Wearable devices are drawing increasing attention in both academia and industry in that
they can offer unprecedented information related to human health in real-time and human …

The last decade created tremendous advances in new and unique thermoelectric
generation materials, devices, fabrication techniques, and technologies via various global …

Thermoelectric generators (TEGs) are an excellent candidate for powering wearable
electronics and the “Internet of Things,” due to their capability of directly converting heat to …

All machines from jet engines to microprocessors generate heat, as do manufacturing
processes ranging from steel to food production. Thermoelectric generators (TEGs) are solid …

Advances in miniaturized portable electronics and progress on novel enabling technologies,
consequently accompanied by power consumption downgraded from the scale of milliwatts …

Compared with traditional cooling techniques, thermoelectric coolers have drawn massive
attention for small-scale cooling applications, particularly in medical practices …

Thermoelectric (TE) materials provide a solid‐state solution in waste heat recovery and
refrigeration. During the past few decades, considerable effort has been devoted towards …

Developing a thermoelectric generator (TEG) with shape conformable geometry for
sustaining low-thermal impedance and large temperature gradient (Δ T) is fundamental for …

Uninterrupted, efficient power supplies have posed a significant hurdle to the ubiquitous
adoption of wearable devices, despite their potential for revolutionizing human‒machine …

Body heat as a sustainable energy source can be harvested for wearable and implantable
devices. Flexible micro thermoelectric generators (TEGs) show great promise for converting …