Temporal Sciences Wiki
The Temporal Sciences Wiki serves as the open-access hub for the work, documents, and research projects associated with the Temporal Sciences Foundation (TSF):
🔗 https://temporalsciencesfoundation.org/
This site consolidates publicly available descriptions, frameworks, and references related to Temporal Sciences — a time-centric approach to understanding physical and biological systems.
Research Projects
➤ Temporal Sciences Model (TSM)
Associated with Temporal Sciences Foundation
Build a cosmological framework that replaces the gravitational constant 𝐺 and the “dark sector” with a single, time-driven field theory. The TS Model treats the rate of timeflow (Chronorate ⧖) as the master variable from which gravity, fundamental forces, and current constants dynamically emerge.
Key milestones to date:
- Derived the Foundational Function of the Universe and a rotational 4-field geometry (Time, Mass, Energy, Distance)
- Recast gravity as Chronotensity ⋔, resolving the Hubble tension without dark energy
- Defined variable μ₀(t), ε₀(t), and α(t)
- Introduced the TS Lifeflow Law linking biology to cosmology
- Advanced theoretical readiness; alpha-simulation and experimental fit pipeline under development
Outcome: Open-source, testable model that unifies physics across scales.
➤ Temporal Mechanics
Associated with Temporal Sciences Foundation
Temporal Mechanics is an emerging branch of Temporal Sciences focused on the mechanics of temporal continuity, motion, measurement, energy exchange, causal structure, and physical frames. It is being developed as the formal mechanics layer beneath broader TS applications, including Temporal Cosmology, Temporal Electrodynamics, and Temporal Biology.
Status: Foundational branch under development. Public materials are planned after further internal consolidation.
➤ Temporal Sciences Nexus
Associated with Temporal Sciences Foundation
Created and steward the Temporal Sciences Nexus (“The Nexus”), an open-access, continuously-evolving knowledge base that captures every concept, proof, and mathematical formulation underpinning the Temporal Sciences framework.
- Living repository – The Nexus functions as a version-tracked “source-of-truth” document, updated in real time as new equations, glossary entries, and geometric models emerge.
- Comprehensive scope – Houses the full catalogue of TS laws (e.g., Chronorate ⧖, Chronotensity ⋔, fine-structure constant α as a base angular quantum), rotational-field geometry, and biological scaling insights.
- Open by design – Published freely online to encourage peer review and cross-disciplinary innovation.
- Structured for clarity – Integrates narrative explanations with formal math, figures, and a glossary, making concepts accessible to both researchers and curious learners.
- Future-focused – Serves as the launchpad for publications and community projects that translate Temporal Sciences from theory to applied science.
Outcome: By centralizing and openly sharing the entire Temporal Sciences canon, the Nexus accelerates discovery and positions time-centric geometry as a new foundation for physics, cosmology, and beyond.
“Insight alone is never enough—someone must make the equations touch the world.” — Mileva Marić (inspiration)
Access the Nexus (Zenodo DOI): 🔗 https://doi.org/10.5281/zenodo.14791387
➤ Universal Chrono-Arc Geometry (CAG)
Associated with Temporal Sciences Foundation
Project aims to develop an ultra-compact curvature model that reframes gravity, cosmic expansion, and quantum mass scales through a single time-centric loop. CAG proposes to replace the tensor heavy-lifting of GR with one phase-based scaling factor, keeping the maths at trigonometry level while recovering classic predictions.
Key milestones so far:
- Engineered a smooth “closed-arc” lattice that unifies space-time curvature and time-dilation in one stroke.
- Drafted outline derivations for solar-system tests and gravitational-wave phasing without tensors.
- Preliminary late-time cosmic acceleration with zero dark-energy terms.
- Identifies a candidate curvature quantum that could fix the QCD mass gap.
- Working draft of energy-bounds pointing toward a Navier–Stokes regularity proof.
Outcome: Open and peer-verifiable framework that teaches gravity (and much more) in a single semester of calculus (or preferably earlier). Also supports the new geometry required for the TSM.
➤ Project MILEVA powered by UniMEF-Core
Associated with Temporal Sciences Foundation
Named for Mileva Marić—a physicist whose recognition has lagged her contributions, historically and today—MILEVA (Model-Independent Layered Evaluation, Verification & Analysis) benchmarks competing cosmological paradigms with open, reproducible metrics. The UniMEF (Universe Model Evaluation Framework) flagship suite runs on UniMEF-Core, a modular scoring engine that compares full universe models or individual subsystems against real-world data and peer frameworks.
Key capabilities:
- Model-agnostic ingestion — accepts equations, constants, or mechanisms from ΛCDM, Temporal Sciences, CCC, LQC, and beyond.
- Normalized evaluation axes — ontology, causal structure, curvature, empirical fit, internal coherence, observables match.
- Partial & hybrid support — stress-tests incomplete theories, component substitutions, or field-specific proposals.
- Visual analytics — radar charts, axis maps, prediction matrices, temporal-deviation plots.
- Democratized access — independent theorists can benchmark ideas with the rigor of large collaborations.
Roadmap:
- UniMEF-Core (current): cosmology benchmarking
- BioMEF-Core: time-centric biosystems & lifeflow laws
- StatMEF-Core: high-volume residual analysis & advanced statistics
- AI20MEF-Core: a research extension exploring runtime evaluation & orchestration patterns for AI 2.0
Outcome: Turn theory comparison from debate into measurement, enabling cross-paradigm analysis at scale.
Mission: Empower independent researchers to refine work with scientific rigor, while giving professionals a faster, clearer way to stress-test ideas before decade-long validation cycles.
MILEVA is a proving ground where coherence, clarity, and consequence define success.