CEATEC 2026

Murata’s ultrasound transmission metamaterial enables ultrasonic detection through materials such as metal and resin, which are normally difficult for ultrasound to penetrate. Applied to these obstructing materials, the metamaterial increases ultrasound transmission, extending ultrasonic sensing to applications where internal conditions have traditionally been difficult to assess, including nondestructive testing, flow meters and biomedical applications.

A wearable technology patch that enables highly accurate sensing of trace substances in the body, such as glucose and alcohol. Designed for advanced wellness and health monitoring applications, its proprietary enzyme-based sensing technology captures target substances, enabling accurate detection of trace biomarkers that were previously difficult to measure.

A battery-free, wireless tag capable of sensing temperature, humidity, and strain. The technology enables real-time monitoring of conditions that have traditionally been difficult to assess, including bolt loosening and changes in concrete condition, and is designed to improve inspection and maintenance efficiency.

nspired by the information-processing mechanisms of biological nervous systems and sensory organs, this technology enables large-area, high-density sensing with ultra-low power consumption and low latency. Supporting applications like electronic skin for humanoid robots and equipment temperature monitoring, the system provides real-time detection of temperature distributions across a large surface area.

This solution equips an autonomous mobile robot (AMR) with a thermophone, a device that generates ultrasound using heat, to detect nearby obstacles. It measures distances from 1 cm to 2 m and can detect transparent objects such as glass, which can be difficult for optical sensors such as cameras to identify. It can also operate in high-glare environments, supporting obstacle detection for AMR applications.