Research Activities at Imperial Applicant may stay at Imperial for one to three months, engage in research activities in a laboratory of their choice. Applicant will need to find his/her own host ...

A new D-band CMOS transceiver chipset with 56 GHz signal-chain bandwidth achieves the highest transmission speed of 640 Gbps for a wireless device realized with integrated circuits, as reported by ...

A technology for the three-dimensional integration of processing units and memory, as reported by researchers from Tokyo Tech, has achieved the highest attainable performance in the whole world, ...

Penguins generate centripetal force when turning by pointing their belly inwards and moving their wings asymmetrically, as shown by scientists at Tokyo Tech. Their findings shed light on the ...

The issue of battery usage inefficiency in electric vehicles resulting from an inaccurate battery charge measurement may finally get resolved, thanks to a diamond quantum sensor prototype developed in ...

The 'EX-Fusion Liquid Metal Collaborative Research Cluster' has been established with the support of the Tokyo Tech's Open Innovation Platform. It aims to provide support for research management, ...

要点 伝導率が世界最高の固体電解質の超リチウムイオン伝導体を開発。 開発した材料を用いて電極面積あたりの容量が現行の1.8倍の厚膜正極を作製し、優れた電池特性を実証。 開発した厚膜正極と次世代電池材料として注目されているリチウム金属負極を利用して、大容量・大電流特性を示す ...

The discovery of Ba2LuAlO5 as a promising proton conductor paints a bright future for protonic ceramic fuel cells, report scientists from Tokyo Tech. Experiments show that this novel material has a ...

To reduce the energy requirements of the Haber-Bosch process, which converts nitrogen and hydrogen to ammonia, researchers from Tokyo Tech have developed a metal nitride catalyst containing an active ...

Proteins have various functions in vivo that can potentially be applied to pharmaceuticals and nanomaterials as a naturally-derived material. A research group of doctoral student Kosuke Kikuchi and ...

Au-decorated BiFeO3 nanocrystals are promising, efficient, and sustainable photocatalysts for environmental pollutant degradation, as shown by scientists at Tokyo Tech. Their findings on the ...

要点 従来の材料より175倍高い酸化物イオン（O2−）伝導度を持つBa7Nb3.8Mo1.2O20.1を創製 新材料は高いプロトン（H+）伝導度、高い安定性、希土類や鉛を含まないこと、低い焼結温度という低環境負荷といった特徴も持つ バケツリレー型超高速酸化物イオン伝導などの、新しいイオン伝導機構を ...