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　　Industry Overview

　　Radio-frequency tags generally refer to radio-frequency identification technology. The underlying principle is non-contact data communication between a reader and a tag, enabling the identification of targets. RFID has a wide range of applications, including animal microchips, automotive anti-theft systems, access control, parking lot management, production-line automation, and material management.

　　Adhesive solution

　　Conductive adhesive for chip packaging; a strain sensor is a device that converts mechanical deformation into electrical signals such as resistance or capacitance. In 1885, British physicist Lord Kelvin discovered that when a metal undergoes mechanical deformation under stress—whether tensile or torsional—the resistance of the material exhibits a characteristic change, known as the strain–resistance effect. Inspired by this phenomenon, researchers began extracting information about the magnitude and nature of applied forces from changes in electrical resistance, leading to the development of so‑called strain sensors, which primarily include pressure‑type and tensile‑type strain sensors. Today, metals, metal alloys, and semiconductor materials exhibiting piezoresistive effects have become the principal sensing elements in strain‑gauge sensors and are widely employed. With the rapid advancement of science and technology, applications in areas such as biomedical diagnostics, rehabilitation medicine, intelligent robotics, and wearable devices increasingly demand precise measurements of complex mechanical structures—requiring not only robust strain‑resistance characteristics but also exceptional flexibility. However, due to the limitations imposed by the elastic moduli of metals, metal alloys, and semiconductors, metallic and semiconductor resistive strain sensors suffer from drawbacks including poor flexibility, limited sensitivity to mechanical stimuli, intricate structural designs, and high manufacturing costs. Consequently, conventional metallic or semiconductor resistive strain sensors face significant constraints in these fields and fail to meet the demands of contemporary technological progress. Therefore, developing a novel strain sensor with superior flexibility to satisfy the emerging requirements for sensor pliability has become an urgent priority in both technological innovation and practical application development.

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Product

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Conductive medium

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Solvent

Thixotropy index
Thixotropic
index

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Recommended
curing conditions

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Optional curing
conditions

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Character

Waen®EN100

Silver powder