Unlike conventional rigid counterparts, soft and stretchable electronics forms crack-or defect-
free conformal interfaces with biological tissues, enabling precise and reliable interventions …

Bioelectronics can transduce signals across the tissue and device interface to measure and
regulate biological activities for healthcare monitoring and diseases treatment. Currently, a …

Implantable bioelectronics, integrated directly within the body, represent a potent biomedical
solution for monitoring and treating a range of medical conditions, including chronic …

Materials used in wearable and implantable electronic devices should match the
mechanical properties of biological tissues, which are inherently soft and deformable. In …

Flexible bioelectronics, including wearable and implantable electronics, have revolutionized
the way of human-machine interaction due to the fact that they can provide natural and …

Flexible and stretchable electronics and optoelectronics configured in soft, water resistant
formats uniquely address seminal challenges in biomedicine. Over the past decade, there …

Recent developments in the fields of materials science and engineering technology
(mechanical, electrical, biomedical) lay the foundation to design flexible bioelectronics with …

The potential applications of soft bioelectronics in biomedical research and clinical trials
have inspired a great deal of research interest in the past decade. While there has been …

The remarkable ability of biological systems to sense and adapt to complex environmental
conditions has inspired the design of next-generation electronics with advanced …

Sensing mechanical tissue deformation in vivo can provide detailed information on organ
functionality and tissue states. To bridge the huge mechanical mismatch between …