Thermoelectric (TE) generation technology plays an increasingly significant role in a global
environment. A desirable approach to improve the efficiency of thermoelectric generator …

Thermal energy harvesting from the ambient environment through thermoelectric
nanogenerators (TEGs) is an ideal way to realize self‐powered operation of electronics, and …

As no single thermoelectric material has presented a high figure-of-merit (ZT) over a very
wide temperature range, segmented thermoelectric generators (STEGs), where the p-and n …

Thermoelectric generators (TEGs) are used for converting heat into electricity. One of the
challenges behind TEG is that the power generated is unstable and therefore needs proper …

Partial shading conditions (PSCs) caused by clouds, trees, buildings, and other factors can
lead to uneven irradiance on the photovoltaic (PV) panel, resulting in reduced power output …

The ever-increasing demand for renewable energy and zero carbon dioxide emission have
been the driving force for the development of thermoelectric generators with better power …

This paper presents a new maximum power point tracking (MPPT) technique for extracting
the maximum power in thermoelectric generator (TEG) systems. Considering the linear …

Thermoelectric power generation is a reliable energy harvesting technique for directly
converting heat into electricity. Recent studies have reported the thermal-to-electrical energy …

Proper assessment of geometric features of a thermoelectric generator is important to design
devices with improved performance features such as high efficiency and output power. In the …

The thermoelectric (TE) device enables a conversion interface between the heat transfer
and the electricity domain. Specifically, it can operate bi-directionally–Heat can be converted …