The Water‑Bridge Mycelium Amplifier: A Bio‑Hybrid Module for Topological Signal Transduction

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Auteur principal: margolin, ido
Format: Recurso digital
Publié: Zenodo 2025
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author margolin, ido
author_facet margolin, ido
contents <p>We propose a bio‑hybrid topological amplifier in which rain‑activated fungal mycelia form nanoscale water bridges under a low‑voltage corona field. The bridge acts as a transient ionic–dielectric conduit that preserves or transforms topological features (β‑barcodes) of driving signals. A three‑stage pipeline is specified: <strong>Electro‑Spore Gate</strong> (stimulus → spore/matrix), <strong>Mycelium Conduit</strong> (water‑bridge propagation across a hydrated network), and <strong>VOC→Human Read‑out</strong> (chemical plume sensed by pupilometry/EEG). We publish open hardware diagrams, SOPs, and Python notebooks (ripser‑py) showing that Betti‑1 loops in a pulsed input persist across an R–C–VOC surrogate with Δβ₁ ≤ 0.05 for target regimes. Benchmarks include SNR ≥ 3, cross‑domain correlation ≥ 0.6, and human pupil dilation Δ ≥ 0.3 mm under blinded, counter‑balanced odor exposures. This “Spec v0.1” is positioned as an architect’s declaration: a minimal, falsifiable design that enables engineers to fabricate Gate‑chips and begin measurements without requiring the author to produce primary data.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_17557611
institution Zenodo
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publishDate 2025
publisher Zenodo
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spellingShingle The Water‑Bridge Mycelium Amplifier: A Bio‑Hybrid Module for Topological Signal Transduction
margolin, ido
floating water bridge, mycelium, VOC, persistent homology, Betti barcode, bio‑hybrid sensor, topology, ripser
<p>We propose a bio‑hybrid topological amplifier in which rain‑activated fungal mycelia form nanoscale water bridges under a low‑voltage corona field. The bridge acts as a transient ionic–dielectric conduit that preserves or transforms topological features (β‑barcodes) of driving signals. A three‑stage pipeline is specified: <strong>Electro‑Spore Gate</strong> (stimulus → spore/matrix), <strong>Mycelium Conduit</strong> (water‑bridge propagation across a hydrated network), and <strong>VOC→Human Read‑out</strong> (chemical plume sensed by pupilometry/EEG). We publish open hardware diagrams, SOPs, and Python notebooks (ripser‑py) showing that Betti‑1 loops in a pulsed input persist across an R–C–VOC surrogate with Δβ₁ ≤ 0.05 for target regimes. Benchmarks include SNR ≥ 3, cross‑domain correlation ≥ 0.6, and human pupil dilation Δ ≥ 0.3 mm under blinded, counter‑balanced odor exposures. This “Spec v0.1” is positioned as an architect’s declaration: a minimal, falsifiable design that enables engineers to fabricate Gate‑chips and begin measurements without requiring the author to produce primary data.</p>
title The Water‑Bridge Mycelium Amplifier: A Bio‑Hybrid Module for Topological Signal Transduction
topic floating water bridge, mycelium, VOC, persistent homology, Betti barcode, bio‑hybrid sensor, topology, ripser
url https://doi.org/10.5281/zenodo.17557611