Material-Dependent Thermal Limits Experimen - Pre-Registered Predictions under TQTU Framework
Year: 2025
Type: article
Abstract: This pre-registered experiment marks a pivotal milestone in the validation of the Tanfarid Quantum Thermodynamic Universe (TQTU) — a framework that unites plasma dynamics, thermodynamics, and entropy–momentum coupling into a single experimentally testable theory of matter–energy interaction. The study, titled “Material-Dependent Thermal Limits in Plasma Vortex Dynamics,” investigates how different conductive materials (Iron, Graphite, Aluminum, and Copper) behave under identical rotational and geometric conditions (ω = 10,000 RPM, θ = 45°). Within this controlled environment, each sample is subjected to tangential grinding contact that mimics the shear-driven plasma activity observed in astrophysical flares and accretion vortices. According to TQTU predictions, the time to first continuous thermal discharge (t*) depends primarily on two intrinsic properties:1️⃣ Charge-Retention Time (τ₍charge₎) — representing the material’s ability to store spin–entropy energy, and2️⃣ Thermal Diffusivity (α) — determining how rapidly heat escapes from the local vortex region. The framework forecasts that materials with higher charge retention and lower diffusivity will reach the thermal breakdown threshold faster, producing directional flare analogs akin to black hole plasma emissions. Thus, Iron and cross-plane Graphite are predicted to flare first, followed by Aluminum and Copper — a hierarchy that can be empirically verified through IR imaging and current-sensor analysis. This work not only extends TQTU from celestial to laboratory scale but also transforms classical grinding physics into a cosmic analog experiment, where entropy flux, not mechanical force, dictates energy release. Every spark becomes a miniature revelation of universal thermodynamic law. All results, videos, and Python analysis scripts will be released openly for replication and peer review.Every insight within this research is dedicated — “By the mercy of Allah, who teaches whom He wills. This knowledge is a trust, not a personal achievement.”
Author: Chowdhury, Dr Md Faridul Islam
Language: English
Topic: Vacuum and Plasma Arcs
Subfield: Atomic and Molecular Physics, and Optics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7105673618
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