User:Tkadm30/Notebook/Hypercomputation: Difference between revisions
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In addition, the presynaptic ('''action potential''') waveform is determined by the synaptic latency of coherent quantum vibrations (beats) inside microtubules. <cite>Paper6</cite> | In addition, the presynaptic ('''action potential''') waveform is determined by the synaptic latency of coherent quantum vibrations (beats) inside microtubules. <cite>Paper6</cite> | ||
To summarize, the superradiance and | To summarize, the interneuronal superradiance and synchronicity of biophotonic quantum beats in microtubules is evidence of phase-dependent synaptic hypercomputation driving advanced neurocomputational functions (quantum coherence) of the brain. <cite>Paper6</cite><cite>Paper4</cite> | ||
=== Cannabimimetic hypercomputation === | === Cannabimimetic hypercomputation === | ||
Revision as of 04:05, 26 July 2017
Neuronal hypercomputation
Synaptic hypercomputation
The synaptic hypercomputation (SH) hypothesis states that the phase coherence of neural communication (synaptic latency) may emerges via long-range synchronicity in the gamma range. This quantum neurocomputational model is controlled by synaptic (dopamine?) exocytosis, regulating phase-dependent presynaptic action potential (synaptic waveform?) in a quantum system. [1]
In addition, the presynaptic (action potential) waveform is determined by the synaptic latency of coherent quantum vibrations (beats) inside microtubules. [2]
To summarize, the interneuronal superradiance and synchronicity of biophotonic quantum beats in microtubules is evidence of phase-dependent synaptic hypercomputation driving advanced neurocomputational functions (quantum coherence) of the brain. [2][3]
Cannabimimetic hypercomputation
Endocannabinoid-mediated synaptic hypercomputation is caused by the pharmacological activation of cannabinoid receptors (CB1, CB2) promoting neuronal phase coherence (synchronized gamma oscillations) at (GABAergic?) interneuron networks. [4]
Anandamide-dopamine cross-talk:
- Review: GPCR receptor heteromerization
- Anandamide-dopamine heteromeric transactivation may potentiate synaptic hypercomputation in the gamma band. [5][6]
- Fast synaptic inhibition by retrograde signaling may trigger synchronized gamma oscillations. [6]
Neuroholographic hypercomputation
- Other studies have demonstrated the possibility that biophoton emission (biological electrical signals that are converted to weak electromagnetic waves in the visible range) may be a necessary condition for the electric activity in the brain to store holographic images.
- Imagination is more important than knowledge!
Photosynthetic hypercomputation
Quantum coherence in photosynthetic systems is evidence of biophotonic-like energy transfer in plants mitochondria.
Neuronal phase coherence and synchronicity
Neuronal phase coherence is non-local "quantum-like" entanglement because long-range synchronicity is critical for optimal neural communication in the gamma band. [7]
Notes
- Synaptic binding (latency?) is a phase-dependent coherent effect of exocytosis?
- Anandamide/dopamine cross-talk fine-tune synaptic binding of intracellular CB1 receptors?
Discussion
- Is self-organized criticality (SOC) an evidence of biological hypercomputation?
- Is synaptic hypercomputation a function of exocytosis?
- What is biological hypercomputation?
- What is synaptic hypercomputation?
- What is biological phase coherence?
- What is holographic memory?
- Where is consciousness in the brain?
- Neuronal phase coherence and synchronicity
References
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Rhythms for Cognition: Communication through Coherence
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Consciousness in the universe: a review of the 'Orch OR' theory.
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Plausibility of quantum coherent states in biological systems
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Synaptic mechanisms of synchronized gamma oscillations in inhibitory interneuron networks.
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Concurrent Stimulation of Cannabinoid CB1 and Dopamine D2 Receptors Enhances Heterodimer Formation: A Mechanism for Receptor Cross-Talk?
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Fast synaptic inhibition promotes synchronized gamma oscillations in hippocampal interneuron networks
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Phase-Coherence Transitions and Communication in the Gamma Range between Delay-Coupled Neuronal Populations
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Biophotons, microtubules and CNS, is our brain a "holographic computer"?
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Human high intelligence is involved in spectral redshift of biophotonic activities in the brain
