Published October 12, 2026 | Version v1
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Mecanotransducción Somatosensorial Profunda Craneofacial: Validación Paramétrica del Protocolo Tónico IC-H para la Síntesis de 2-Araquidonoilglicerol (2-AG) y Desacople de la Red Neuronal por Defecto (DMN)

Authors/Creators

  • 1. Ingeniería Cognitiva Humana IC-H
  • 2. Neuroabsurdismo

Contributors

Data manager:

  • 1. Ingeniería Cognitiva Humana IC-H
  • 2. Neuroabsurdismo

Description

Craniofacial mechanobiology demonstrates that targeted tensional remodeling of deep extracellular matrices regulates central neuro-autonomic states. Objective: This communication provides a reverse-engineering validation of the tonic biomechanical Cognitive Engineering (IC-H) algorithm, optimized for 2-Arachidonoylglycerol (2-AG) biosynthesis and central Default Mode Network (DMN) decoupling. Methods: The protocol utilizes a lipidic-osmotic priming phase (500 mL H2O, 1.5 g NaCl, H+ ions from citric acid, and 10 mL Extra Virgin Olive Oil [EVOO]) followed 20 minutes later by a sustained, deep static compression phase (60 s @ 3.0–4.5 N) targeting high-density craniofacial fascial networks and pericranial bone anchors. Results: Oleic acid from EVOO inserts intercalated arrays into the lipid bilayer, reducing lateral packing stress and decreasing the mechanical threshold of stretch-activated ion channels. The deep compressive vector (3.0–4.5 N) induces tensional torque, activating low-threshold Piezo2 mechanoreceptors and co-recruiting presynaptic voltage-gated N-type Ca2+ channels (Cav2.2). The resulting rapid intracellular Ca2+ flux drives PLC-beta activation, hydrolyzing phosphatidylinositol 4,5-bisphosphate into diacylglycerol (DAG), which is instantly converted into 2-AG by diacylglycerol lipase (DAGL). Concurrently, EVOO polyphenols and triterpenoids exert reversible competitive inhibition on Monoacylglycerol Lipase (MAGL), extending the active biophase of interstitial 2-AG. Centrally, 2-AG triggers robust retrograde depolarization-induced suppression of excitation (DSI) via presynaptic CB1 receptors in the trigeminothalamic brainstem path, shutting down glutamatergic drive. This focal sensory de-escalation results in an immediate functional deactivation of the mPFC-PCC cortical default nodes. Peripherally, interstitial 2-AG binds to local fascial mast cell CB2 receptors, downregulating degranulation. Conclusion: This integrated biomechanical window acts as an exact, non-pharmacological hard reset for central cognitive rumination and peripheral hyper-reactivity.

Abstract (Spanish)

Introducción: La mecanobiología craneofacial demuestra que el remodelado tensional dirigido de las matrices extracelulares profundas regula los estados neuroautonómicos centrales. Objetivo: Esta comunicación presenta la validación por ingeniería inversa del algoritmo biomecánico tónico del marco de la Ingeniería Cognitiva Humana (IC-H), optimizado para la biosíntesis de 2-Araquidonoilglicerol (2-AG) y el desacople de la Red Neuronal por Defecto (DMN). Métodos: El protocolo integra una fase de cebado lipídico-osmótico (500 mL H2O, 1.5 g NaCl, protones H+ de ácido cítrico y 10 mL de Aceite de Oliva Extra Virgen [AOEV]) seguida, 20 minutos después, por una fase de compresión estática profunda y sostenida (60 s @ 3.0–4.5 N) sobre zonas de alta densidad fascial y puntos de anclaje óseo pericraneal. Resultados: El ácido oleico del AOEV se intercala en la bicapa lipídica, disminuyendo el estrés de empaquetamiento lateral y reduciendo el umbral mecánico de apertura de canales mecanosensibles. El vector compresivo profundo (3.0–4.5 N) induce un torque tensional que activa mecanorceptores Piezo2 y co-recluta canales de calcio tipo N dependientes de voltaje (Cav2.2). El influjo catiónico agudo de Ca2+ activa la PLC-beta, hidrolizando el fosfatidilinositol 4,5-bisofosfato en diacilglicerol (DAG), sustrato que la diacilglicerol lipasa (DAGL) convierte inmediatamente en 2-AG on-demand. En paralelo, los polifenoles y triterpenoides del AOEV ejercen una inhibición competitiva reversible sobre la Monoacilglicerol Lipasa (MAGL), prolongando la biofase activa del 2-AG intersticial. A nivel central, el 2-AG desencadena una robusta supresión retrógrada de la excitación mediada por despolarización (DSI) vía receptores presinápticos CB1 en las vías trigeminotalámicas del tronco encefálico, suprimiendo la liberación de glutamato. Este apagón aferente provoca la desactivación funcional inmediata de los nodos corticales mPFC-PCC. A nivel periférico, el 2-AG se une a receptores fasciales CB2 en mastocitos, inhibiendo su degranulación. Conclusión: Esta ventana paramétrica unificada constituye un interruptor biofísico preciso para el "hard reset" de la rumiación cognitiva central y la hiperreactividad periférica.

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Mecanotransducción Somatosensorial Profunda Craneofacial_ Validación Paramétrica del Protocolo Tónico IC-H para la Síntesis de 2-Araquidonoilglicerol (2-AG) (1).pdf

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Preprint: 10.5281/zenodo.23267504 (DOI)

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