Quantum Effects in Biology

Sisir Roy

This hypothesis explores the application of the McGinty Equation to fractal quantum biology, proposing that biological systems, including molecular processes and cellular structures, exhibit fractal characteristics influenced by quantum effects. The primary objective is to understand how fractal geometry and quantum phenomena, such as coherence and tunneling, influence biological functions and processes, providing new insights into the fundamental mechanisms of life and the potential role of quantum mechanics in biological systems.

Jincheng Zhang

This research investigates the potential role of quantum phenomena, specifically quantum entanglement and quantum superposition, in biological information transmission. Traditional biological models often rely on classical explanations for processes such as phototransduction and neuronal communication. This work proposes a framework for developing quantum biological models to explore whether quantum effects contribute to these phenomena. The core claim is that quantum entanglement or superposition could be involved in facilitating information transfer within biological systems. The research will focus on establishing models and investigating the mechanisms by which these quantum effects might influence biological processes, ultimately challenging existing assumptions about information transfer in living organisms. Mathematical formalism is presented to illustrate key concepts and proposed models.