Key result
Soft, bioresorbable, transparent microelectrode arrays successfully record transient cardiac electrophysiology in preclinical models.
Why the study?
Traditional implantable devices require surgical removal when no longer needed, whereas bioresorbable systems that naturally dissolve offer a temporary alternative without extraction risks and costs.
A novel soft, transparent, and bioresorbable microelectrode array provides a versatile platform for transient, high-resolution electrophysiological mapping without the need for surgical extraction.
May enable transient cardiac mapping without extraction; leaves open translation to human electrophysiology.
Transparent microelectrode arrays that enable multimodal investigation of spatiotemporal electrophysiological activity are critical tools for advancing the understanding of excitable tissues such as the brain, heart, and peripheral nerves. Traditional implantable devices are engineered for chronic use but require surgical removal when they fail or are no longer needed. In contrast, bioresorbable systems that naturally dissolve after serving temporary functions offer a compelling alternative, eliminating the risks and costs of extraction procedures. Here, we present the design, fabrication, and validation of a soft, fully bioresorbable, and optically transparent MEA platform for transient, bidirectional interfacing with living tissues. The device provides high-resolution electrical mapping of dynamic activity. We report precise characterization of electrochemical performance, mechanical properties, bioresorption kinetics, and biocompatibility. While validated in models of cardiac function, this platform establishes a versatile foundation for bioresorbable electrophysiological technologies with applications ranging from postsurgical monitoring of transient conditions to the study and treatment of neurological and neurodegenerative disorders.
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Abdelbaki et al. (2025) studied Models of cardiac function. Soft, transparent, and bioresorbable microelectrode array was evaluated on Electrochemical performance, mechanical properties, bioresorption kinetics, and biocompatibility. A soft, fully bioresorbable, and optically transparent microelectrode array was successfully designed and validated in models of cardiac function for transient electrophysiological recordings.
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