Appears to be fully geared towards hot fusion:
Japan fusion energy start-up a venture capital darling - Asia Times
Japan fusion energy start-up a venture capital darling
Kyoto Fusioneering’s latest capital raising is oversubscribed as big money players pile into its nuclear fusion energy ambitions
On February 2, Kyoto Fusioneering announced it had raised 1.33 billion yen (US$11.7 million) in an oversubscribed Series B funding, the second round of financing arranged for a company by venture capitalists.
Kyoto Fusioneering is a Japanese engineering company dedicated to solving the problem of global warming through the development of nuclear fusion energy, which produces no carbon dioxide. Spun out of Kyoto University in October 2019, it is Japan’s first fusion energy startup.
As noted on the company’s website: “Kyoto Fusioneering’s mission is to tackle the reactor engineering and technology challenges, whilst cooperating with fusion developers around the world, to rapidly accelerate the growth of the fusion industry.
“The company’s business model is to conduct R&D and design of innovative fusion reactor technologies, and to provide these alongside engineering solutions to both private fusion enterprises and publicly-funded fusion programs at global research institutions.”
Combining fusion energy and plant engineering technology, it develops materials, components and power generation systems, and provides engineering and design support to customers around the world.
Kyoto Fusioneering was co-founded by CEO Taka Nagao, Chief Fusioneer [CTO] Satoshi Konishi, Chief Strategist Shutaro Takeda and Chief Innovator & UK director Richard Pearson. They now have about 30 employees.
Taka Nagao, a graduate of and affiliated scientist at Kyoto University, was previously director of Corporate Strategy at Space BD, a Japanese provider of satellite launch and other space utilization services, and director and corporate strategy manager at ENERES, a Japanese energy supply-demand management and distribution services company.
Satoshi Konishi, a professor at Kyoto University’s Institute of Advanced Energy and director of its Institute of Sustainable Science, was previously chairman of the International Coordinating Committee for the ITER Test Blanket Program.
ITER is an international organization dedicated to building a nuclear fusion reactor. Its members are China, the European Union, India, Japan, South Korea, Russia, the UK and the United States.
As described on its website: “The ITER blanket, which covers a surface of 600 m², is one of the most critical and technically challenging components in ITER …
“The 440 blanket modules that completely cover the inner walls of the vacuum vessel protect the steel structure and the superconducting toroidal field magnets from the heat and high-energy neutrons produced by the fusion reactions.
“As the neutrons are slowed in the blanket, their kinetic energy is transformed into heat energy and collected by the water coolant. In a fusion power plant, this energy will be used for electrical power production ….”
Since nuclear fusion reactions can be hotter than the sun, “most critical and technically challenging” is not an understatement.
Shutaro Takeda, a professor at Kyoto University, has served as an International Program Advisory Committee Member for Fusion Enterprises Workshop at the International Atomic Energy Agency (IAEA) and as an Expert to the Fusion Energy Sciences Advisory Committee of Japan’s Ministry of Education, Culture, Sports, Science and Technology (MEXT).
Richard Pearson has a PhD in Engineering and Innovation from The Open University, UK, an MSc in Nuclear Engineering from Imperial College London, UK, and is a visiting researcher at Kyoto University. He is in charge of the company’s global marketing effort, which has already made significant progress.
Last October, it was announced that Kyoto Fusioneering had been awarded a contract to provide services to the United Kingdom Atomic Energy Authority (UKAEA) under its Tritium Engineering Framework. Tritium (hydrogen-3) is a radioactive isotope of hydrogen.