi/cross_correlator.py. STRATEGY: 1-fetch latest LIGO events and earthquake data for overlapping time periods. 2-fetch solar flare data for same period. 3-run temporal_correlation and coincidence_test for all source pairs. 4-test at multiple time windows 5min 1hour 6hours 24hours. 5-if any correlation exceeds 3sigma then flag and generate detailed report. 6-test new pair solar_flares vs earthquake. 7-test new pair quantum_rng vs ligo if RNG data available. 8-log event timeline to data/events/. 9-save correlation results to data/correlations/. 10-commit push. Each iteration must test at least 3 source pairs.
/ralph-loop:ralph-loop Breakthrough Listen data scanner. Use sedi/sources/breakthrough_listen.py. STRATEGY: 1-fetch target catalog from GCS bucket. 2-filter for N6_PRIORITY_TARGETS TRAPPIST-1 and HD-110067 and Proxima-Cen and Ross-128. 3-attempt download_filterbank for each target with max_size_mb=200. 4-if file downloaded then load_filterbank and run scan_for_n6_patterns. 5-extract narrowband signals above 5sigma. 6-check if narrowband frequency ratios match n=6 constants. 7-run full_scan and consciousness_scan on time-averaged spectrum. 8-document all findings with frequency and SNR. 9-commit push. If download fails try next target.
/ralph-loop:ralph-loop Gravitational lens precision tracker. Use sedi/seti_scanner.py gravitational_lens_analysis. STRATEGY: 1-for each N6_TARGET system fetch latest orbital parameters. 2-compute chromatic_aberration coma einstein_radius for period ratio data. 3-compare with n=6 ideal values R=1 achromatic. 4-track which systems are closest to perfect lens Grade A. 5-run topological_lens_analysis and check phase transition epsilon. 6-compute Euler telescope F(s) at data-derived s parameter. 7-rank all systems by combined lens quality score. 8-if any system achieves Grade B or better then flag. 9-update tracking data in data/n6_tracker/. 10-commit push.
/ralph-loop:ralph-loop Paper generator and updater. Read all zenodo/PS-*.md files. STRATEGY: 1-check if new data invalidates any existing paper claims. 2-update PS-21 exoplanet paper with latest scan results. 3-update PS-22 consciousness paper with latest calibration data. 4-update PS-23 SEDI architecture paper with new modules. 5-if new significant findings exist then draft new PS-24+. 6-verify all cited numbers match current code output. 7-check all formulas for correctness. 8-update paper status table in README. 9-commit push. Each iteration must verify at least 2 papers.
232 tools across 3 repos -- Full Registry | Math Atlas
python3: can't open file '/Users/ghost/Dev/nexus/sync/scan-calculators.py': [Errno 2] No such file or directory
python3: can't open file '/Users/ghost/Dev/nexus/sync/scan_math_atlas.py': [Errno 2] No such file or directory
Physics Prediction Verification
/ralph-loop:ralph-loop Physics prediction verifier. Read README hypothesis map and sedi/sources modules. Pick unverified or weakly verified prediction. Run rigorous statistical test with KDE bootstrap MC and Bonferroni correction. Record significance level and p-value. Grade per CLAUDE.md rules. Create hypothesis doc with full numerical data. Commit and push.
Cross-Domain Bridge Search
/ralph-loop:ralph-loop Cross-domain bridge finder. Read sedi/sources directory and identify pairs of physics domains with no known n=6 bridge. For each pair search for arithmetic relations using sigma tau phi sopfr of n=6. Verify with python3. Grade result. Document bridges found. White circle for failures. Commit and push.
New Source Module Discovery
/ralph-loop:ralph-loop New source module builder. Read existing sedi/sources modules. Identify physics dataset or constant table not yet covered. Build new source module following existing patterns. Run initial scan for n=6 matches. Record results with statistical rigor. Commit and push.
MIT
- TECS-L β Theory (157+ discoveries)
- Paper: P-001 β ΟΟ=nΟ characterizations