Can quantum entanglement be simulated with slime molds as bio-electronic components? Overview of main measurements with slime molds

Published: 10 September 2025| Version 1 | DOI: 10.17632/ghm9gvwwvb.1
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Description

Data discussed in the article: Can quantum entanglement be simulated with slime molds (Physarum polycephalum) as bio-electronic components? Overview of main measurements with slime molds (Physarum polycephalum) as stated in supplementary material. Each file is one measurement.

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Cultivation of P. polycephalum: To cultivate P. polycephalum, we established a stock culture in 55mm petri dishes and grew new cultures in 50 ml conical tubes. Cultures were sealed in sterile bags with a 0.2-micron filter until use. After four days, plasmodium cultures were ready for experiments, stored in opaque cases at room temperature. Culture Setup: Each tube was filled with agar and sterilized oat flakes. A 3 mm aperture at 32.5 ml in each tube allowed for an electro-conductive collar, designed based on Braund and Miranda. Collars, 3D-printed in conductive PLA, connected two tubes via a PVC tube to allow slime mold growth for measurements. Electric Measurements: A Rigol DG1022 function generator generated currents, with volts and amperes measured using a Diligent Analog Discovery 3 circuit. Voltage was recorded across a 150K Ohm resistor and calculated as I=U/R, logged by Digilent Waveform3 software. A Rigol DM3056e multimeter validated results.

Categories

Life Sciences, Quantum Computing, Electronics, Computational Biology

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