Quantum Mechanics, Quantum Thermodynamics, ELMAS’s Thermodynamic Theory, the 5th Law of Thermodynamics, and Frequency Modulated (FM) Biyorobotic Resonance Integration for Intelligent Biomedical System Design and Cancer Treatment Protocol

Emin Taner ELMAS

Citation: Emin Taner ELMAS, "Quantum Mechanics, Quantum Thermodynamics, ELMAS’s Thermodynamic Theory, the 5th Law of Thermodynamics, and Frequency Modulated (FM) Biyorobotic Resonance Integration for Intelligent Biomedical System Design and Cancer Treatment Protocol", Universal Library of Medical and Health Sciences, Volume 04, Issue 03.

Copyright: This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

Abstract

This study proposes a holistic biomedical system architecture that radically integrates macro and micro-scale energy transfer mechanisms. The proposed model synthesizes Quantum Mechanics (Quantum Thermodynamics) explaining subatomic wave resonances, ELMAS’s Thermodynamic Theory based on two-phase high-performance heat transfer, the 5th Law of Thermodynamics defining boundary conditions of dynamic systems, and Frequency Modulated (FM) Biyorobotic Resonance approaches providing targeting precision. The system consists of an intelligent software algorithm (FM-BRTA) that detects the characteristic quantum bio-frequency signature of cancerous cells in less than a second, and a two-phase cryoprobe hardware that destroys these cells via localized entropy bursts while preserving surrounding healthy tissue. Theoretical analyses demonstrate that the system remains locked at the critical heat flux (CHF) point, achieving 10 to 50 times higher heat flux compared to conventional methods and eliminating healthy tissue damage completely. [1-101]


Keywords: ELMAS’s Thermodynamic Theory, 5th Law of Thermodynamics, Biyorobotic Resonance, Quantum Thermodynamics, Cryoprobe, Intelligent Drug Algorithm.

Download doi https://doi.org/10.70315/uloap.ulmhs.2026.0403011