Membrane Na+-K+ ATPase inhibition mediated quantal model for brain evolution

Area of Science:

• Origin of Life Research
• Astrobiology
• Neuroscience
• Cell Biology

Background:

• The hypothalamus produces an endogenous Na+-K+ ATPase inhibitor, digoxin.
• Existing models do not fully explain the origin of self-replicating molecular organisms.
• The role of consciousness in the origin of matter remains a significant question.

Purpose of the Study:

• To propose a digoxin-mediated model for quantal perception and the origin of life.
• To elucidate the evolutionary pathway from macromolecules to complex organisms like the human brain.
• To explore the potential role of consciousness and intergalactic bacterial networks in universal evolution.

Main Methods:

• Theoretical modeling based on digoxin's inhibitory action.
• Postulation of a 'quantal state' enabling macromolecular self-replication.
• Evolutionary hypothesis tracing the development from molecular organisms to cellular structures and neuronal networks.

Main Results:

• A model where self-organized macromolecules replicate in a quantal state, forming molecular organisms (e.g., prions).
• Macromolecules aggregate into organelles, akin to independent bacteria, which then symbiotically cluster into cells.
• The human organism, including the brain, is conceptualized as a colony of symbiotic, flagellated bacteria forming neuronal networks.

Conclusions:

• The proposed model offers a novel perspective on the origin of life and biological complexity.
• Quantal perception and consciousness may play a fundamental role in the origin of matter.
• Intergalactic bacterial networks could be significant drivers of universal evolution.