News
Information about Tokyo Institute of Technology (Tokyo Tech), Admission Information, Enrollment Information, Introduction to Departments and Graduate Schools, Research Activities, Libraries and ...
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 ...
The discovery of Ba 2 LuAlO 5 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 ...
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 ...
Tokyo Institute of Technology (Tokyo Tech) and EX-Fusion Inc. (EX-Fusion) have established a Collaborative Research Cluster focused on advancing liquid metal devices [1] for the realization of ...
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 ...
東京工業大学(以下、東工大) 情報理工学院 情報工学系の岡崎直観教授と横田理央教授らの研究チームと国立研究開発法人 産業技術総合研究所(以下、産総研)は、日本語能力に優れた生成AIの基盤である大規模言語モデル [用語1] 「Swallow」を公開した [参考リンク1] 。
In-cell engineering can be a powerful tool for synthesizing functional protein crystals with promising catalytic properties, show researchers at Tokyo Tech. Using genetically modified bacteria as an ...
1 Research Center for Element Strategy, International Research Frontiers Initiative, Tokyo Institute of Technology, Japan. 2 Research Center for Magnetic and Spintronic Materials, National Institute ...
The Haber-Bosch process, which is commonly used to synthesize ammonia (NH 3)–the foundation for synthetic nitrogen fertilizers–by combining hydrogen (H 2) and nitrogen (N 2) over catalysts at high ...
(左から)菅野了次特命教授、堀智特任准教授 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 ...
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 ...
Results that may be inaccessible to you are currently showing.
Hide inaccessible results