The Theory of Persistence

Synthesis · dashboard

Results dashboard

One card per result. One door to verification.

This page lists all main results of the PT programme, organised in six families: foundational mathematics, Standard Model physics, relativity-cosmology, chemistry, application domains (biology, geophysics, colour), and meta (predictions, confirmations, audit). Each card states its epistemic status and links to the corresponding monograph chapter and to the website verification page.

6 families ~22 cards monograph chapters + verification pages

Reading : each result carries an explicit status (proved, derived, validated, predicted, conditional). The dashboard does not hide the statuses: it makes them readable at a glance via colour-coded badge.

The hard core

GFT and the T0–T6 / L0 chain form the mathematical backbone. Without it, physical and chemical results lose their PT-derivation status.

The robust showcase

The atomic chemistry + 43 Standard Model observables pair gives the best first contact: measurable numerical MAE, no fitted parameter, direct comparison to PDG.

The open edges

Late cosmology, RH programme, geophysics and applications keep contrasted statuses. The dashboard distinguishes on each card what is proved, derived, validated, or predicted.

Foundational mathematics

The theoretical floor: T0–T6 + L0 + GFT chain, the catalogue of PT_MATH computational tools, and the open leads around the Riemann hypothesis.

Foundational physics

The Standard Model observables reproduced from s = 1/2, with no fitted continuous parameter, and their validation at collider level.

Relativity, gravity and cosmology

From the sieve's Fisher metric to Lorentzian signature, Hubble expansion and the dark sector.

Chemistry

From the periodic table to molecular bond energies, via ionisations and electron affinities. All derived from the sieve.

chemistry derived

Periodic table

Shell-size sequence 2, 8, 8, 18, 18, 32, 32 reconstructed from the sieve. s/p/d/f blocks as consequences of primary channels.

source: ch22
chemistry validated

Ionisation energies

Z=1..86 by canonical PTC engine, Z=1..103 by perturbative scheme, Z=104..118 vs FSCC/CCSDT. Peaks, closures, structural residues visible.

103/103 below 0.3 %
source: ch22
chemistry validated

Electron affinities

Edge capture, vacancy, halogen/metal cases. All main elements below 10 %.

below 10 %
source: ch22
chemistry derived

Molecular chemistry

Dissociation energies D₀ (~849 mol), geometry 0.5 % (12 mol), Marcus-PT kinetics 2.1 % (17 reactions), ω_e frequencies Spearman 1.000.

D₀: low MAE on 849 mol
source: ch22b
chemistry validated

Benchmark vs experiment (1000 mol)

Atomization energies D_at on 1,644 molecules: 994 ATcT/NIST/JANAF (MAE 0.73 eV, 3.22 % relative, sub-percent on organics) + 650 new from the Burcat Third Millennium DB (MAE 6.55 %, median 4.83 % — covers combustion, explosives, dioxins, terpenes, nucleobases). 0 fails, 0 fitting variables. 546 molecules cross-validated against CCCBDB + Burcat at less than 2 % drift.

1000 mol · 12.4 % within 1 kcal/mol
chemistry validated

Benchmark vs B3LYP/6-31G* (855 mol)

Paired comparison on the 855 mol where B3LYP converges. PTC beats B3LYP with MAE 0.60 eV vs 0.93 eV (−35 % gain), win rate 70.8 %. PTC unbiased, B3LYP biased negative.

−35 % MAE · 70.8 % win
chemistry validated

3-way benchmark vs def2-TZVP (536 mol)

Test on the "modern" DFT basis. PTC remains best everywhere. def2-TZVP regresses behind 6-31G* on the 9-12 atom bin — structural defect of B3LYP, not curable by better basis.

PTC 65.9 % win

Application domains

Beyond the Standard Model and chemistry: applications of the PT cascade to biology, seismic geophysics, and colour perception.

Meta — falsifiability and audit

How PT is testable, verifiable, and confronted with independent external results.

Dashboard updated at each new derivation. Primary source: the PT monograph (chapters ch01–ch37). For detailed epistemic statuses, see Result statuses.