Flexible hydroelectric generators (HEGs) are promising self‐powered devices that
spontaneously derive electrical power from moisture. However, achieving the desired …

Flexible hygroelectric generators (HEGs) that derive affordable and sustainable electricity
power from omnipresent moisture are promising candidates for smart textile electronics …

Textile‐based generators that can convert low‐grade energy from the human body or
environment into sustainable electricity have generated immense scientific interest in self …

Flexible moisture–electric generators (MEGs) capture chemical energy from atmospheric
moisture for sustainable electricity, gaining attention in wearable electronics. However …

The development of excellently stretchable, highly mobile, and sustainable power supplies
is of great importance for self‐power wearable electronics. Transpiration‐driven hydrovoltaic …

With recent demand for next-generation wearable and stretchable electronics, development
of reliable power systems that can accommodate the flexibility and stretchability of devices is …

Research into hydroelectric nanogenerators that use cellulose-based fibers, yarns, and
textiles as core substrates has increased in response to the development of wearable …

Realizing energy harvesting from water flow using triboelectric generators (TEGs) based on
our daily wearable fabric or textile has practical significance. Challenges remain on methods …

The electrokinetic effect allows harvesting renewable energy directly from moisture, sweat,
and rainwater, which is one of the promising techniques for self‐powered electronics …

Hydroelectric nanogenerators (HENGs) utilize the synergy between conductive
nanomaterials and hydrodynamic flow to generate electricity, but their applications are …