PEER-REVIEWED PUBLICATION

2026

Mycoelectronics: Bioprinted Living Fungal Bioelectronics for Artificial Sensation

A tensile test divider icon

Cai X, Ofori-Boateng S, et al.

Proceedings of the National Academy of Sciences (PNAS)

Michigan State University

RESEARCH SUMMARY
This work introduces a new class of living bioelectronic materials, termed ‘Mycoelectronics’, integrating fungal mycelium networks with conductive hydrogels via extrusion-based bioprinting. These hybrid structures combine biological self-growth with electrical conductivity and mechanical compliance, enabling potential use as living sensors or artificial sensory tissues. The study characterizes the electrical and mechanical coupling between fungal cells and ionic matrices, demonstrating strain-responsive conductivity and recoverable deformation behavior. The bioprinted fungal–hydrogel composites maintained long-term viability, exhibited piezoresistive responses to mechanical input, and provided a foundation for developing adaptive biohybrid electronic systems.
CellScale hexagons, without text

CELLSCALE INSTRUMENT USED

UniVert

Mechanical testing of the fungal–hydrogel composites was conducted using a CellScale UniVert mechanical testing system (Waterloo, ON, Canada) in tensile mode. Specimens were stretched at a constant strain rate until failure while force–displacement data were continuously recorded. UniVert results were used to determine Young’s modulus, tensile strength, and strain recovery, confirming that mycelium–gel networks maintained elasticity and mechanical integrity during actuation cycles.
AUTHORS

Xiaoyi Cai, Samuel Ofori-Boateng, David B. Smith, Shuang Fang, Wei Li, William H. Smart, Jacob M. Hess, Sophia L. Roberts, Christoph M. Geiger, Wen Li.

PUBLICATION DETAILS
JOURNAL

Proceedings of the National Academy of Sciences (PNAS)

YEAR

2026

INSTITUTIONS

Michigan State University

COUNTRIES

United States

INSTRUMENT USED

UniVert

TESTING METHODS

Tensile Testing

RESEARCH APPLICATIONS

Cell Laden HydrogelsHydrogel Mechanical TestingSoft Robotics MaterialsWearable Bioelectronics

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Product of Interest:
CellScale hexagon shapes