The global energy crisis and environmental pollutions caused mainly by the increased
consumption of nonrenewable energy sources prompted researchers to explore alternative …

Piezoelectric materials can directly transduce electrical and mechanical energy, making
them attractive for applications such as sensors, actuators and energy harvesting devices …

Among various classes of biomaterials, the majority of non‐centrosymmetric crystalline
materials exhibit piezoelectric properties, ie, the accumulation of charge in response to …

Recent advances in materials, manufacturing, biotechnology, and microelectromechanical
systems (MEMS) have fostered many exciting biosensors and bioactuators that are based …

Flexible piezoelectric nanogenerators (FPENGs) have attracted a great attention owing to
their promising applications in harvesting mechanical energy and driving portable devices …

Lead-free alternative materials for converting mechanical energy into electrical energy
through piezoelectric transduction are of significant value in a diverse range of technological …

Over the past decades, electronics have become central to many aspects of biomedicine
and wearable device technologies as a promising personalized healthcare platform. Lead …

The process of bone repair and regeneration requires multiple physiological cues including
biochemical, electrical and mechanical-that act together to ensure functional recovery …

Piezoelectricity, a linear electromechanical coupling, is of great interest due to its extensive
applications including energy harvesters, biomedical, sensors, and automobiles. A growing …

Piezoelectric energy harvesters have gained significant attention in recent years due to their
ability to convert ambient mechanical vibrations into electrical energy, which opens up new …