MEMORY AS AN ORGANIZATION OF LIFE BEFORE THE APPEARANCE OF MAN

The second article in the series on the evolution and restoration of memory is presented. Memory is not a property of the brain alone. This is a fundamental principle of the organization of life, which arose long before the appearance of neurons. Based on the Non-Information Theory of Life (NJT), the article shows that primary memory is encoded in the phase topology of water – a tetrahedral grid of hydrogen bonds capable of fixing conformational fingerprints of molecules (tetrassignures). These tetrasignatures serve as a physical matrix on which supramolecular condensates arise, triggering autocatalytic cycles – memory condensate cycles. (A detailed description of the physical mechanism is given in our previous work [Lagoda, 2026a].) Memory is interpreted as a physical structure – an engram that has a molecular substrate (synaptic changes, epigenetic marks, rearrangement of the extracellular matrix) and is supported by the dynamic coherence of water. A distinction is made between a molecular engram (tetrassignatures and condensate cycles) and a network engram (neural ensembles). Particular attention is paid to the primacy of the molecular apparatus of memory (tetrasignatures and condensates) in the emergence of sense organs: the registration of external changes at the molecular level gave rise to signaling pathways, which in the course of evolution specialized in chemo-, photo- and mechanoreception. The evolutionary path of memory is traced: · The physical memory of water is tetrasignatures and condensate cycles. · Pre-nervous memory is found in bacteria (CRISPR, chemotaxis), plants (epigenetics, transgenerational memory, GABA signaling), and fungi (mycelial networks). · Evolution of the sense organs – from molecular registration of signals to specialized receptors; Vision as a catalyst for the Cambrian explosion. · The appearance of the nervous system – diffuse networks of stingers, ganglia of worms and arthropods. · The formation of the brain is in vertebrates, with the hippocampus and neocortex isolated. · The pinnacle of memory evolution is mammals, with their capacity for episodic memory, sleep consolidation, and social learning. It is shown that all these stages rest on a single physical foundation: ordered (LDL) water, mitochondrial energy, electrotaxis, condensates, and neuron-astrocytic ensembles that guide the assembly and maintenance of memory. The article concludes with practical recommendations for creating a primary form of life in a laboratory bioreactor – not through RNA synthesis, but through the assembly of supramolecular condensates in a controlled phase environment.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-17
DOI
https://doi.org/10.5281/zenodo.21414333
Primary Topic
Plant and Biological Electrophysiology Studies
Type
preprint
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MEMORY AS AN ORGANIZATION OF LIFE BEFORE THE APPEARANCE OF MAN

Vladimir Lagoda
Zenodo (CERN European Organization for Nuclear Research)
Plant and Biological Electrophysiology Studies
preprint

MEMORY AS AN ORGANIZATION OF LIFE BEFORE THE APPEARANCE OF MAN

Vladimir Lagoda
preprint en

Abstract

The second article in the series on the evolution and restoration of memory is presented. Memory is not a property of the brain alone. This is a fundamental principle of the organization of life, which arose long before the appearance of neurons. Based on the Non-Information Theory of Life (NJT), the article shows that primary memory is encoded in the phase topology of water – a tetrahedral grid of hydrogen bonds capable of fixing conformational fingerprints of molecules (tetrassignures). These tetrasignatures serve as a physical matrix on which supramolecular condensates arise, triggering autocatalytic cycles – memory condensate cycles. (A detailed description of the physical mechanism is given in our previous work [Lagoda, 2026a].) Memory is interpreted as a physical structure – an engram that has a molecular substrate (synaptic changes, epigenetic marks, rearrangement of the extracellular matrix) and is supported by the dynamic coherence of water. A distinction is made between a molecular engram (tetrassignatures and condensate cycles) and a network engram (neural ensembles). Particular attention is paid to the primacy of the molecular apparatus of memory (tetrasignatures and condensates) in the emergence of sense organs: the registration of external changes at the molecular level gave rise to signaling pathways, which in the course of evolution specialized in chemo-, photo- and mechanoreception. The evolutionary path of memory is traced: · The physical memory of water is tetrasignatures and condensate cycles. · Pre-nervous memory is found in bacteria (CRISPR, chemotaxis), plants (epigenetics, transgenerational memory, GABA signaling), and fungi (mycelial networks). · Evolution of the sense organs – from molecular registration of signals to specialized receptors; Vision as a catalyst for the Cambrian explosion. · The appearance of the nervous system – diffuse networks of stingers, ganglia of worms and arthropods. · The formation of the brain is in vertebrates, with the hippocampus and neocortex isolated. · The pinnacle of memory evolution is mammals, with their capacity for episodic memory, sleep consolidation, and social learning. It is shown that all these stages rest on a single physical foundation: ordered (LDL) water, mitochondrial energy, electrotaxis, condensates, and neuron-astrocytic ensembles that guide the assembly and maintenance of memory. The article concludes with practical recommendations for creating a primary form of life in a laboratory bioreactor – not through RNA synthesis, but through the assembly of supramolecular condensates in a controlled phase environment.

Zenodo (CERN European Organization for Nuclear Research)
Plant and Biological Electrophysiology Studies
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