Tokyo Tech, the predecessor of Science Tokyo , established the Tokyo Tech Tsubame Doctoral Student Scholarship in 2019 for doctoral students at the university. The Tsubame Scholarship for Doctoral ...
A novel coordination polymer-based photocatalyst for CO 2 reduction exhibits unprecedented performance, giving scientists at Tokyo Tech hope in the fight against global warming. Made from abundant ...
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 ...
The Global Scientific Information and Computing Center (GSIC) at Tokyo Tech started operation of its next-generation supercomputer, TSUBAME 4.0, on April 1. Since TSUBAME1.0 started operation in April ...
Controlling the crystal phase of cobalt nanoparticles leads to exceptional catalytic performance in hydrogenation processes, report scientists from Tokyo Tech. Produced via an innovative ...
Detailed measurements and analysis of the dielectric properties of polyimides could bolster the development of 6G wireless communication technologies, report scientists from Tokyo Tech and EM Labs, ...
In a new study, environmentally benign inverse-perovskites with high energy conversion efficiency have been reported by Tokyo Tech scientists with potential for practical application as thermoelectric ...
A movable seawall system, capable of generating sufficient electricity to raise gates and protect ports against tsunamis, has been proposed by researchers from Tokyo Tech. The system has been found ...
Tokyo Medical and Dental University and Tokyo Institute of Technology will merge on October 1, 2024, to form Institute of Science Tokyo (Science Tokyo). The merging universities have created a special ...
Popular Japanese mobile apps have malicious design elements called dark patterns or deceptive user interface designs, researchers from Tokyo Tech have found. A new class of dark patterns, called ...
Tokyo Institute of Technology (Tokyo Tech), Tohoku University, Fujitsu Limited, and RIKEN today announced that they will embark on the research and development of a distributed training of Large ...
フォークボールの落ちる理由が「負のマグヌス効果」であることを初めて解明。 投げた直後の球速、回転速度、回転軸（ボールの縫い目）が分かれば、その後のボールの軌道が予測可能に。
Some results have been hidden because they may be inaccessible to you
Show inaccessible results