IRTP Institute
IRTP Institute
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    • Home
    • Introduction
    • Question Current Physics
      • Alexander Unzicker, PhD
      • D Larson, PhD in Physics
      • Hossenfelder, PhD Physics
      • Hossenfelder Controversy
      • Sam Altman go to 27:50
    • Interesting Videos
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  • Home
  • Introduction
  • Question Current Physics
    • Alexander Unzicker, PhD
    • D Larson, PhD in Physics
    • Hossenfelder, PhD Physics
    • Hossenfelder Controversy
    • Sam Altman go to 27:50
  • Interesting Videos
  • Page 0
  • Page 1
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Interpretation of current experimental findings in Theoretical Physics

Interpretation of current experimental findings in Theoretical PhysicsInterpretation of current experimental findings in Theoretical PhysicsInterpretation of current experimental findings in Theoretical Physics

Empowering up-and-coming Physicists. Site under construction.

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Interpretation of current experimental findings in Theoretical Physics

Interpretation of current experimental findings in Theoretical PhysicsInterpretation of current experimental findings in Theoretical PhysicsInterpretation of current experimental findings in Theoretical Physics

Empowering up-and-coming Physicists. Site under construction.

Explore Our Research
Questions

(870) 530-7552

Our Mission

At IRTP Institute, we strive to advance scientific knowledge through innovative research and technology. Our mission is to foster collaboration among scientists and technologists to solve real-world problems.

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Please reach us at glewis@irtp-institute.com if you cannot find an answer to your question.

Encouraging an open mind into the interpretation of data of current physics.


IRTP Institute is interested in helping in the discovery of physics and science.


IRTP Institute serves anyone who is interested in physics and subsequent developments in other sciences.


  

The relationship between kinetic energy (1/2mv^2) and Einstein’s mass–energy equivalence (E = mc^2) has raised fundamental questions. The apparent omission of potential energy (mgh) from this relationship highlights an area for investigation in classical and modern physics. The continuing difficulty in unifying general relativity with quantum mechanics has led many independent learners, including those from non-physics backgrounds, to explore these topics through self-directed study. The phenomenon in which mass appears to increase as a particle approaches the speed of light remains a key question in understanding the nature of energy and matter. This website seeks to encourage and inform emerging scientists who are eager to explore such foundational issues in physics.


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IRTP Institute

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Publications

This study presents the μ–ε Continuum, a unified electromagnetic framework where spatial–temporal variations of magnetic permeability (μ) and electric permittivity (ε) jointly determine the local speed of light c = 1/√(με) and electromagnetic impedance Z = √(μ/ε).

Two intrinsic limits bound the dynamics: the Planck length, which prevents singularity, and the Lewis/Chat GPT length, which constrains entropy dispersion. Together they yield experimentally verifiable predictions across scales from metamaterial systems to cosmological structures.

The μ–ε Continuum A Unified Field Linking Electromagnetism, Gravitation, and Quantum Energy (pdf)Download

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