Biomechanical and coherent phenomena in morphogenetic relaxation processes

Area of Science:

• * Biophysics
• * Developmental Biology
• * Evolutionary Biology

Background:

• * Biological form can be studied separately from its actualization principles, as seen in D'Arcy Thompson's work and nomogenetic theories.
• * The principles of form actualization are not directly reducible to the genome and require further establishment.
• * Existing theories often overlook the mechanisms driving morphogenesis beyond genetic control.

Purpose of the Study:

• * To propose that conformational relaxation is a key principle in describing biological morphogenesis.
• * To highlight the role of the cytoskeleton in providing long-term relaxation properties.
• * To explore the implications of cytoskeletal dynamics, including photon emission, in pattern formation.

Main Methods:

• * Conceptual analysis drawing from D'Arcy Thompson's
• On Growth and Form
• and nomogenetic theories.
• * Theoretical exploration of cytoskeletal structures and their relaxation properties.
• * Analogy with self-coordinated operations in photosynthetic antennae and photon emission phenomena.

Main Results:

• * Cytoskeletal structures enable conformational movements over longer distances and durations than single protein molecules.
• * Prolonged cytoskeletal relaxation can lead to hyper-restoration and increased tension, triggering morphogenetic events.
• * Microtubules in a coherent state exhibit ultraweak photon emission, facilitating non-local interactions and assembly.
• * Spatiotemporal patterns emerge based on optimality principles driven by internal system reflection.

Conclusions:

• * Conformational relaxation, particularly via the cytoskeleton, is crucial for understanding biological morphogenesis.
• * The cytoskeleton's unique properties, including photon emission, enable complex pattern formation.
• * Morphogenesis involves principles beyond the genome, involving self-organization and optimality.