Posts

Showing posts from June, 2025

Considering Counting Triangles to Unveiling Temporal Waves

  Considering Counting Triangles to Unveiling Temporal Waves By: John Gavel For years, my work in Temporal Flow Physics (TFP) has pursued a radical idea: what if spacetime itself —with all its gravitational curves and quantum fluctuations—isn't fundamental at all? What if it emerges from a deeper reality: a network of one-dimensional temporal flows , weaving the universe together moment by moment? It’s bold, yes—but I believe this view holds the key to a truly unified theory of physics , one that roots both quantum mechanics and gravity in the same temporal fabric. From Counting Triangles to Counting Time My earliest simulations: I counted triangles. More specifically, I measured how triangular motifs in temporal flow networks dissipated under coarse-graining. The decay rate of these patterns—captured by a parameter I called A₃ —served as a stand-in for emergent gravitational effects. If motifs faded predictably with scale, it suggested that macroscopic structure (like sp...

Temporal Flow Physics: A First-Principles Theory of Space, Fields, and Forces

  Temporal Flow Physics: A First-Principles Theory of Space, Fields, and Forces What if space isn't fundamental? What if the fabric of the universe—geometry, fields, even gravity—emerges from something deeper, more primitive, and purely temporal? Temporal Flow Physics (TFP) is a radical framework that takes this question seriously. It begins from a simple but powerful assumption: time alone is fundamental . From this starting point, all known physical structures and laws arise as emergent phenomena. Core Ontology Time Is Fundamental TFP begins with discrete temporal flow units that evolve in discrete steps of Planck time, . These flow units are dimensionless , have no spatial coordinates, and only evolve causally in one direction: time. Causal Network Topology These flow units are arranged in a causal network , which is initially a simple 1D chain (i.e., each unit has two neighbors in the temporal direction), but generalizes naturally to more complex graphs. This topolog...

Bridges of Morality: A Philosophy of Autonomy, Suppression, and Social Responsibility

 Bridges of Morality: A Philosophy of Autonomy, Suppression, and Social Responsibility I. Introduction — The Fractured Freedom of Being The Fractured Freedom of Being Autonomy is often misunderstood. It's not a privilege granted by society, nor a luxury reserved for those in power. It's something deeper: the raw capacity to choose, to act, to reflect. This capacity—this fundamental freedom—emerges the moment a mind becomes aware of itself and its possibilities. But here's the tension that defines human existence: society doesn't reward unfiltered autonomy. In fact, it punishes it. So we learn to suppress parts of ourselves—not because we're wrong, but because survival inside any social system requires strategic adaptation. This tension exists because of what I call the truth asymmetry—the gap between infinite and finite modes of being, to borrow Spinoza's terminology. If we think of absolute truth as analogous to Spinoza's infinite substance—complete, eterna...

Geometric Renormalization in Temporal Flow Physics: A First-Principles Validation

Geometric Renormalization in Temporal Flow Physics: A First-Principles Validation By John Gavel 6/26/2025 Recent advances in Temporal Flow Physics (TFP) have uncovered a first-principles derivation of the renormalization group (RG) flow for gauge couplings, grounded entirely in the geometry of discrete temporal flows . This demonstrates that the scale dependence of forces — classically introduced via continuous quantum field methods — emerges intrinsically from temporal flow networks . No phenomenological fitting is needed. From Temporal Flows to Gauge Couplings In TFP, all interactions arise from discrete, oriented flows of time between fundamental events. These flows define a directed network: Nodes = causal events Edges = directed temporal flow between events The flow between node i and j is encoded in a matrix P , where each entry Pᵢⱼ represents the amplitude or strength of temporal flow from i to j . When flows form loops, their composition can reveal cur...

Temporal Flow Cosmology: Black Holes, CMB, and the Entropic Universe

Temporal Flow Cosmology: Black Holes, CMB, and the Entropic Universe Introduction: Rethinking the Universe from the Ground Up Most cosmological models today begin with a bang — literally. The Big Bang theory postulates that all of space, time, and matter erupted from a singularity some 13.8 billion years ago, cooling and expanding to form the universe we observe. But what if this narrative — and the assumptions behind it — are not the whole story? Temporal Flow Physics (TFP) offers an alternative: a framework in which time itself is the sole fundamental quantity, and all physical structures — space, particles, energy, forces — emerge from discrete, interacting flows of time. In this perspective, black holes, cosmic expansion, and even the Cosmic Microwave Background Radiation (CMBR) are not relics of a singular beginning, but signatures of a deeper temporal dynamics unfolding eternally. In this blog, we explore how TFP reframes key cosmological observables — black hole radiation,...

Unit 11: Emergence of All Gauge Forces from Discrete Temporal Flows

 # Unit 11: Emergence of All Gauge Forces from Discrete Temporal Flows ## 11.1 The Core Idea: Gauge Forces from Flow Misalignment In Temporal Flow Physics (TFP), the fundamental gauge forces—electromagnetism (U(1)), the weak force (SU(2)), and the strong force (SU(3))—do not exist as imposed axioms. Instead, they emerge from the intrinsic properties and interactions of quantized, one-dimensional temporal flows on a discrete network. The central insight is that gauge interactions arise from local phase misalignments between adjacent flows, with temporal asymmetry fundamentally biasing these interactions. Each site i on this network supports a complex temporal flow of the form: ``` F_i(t) = A_i(t) · exp(i · θ_i(t)) ``` Where: - A_i(t) is the local amplitude (flow strength) - θ_i(t) is the internal phase, encoding symmetry information - The sign of ℜF_i(t) = A_i(t)cos(θ_i(t)) determines charge polarity ## 11.2 Sign Factor Propagation into Gauge Phase Space ### 11.2.1 Phase-Sign Coupli...

So I've Been Thinking About Symmetry

So I've Been Thinking About Symmetry I've been thinking about CPT symmetry and it seems messy. Physics keeps telling us the universe should be perfectly symmetric—flip a particle's charge, mirror it, reverse time, and everything works exactly the same. It's supposed to be this fundamental principle. Ok so let me set the stage here, look around. We're living in a universe made almost entirely of matter, not antimatter. If the Big Bang was perfectly symmetric, we should have gotten equal amounts of both. We didn't. The weak force literally cares about left versus right, which makes no sense if everything's supposed to be perfectly balanced. Everyone keeps treating these as special cases that need complicated explanations. Fine-tuned parameters, exotic early universe conditions, all these mechanisms to barely tip the cosmic scales. But what if we're looking at this backwards? The Coin Flip Problem I always go to the Coin flip. (I think its great for an...

The Measurement Bootstrap: TFP's Foundational Emergence of Space, Quantum Mechanics, and Constants

  The Measurement Bootstrap: TFP's Foundational Emergence of Space, Quantum Mechanics, and Constants Temporal Flow Physics (TFP) posits a radical idea: the universe's fundamental properties—space, quantum mechanics, and even its constants—do not exist as irreducible axioms. Instead, they emerge from the intrinsic nature of information recording within a discrete network of temporal flows. This "Measurement Bootstrap" framework offers a unified, first-principles explanation for these phenomena. I. Foundations in TFP Dynamics The Measurement Bootstrap is directly grounded in the core elements of TFP's phase-based dynamics (as detailed in Unit 11). Definition 1: TFP Phase State ( ) The fundamental information state at each discrete temporal grain i at time t is its complex phase, ϕ i ​ ( t ) = θ i ​ ( t ) , where: θ i ​ ( t ) ∈ [ 0 , 2 π ) represents the local phase of the temporal flow, derived from the complex flow amplitude F i ​ ( t ) = A i ​ ( t ) ⋅ e i θ i ...

Popular posts from this blog

A build up of time

Temporal Physics: A New Framework

Bridges of Morality: A Philosophy of Autonomy, Suppression, and Social Responsibility