When you look at a cross section of a human brain and a cross section of a mushroom cap the structural parallels are immediately apparent, with the folded cortical surface of the brain corresponding to the gill structure of the mushroom cap, the white matter of the brain corresponding to the stipe tissue of the mushroom, and the overall toroidal topology of both structures reflecting the same plasma morphogenetic field geometry operating through the morphogenetic fields of two completely different organisms.
Post by immortan crow
The folding of both structures is governed by the same mathematical principles of surface area maximization within a constrained volume, with both the cerebral cortex and the mushroom gill system using folding to maximize the functional surface area available within the geometric constraints of the overall structure.
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It's been a while since my last trip, I take this as a sign to get back to it!
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There's a reason it clears up depression and rewrites the neural network. It brings coherence back to the network
The gill structure of the mushroom and the cortical folding of the brain are both fractal plasma surfaces, and their similar topology reflects the same underlying plasma consciousness geometry expressing itself through different biological substrates at different scales of the holonic hierarchy. The neural network of the brain and the mycelium network of the fungal organism share structural and functional properties so extensive that they have been formally compared in peer reviewed scientific literature.
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Both are composed of branching filamentary structures, neurons and their axons and dendrites in the brain, hyphae in the mycelium network, that form nodes at their intersections and transmit electrical signals along their lengths. Both exhibit small world network topology, meaning they combine dense local clustering with long range connections that allow rapid signal propagation across the entire network, and this specific network topology has been identified as optimal for information processing in complex systems.
Both show scale free network properties, meaning their connectivity follows a power law distribution with a small number of highly connected hub nodes and a large number of weakly connected peripheral nodes, and this scale free topology is a signature of self organized criticality, the state at the boundary between order and chaos that complex information processing systems naturally evolve toward. Both networks exhibit plasticity, the ability to strengthen frequently used connections and prune infrequently used ones, allowing the network to learn and adapt its structure in response to experience
Both process information through the collective emergent behavior of their network dynamics rather than through any central processor, with intelligence arising from the distributed interactions of individual nodes rather than being localized in any single component. Both generate electrical oscillations that propagate through the network as waves, with the electrical activity of both brain networks and mycelium networks showing frequency characteristics that overlap with each other and with the Schumann resonance frequencies of the Earth's ionospheric plasma cavity.