NATIONAL UNIVERSITY CORPORATION INSTITUTE OF SCIENCE TOKYO

Their core work

Institute of Science Tokyo (formerly Tokyo Institute of Technology, one of Japan's premier science and engineering universities) brings deep specialist research capabilities to international consortia in two distinct technical domains. In terahertz electronics, their researchers work on resonant tunnelling diode devices — the semiconductor components that generate and detect THz-frequency radiation for imaging, radar, and communications. In green chemistry, they contribute expertise in heterogeneous catalysis for CO2 hydrogenation, developing catalyst systems that convert carbon dioxide into renewable methanol. They engage with EU-funded research exclusively as a specialist partner, contributing laboratory capabilities and scientific depth that complement European teams rather than leading consortia themselves.

What they specialise in

How they've shifted over time

Science Tokyo's two H2020 projects represent a striking domain shift rather than a gradual evolution within one field. Their 2018 entry into EU research was through terahertz electronics — a highly specialised area of semiconductor physics and photonics. By 2021, a different research group within the institution joined a green chemistry consortium focused on CO2 catalysis and renewable methanol, topics with no technical overlap with the THz work. This pattern is consistent with a large multidisciplinary university where independent research groups engage with EU consortia opportunistically, each bringing specialist depth in their own domain rather than the institution developing a single coherent EU research identity.

Their most recent EU engagement is firmly in energy transition chemistry, suggesting growing appetite within the institution for European collaborations on CO2 utilisation — a strategically important area for both Japan and the EU.

How they like to work

Science Tokyo participates exclusively as a partner or third-party contributor — never as a project coordinator — consistent with the typical role of non-European institutions in EU-funded research. They are embedded in large, multi-partner consortia: the TeraApps training network alone brought together 36 partners across 10 countries. This suggests they are most effective when approached as a targeted expert node within a broader consortium, contributing specific laboratory or intellectual capability, rather than as an administrative lead or consortium manager.

Across just two projects, Science Tokyo has accumulated 36 unique consortium partners spanning 10 countries — a broad footprint that reflects the large multi-partner character of MSCA training networks and RIA consortia rather than deep bilateral ties. Their network is inherently European-facing, with Japan as a third-country anchor bringing global research credibility.

What sets them apart

As one of Japan's top-ranked science and engineering universities, Science Tokyo brings international research prestige and world-class laboratory infrastructure that is genuinely rare among non-EU consortium members. For European project coordinators, including a Japanese institutional partner of this calibre satisfies international dimension requirements while adding credible scientific weight. Their dual presence in THz electronics and CO2 catalysis means they can serve as a high-profile specialist contributor in two technically demanding fields that have few competing non-EU partners at this level.

Highlights from their portfolio

• TeraApps
  MSCA Doctoral Training Network with 36 partners — Science Tokyo was among the few non-European institutions in a large European training consortium, contributing THz device expertise to doctoral education across the continent.
• LAURELIN
  RIA project on CO2-to-methanol conversion places Science Tokyo at the centre of one of Europe's highest-priority decarbonisation challenges, demonstrating the institution's reach into applied energy chemistry.