Fabrics represent a unique platform for seamlessly integrating electronics into everyday
experiences. The advancements in functionalizing fabrics at both the single fibre level and …

Considerable thermal energy is emitted into the environment from human activities and
equipment operation in the course of daily production. Accordingly, the use of thermoelectric …

Fiber‐based electronics are essential components for human‐friendly wearable devices due
to their flexibility, stretchability, and wearing comfort. Many thermoelectric (TE) fabrics are …

With the development and prosperity of Internet of Things (IoT) technology, wearable
electronics have brought fresh changes to our lives. The demands for low power …

Thermoelectrics (TEs), enabling the direct conversion between heat and electrical energy,
have demonstrated extensive application potential in biomedical fields. Herein, the …

Bi 2 Te 3-based crystal ingots produced by zone melting (ZM) are the most widely used
materials to manufacture commercial thermoelectric (TE) devices. However, the poor …

High-performance thermoelectric fibers with n-type bismuth telluride (Bi2Te3) core were
prepared by thermal drawing. The nanosheet microstructures of the Bi2Te3 core were …

As the field of wearable electronics continues to expand, the integration of inorganic
thermoelectric (TE) materials into fabrics has emerged as a promising development due to …

Functional fibers, retaining nanoscale characteristics or nanomaterial properties, represent a
significant advance in nanotechnology. Notably, the combination of scalable manufacturing …

Wearable thermal sensors based on thermoelectric (TE) materials with high sensitivity and
temperature resolution are extensively used in medical diagnosis, human–machine …