General Expanse Tension Theory and the Early Universe: Years in Microseconds. A Pre- & Post-Temporal Framework for Structure Formation and Emergent Cosmological Time

General Expanse Tension Theory and the Early Universe: Years in Microseconds.

A Pre- & Post-Temporal Framework for Structure Formation and Emergent Cosmological Time

By John Edward Holland
13th December 2025

This work presents a comprehensive reevaluation of early-universe cosmology grounded in General Expanse Tension Theory (GETT), a density-dependent scalar-field framework extending the Standard Model and General Relativity by making mass, gravity, inertia, and time jointly emergent properties. The central result of this analysis is the identification of a fundamental conceptual oversight in ΛCDM cosmology: the routine use of FLRW coordinate time in epochs prior to and immediately after electroweak symmetry breaking (EWSB), despite the absence of mass-licensed clocks before the Higgs field acquires a vacuum expectation value and the presence of extreme mass–energy densities thereafter.

Building upon the Higgs discovery (2012) and the recognition that mass is not a primitive but a licensed property, GETT frames the emergence of gravity, inertia, and temporal separation as an orthogonal triad triggered by EWSB. Before this transition the universe possesses no mechanism capable of defining proper time; after it, the enormous density of the early universe enforces strong temporal resistance, analogous in principle—but many orders of magnitude stronger—to relativistic time dilation in intense gravitational fields. The paper therefore challenges the standard assignment of picosecond–microsecond durations to early epochs and demonstrates that, when proper time governed by density-dependent temporal resistance is consistently applied, the canonical early-universe timeline undergoes radical revision.

This work proceeds in three major parts. First, it reconstructs the baseline ΛCDM chronology, measurement methodology, and observational foundations (CMB anisotropies, BAO, redshift–distance relations, and BBN yields), clearly identifying all points where coordinate time assumptions enter the inference chain. Second, it assembles a complete catalogue of early-universe anomalies—including inflationary fine-tuning, the horizon and flatness problems, baryogenesis and CP-violation deficits, the Lithium-7 anomaly, CMB low-ℓ asymmetries, the origin of the inflaton, and the recent JWST early-galaxy and early-SMBH crises. Each anomaly is examined through the lens of its dependence on assumed epoch durations. Third, the paper applies GETT to reconstruct proper-time durations for all pre-recombination epochs, including a full worked example showing that the Hadron Epoch, canonically assigned ~1 second, naturally acquires a proper-time duration of ~6×10⁵ years when density-dependent temporal resistance is applied.

The analysis reveals that a large class of early-universe paradoxes—once treated as unrelated mysteries—are strongly correlated consequences of using coordinate time where only emergent proper time is physically meaningful. Under GETT, the causal structure of the early universe expands dramatically: processes previously believed too fast or fine-tuned gain sufficient temporal breadth to occur naturally, including hadronisation, baryon formation, weak-interaction freeze-out, early structure growth, and lithium destruction pathways. Several longstanding anomalies (inflation timings, baryon asymmetry constraints, Lithium-7 overproduction, early SMBH formation, and JWST massive-galaxy observations) acquire straightforward explanations without invoking exotic fields or modifications to the Standard Model particle content.

The document includes:

• A rigorous definition of time within GETT, distinguishing coordinate, operational, and emergent proper time.

• A measurement-system analysis clarifying how cosmological inferences depend on implicit time assumptions.

• A full anomaly atlas (Appendix E) covering all outstanding early-universe problems.

• A detailed suite of appendix analyses (G–M) applying GETT to particle physics, nuclear processes, horizon dynamics, inflationary structure, BBN, CMB anomalies, and early structure formation.

• A demonstrative calculation (Appendix O) formally deriving the Hadron Epoch proper-time duration from density-regulated temporal resistance.

The conclusions emphasise that once mass is recognised as Higgs-licensed and time as a derived manifestation of mass–density–tension interactions, the early universe cannot be meaningfully described by FLRW coordinate time. Proper time begins only at EWSB, evolves under density-dependent resistance, and stretches the timeline of the early universe by many orders of magnitude. This reinterpretation eliminates a series of long-standing cosmological paradoxes and offers a unified, internally consistent alternative to inflationary and ΛCDM early-universe frameworks.

This paper serves as a foundational reference for the application of GETT to cosmology and represents a significant reframing of the temporal and dynamical structure of the early universe.