This article provides a comprehensive analysis of 3D-printed soft conductive hydrogels for research and drug development.
This article explores the frontier of 3D-printed bioelectronics, focusing on the critical role of controlled Young's modulus in device performance.
This comprehensive review explores the frontier of 3D-printed bioelectronic interfaces using PEDOT:PSS hydrogels.
This article provides a comprehensive analysis of the emerging role of 2D materials, specifically graphene and molybdenum disulfide (MoS2), in next-generation bioelectronic devices.
This article provides a comprehensive analysis of 2D material-based neural interfaces for electrophysiological recording, targeting researchers and biomedical professionals.
The mechanical mismatch between conventional rigid bioelectronic devices and soft, dynamic biological tissues is a fundamental challenge that limits the long-term efficacy and stability of neural interfaces.
This article provides a comprehensive analysis of the critical factors influencing the long-term reliability and stability of implantable bioelectronic devices.
This article provides a comprehensive analysis of Young's modulus as a critical design parameter in bioelectronic materials.
This article provides a comprehensive comparison for researchers and drug development professionals on the evolving paradigms of bioelectronic medicine and traditional pharmaceuticals.
The long-term performance of implantable neural electrodes is critically limited by the foreign body reaction (FBR), a complex immune response that culminates in fibrotic tissue encapsulation.