Heat is an abundant but often wasted source of energy. Thus, harvesting just a portion of this
tremendous amount of energy holds significant promise for a more sustainable society …

Multifunctional fiber‐reinforced polymer (FRP) composites provide an ideal platform for next‐
generation smart composites applications including structural health monitoring, electrical …

Harvesting largely ignored and wasted electromagnetic (EM) energy released by electronic
devices and converting it into direct current (DC) electricity is an attractive strategy not only …

Develo** an ultimate electromagnetic (EM)-absorbing material that can not only dissipate
EM energy but also convert the generated heat into electricity is highly desired but remains a …

Thermoelectric materials are capable of converting heat and electricity to each other.
Thermoelectric devices can be miniaturized and highly integrated with existing …

Heteroatom do** can effectively tailor the local structures and electronic states of intrinsic
two-dimensional materials, and endow them with modified optical, electrical, and …

There is a rapidly growing demand for self-powered technologies in wearable electronic
devices that can be integrated with the human body to accomplish various functions …

Thermoelectric materials can convert heat into electrical energy, which can potentially be
used to improve the fuel efficiency of conventional heat engines. In recent decades …

Flexible thermoelectric (TE) generator (f-TEG) assembled with flexible TE films (f-TEFs),
which can continuously output power by harvesting the heat energy (body heat and sunlight …

High‐value recycling of photovoltaic silicon waste is an important path to achieve “carbon
neutrality.” However, the current remelting and refining technology of Si waste (WSi) is …