Andrew Adamatzky

This study observes freshwater blackworms navigating a maze with food in the center, showing entry into the central chamber but no evidence of food localization or chemotaxis.

The paper records and analyzes electrical spike trains in oyster fungi substrates, showing directional propagation through the mycelial network at a slow speed.

The paper investigates the effects of polydopamine polymerisation on extracellular electrophysiology of mycelium, finding significant inhibition at 5 mM and 10 mM concentrations.

The paper identifies spiking units in extracellular electrophysiological recordings of dispersed mycelial cultures, which are absent after dehydration or fungicidal treatment.

The paper records extracellular spikes in Hericium erinaceus biofilms using microelectrode arrays and shows nystatin reduces spike amplitude and alters waveform characteristics.

The paper examines how spruce trees anticipate and collectively respond to a solar eclipse through bioelectrical synchronisation, revealing age-related differences in anticipatory behaviour and collective memory effects.

This study uses scanning electron microscopy to examine bacterial attachment to fungal hyphae in co-cultures, finding that EPS and ECM contribute to biofilm formation.

The paper explores discrete space-time models for information transfer by drawing analogies between fungal mycelium networks and the cosmic web.

This study functionalises Kombucha cellulose mats with graphene and zeolite to create electroactive materials that respond to mechanical stimuli with spiking patterns, enabling biosensing applications.

This study examines how chloroform affects the electrical activity of proteinoids, finding that it reduces spike potential and shortens interspike periods with increasing exposure.

The paper analyzes the electrical activity of moss to inform the development of living facades, identifying three distinct oscillation patterns.

The paper evaluates proteinoid microspheres' neuron-like activity by interacting them with simulated Izhikevich neuronal networks, showing tunable spiking responses to input patterns.

This study investigates the electrical spiking activity of Proteinoids-ZnO colloids, finding they exhibit neuron-like behavior through surface molecule oscillations.

This study shows that ensembles of proteinoids can recognize spoken English letters by producing unique electrical activity patterns in response to sound inputs.

The paper investigates how light affects electrical spiking in Schizophyllum commune colonies, finding that specific wavelengths induce consistent spiking responses likely mediated by photoreceptors.

This study demonstrates that proteinoid microspheres can implement logical gates through their electrical responses, showing potential for computational capabilities.