Hydrogel Phase Membrane (HMF) v2

From Ionic Impulse to Phase Attractor: Experimental Protocol for the Bio-Digital Phase Bridge (HMF v2.0) with Pleurotus ostreatus Mycelium

Description:

This document (Version 2.0) represents a fundamental evolution from the theoretical component specification of HMF v1.0 (June 2026) into a fully operational, reproducible experimental protocol. It details the "garage-level" construction and validation of the first Hydrogel Phase Membrane (HMF v1.0 physical prototype) interfaced with living Pleurotus ostreatus mycelium.

The primary objective of this protocol is the continuous recording of low-frequency bio-electrical motifs (K1/K2) while strictly preserving their geometric and phase integrity, bypassing the destructive discretization ("phase death") inherent in classical Analog-to-Digital Converters (ADC).

Integration of 2026 State-of-the-Art Research This protocol is rigorously grounded in the latest empirical validations from 2026. It incorporates Andrew Adamatzky’s recent findings on the directional electrical spiking in oyster mycelium, mandating the use of a star-shaped electrode array (minimum 4-5 channels) to adequately capture the vector nature and flow topology of the biological signal. Furthermore, it introduces PEDOT:PSS as an optional hydrogel infusion—a validated ion-to-electron bridge that minimizes contact noise in biohybrid interfaces.

Analog Front-End and Phase Protection To prevent the collapse of the symplectic trajectory during measurement, the protocol specifies a dedicated analog front-end architecture. Utilizing ultra-high impedance instrumentation amplifiers (INA128/AD620) coupled with a strict analog low-pass RC filter (

f

c

≈

1

 Hz), the system physically isolates the ultra-slow Macro-BPB signals (0.001–0.03 Hz) from environmental noise before any low-frequency (0.1–1 Hz) digitization occurs.

From Voltage to Phase Space (LifeNode Methodology) Data analysis in this protocol shifts entirely from scalar voltage interpretation to geometric reconstruction. Following the LifeNode Filar II (Quantum Medicine) paradigm, the raw time-series data is subjected to Takens’ Embedding Theorem to reconstruct the system's dynamic attractor in phase space. The protocol establishes visual and mathematical criteria for identifying the quasi-toroidal structure of biological homeostasis and defines the early warning signs of its decoherence ("smudging"), conceptually linked to the ASCALON purity metric (

θ

<

0.70

).

Falsifiability and Technological Roadmap To maintain scientific rigor in non-disciplinary environments, the document enforces strict falsifiability procedures, including mandatory blind control tests (sterile hydrogel setups) and microclimate logging (>90% humidity). Finally, it outlines the technological scaling path from this garage-level proof-of-concept (TRL 2-3) to the target 4H-SiC divacancy quantum sensing platform (TRL 4+), where the HMF will ultimately serve as a protective barrier against spin decoherence via the Stark effect.

Keywords: Hydrogel Phase Membrane, Experimental Protocol, Mycelial Electrophysiology, Pleurotus ostreatus, K1/K2 Motifs, Takens Embedding, Phase Space Reconstruction, ASCALON Metric, Star-Shaped Electrode Array, PEDOT:PSS, Bio-Digital Coupling, Quantum Medicine, LifeNode

⚙️ https://github.com/LifeNode777/Quantum_Medicine/blob/main/HYDROGEL_PHASE_MEMBRANE_v2.md 🧪