Numerous biomaterials have provided promising results toward improving the function of
injured nervous system tissue. However, significant hurdles, such as delayed or incomplete …

Bioelectricity has been stated as a key factor in regulating cell activity and tissue function in
electroactive tissues. Thus, various biomedical electronic constructs have been developed …

The extracellular matrix of bone can be pictured as a material made of parallel interspersed
domains of fibrous piezoelectric collagenous materials and non-piezoelectric non …

Electricity constitutes a natural biophysical component that preserves tissue homeostasis
and modulates many biological processes, including the repair of damaged tissues. Wound …

Piezoelectric materials, with their unique ability for mechanical‐electrical energy conversion,
have been widely applied in important fields such as sensing, energy harvesting …

Patient deaths resulting from cardiovascular diseases are increasing across the globe,
posing the greatest risk to patients in developed countries. Myocardial infarction, as a result …

Bone is a complex organ possessing both physicomechanical and bioelectrochemical
properties. In the view of Wolff's Law, bone can respond to mechanical loading and is …

Electrical stimulation (ES), as one of the physical therapy modalities for tumors, has attracted
extensive attention of researchers due to its promising efficacy. With the continuous …

The intrinsic piezoelectric nature of collagenous-rich tissues, such as bone and cartilage,
can result in the production of small, endogenous electric fields (EFs) during applied …

Research on the cellular response to electrical stimulation (ES) and its mechanisms
focusing on potential clinic applications has been quietly intensified recently. However, the …