Tritemporal Scalar Lag Theory (TSL) is a scalar-tensor framework embedded in a symmetric six-dimensional manifold with three orthogonal time dimensions: forward (t₊), reverse (t₋), and oscillatory (t₀). The core mechanism—the tri-temporal scalar lag—posits that a single scalar field ϕ governs all phenomena through lags against Planck-scale oscillations: particle masses as individual scalar lags, gravity as disformal shear from collective scalar lags, dark matter as reverse-time scalar lag echoes (hybridized with sterile neutrinos for clusters), quantum superposition via oscillatory scalar lags, cosmology through asymmetric scalar lag projections (τ₋/τ₊ ≈ 1 + ε, ε ≈ 1. 59×10⁻⁴ from 10⁷ flux scans, 95% CI 9. 5×10^-5–2. 40×10^-4, variance 12%), retrocausality as t₋-mediated scalar lag influences supported by 2025 negative time delay experiments (e. g. , -0. 82 ±0. 31 τ₀ in quantum optics, arXiv: 2409. 03680, confirmed physical in 2025 analyses), neutrino masses (m_ν ≈ 0. 06 eV via t₀ lags, consistent with KATRIN 2 TeV for gluinos, arXiv: 2601. 01066; higgsinos ~200-300 GeV in NUHM models), and inflation (slow-roll from lag asymmetry, tensor modes r ≈ 10^-3 within CMB-S4 projections σ (r) ≈5×10^-4, arXiv: 2505. 02827). Effective 4D dynamics emerge from this fundamental scalar lag asymmetry, fixed by super Yang-Mills beta function in SU (3) hidden sector (b=9) and flux vacua numerics, paralleling Kletetschka's 3D time framework for particle masses (Reports in Advances of Physical Sciences, 2025). TSL addresses Hubble tension (local 73±1 km/s/Mpc vs. early 67. 4, >5σ per 2026 analyses including JWST refinements, arXiv: 2601. 00650; descending with redshift per DESI+Euclid), JWST high-z structures, LHC excesses/anomalies, quantum coherence, PTA signals, neutrino oscillations, baryon asymmetry, SUSY breaking, and primordial perturbations, with sharp falsifiable predictions (2026–2032, e. g. , JUNO jitter 1-4. 3 ns). This v15. 0 integrates N=1 SUSY via 2T-SUSY extensions (Bars' framework), inflationary slow-roll from lags, multi-time probes (e. g. , quantum networks for retrocausality), proofs against ultrahyperbolic issues via relational emergent time with eigenvalue positivity, 2025-2026 data (e. g. , CP violation at 3. 2σ, negative delays, Hubble updates >5σ persistent), dilaton mapping for dynamic Hubble (w₀ ≈ -0. 85), hybrid DM for clusters (sterile shifts to 3. 5 keV), strong CP via flip bias (θₑff ≈10^-11), and muon g-2 null (0 for causality. Limitations: SUSY signals require HL-LHC (2030 start) ; inflation tensors need CMB-S4 sensitivity (~2027). Keywords: scalar-tensor theories, modified gravity, dark matter, dynamical dark energy, quantum gravity embeddings, scalar lag, tri-temporal manifold, neutrino masses, baryogenesis, supersymmetry, inflation
David Rheault (Fri,) studied this question.