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Progress in theoretical chemistry and physics

Can Quantum Theory Concepts Shed Light on Biological Evolution Processes?

J. Maruani

Published Jan 1, 2020• 4 citations
Publisher
DOI
10.1007/978-3-030-34941-7_16

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This work provides a historical overview of how heredity has been understood and a key problem in quantum biology is shed light on: the role of quantum mechanics in point mutation, a cornerstone of evolution. A foundation in core genetic concepts is provided, including the meaning and location of chromosomes and genes in cells, DNA structure, the replication mechanism, the genetic code, and tautomeric forms, mutation types, natural selection, neo-Darwinism. Finally, how Heisenberg uncertainty and quantum tunneling facilitate mutation is explored.
We present a mathematical framework (referred to as Context-driven Actualization of Potential, or CAP) for describing how entities change over time under the influence of a context. The approach facilitates comparison of change of state of entities studied in different disciplines. Processes are seen to differ according to the degree of nondeterminism, and the degree to which they are sensitive to, internalize, and depend upon a particular context. Our analysis suggests that the dynamical evolution of a quantum entity described by the Schrodinger equation is not fundamentally different from change provoked by a measurement often referred to as collapse, but a limiting case, with only one way to collapse. The biological transition to coded replication is seen as a means of preserving structure in the fact of context-driven change, and sextual replication as a means of increasing potentiality thus enhancing diversity through interaction with context. The framework sheds light on concepts like selection and fitness, reveals how exceptional Darwinian evolution is as a means of 'change of state', and clarifies in what sense culture, and the creative process underlying it, are Darwinian.
Quantum information has emerged as a transformative concept across diverse fields, including information theory, quantum computing, and materials science. Its potential to surpass classical information processing capabilities has sparked significant research interest. This paper investigates the role of quantum information in biological systems, specifically exploring its potential as a fundamental driver of evolution. We propose a novel theoretical framework, termed the "Quantum Gene" mechanism, which posits that quantum information, through entanglement and quantum computation, can significantly influence biological processes and drive evolutionary trajectories. This work offers a new perspective on evolution by highlighting the potential of quantum mechanics to underpin fundamental biological mechanisms.