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South Korea's KSTAR to Conduct Long-Pulse Fusion Research in Tungsten Environment with European Institutions

The Korea Institute of Fusion Energy (KFE) announced on August 27 that it has signed implementation agreements with multiple fusion research institutions in France, Italy, Germany, and Finland to conduct joint research on long-duration plasma operation in a tungsten environment using the Korea Superconducting Tokamak Advanced Research (KSTAR) device. Partner institutions include the French Alternative Energies and Atomic Energy Commission (CEA), the Italian National Agency for New Technologies, Energy and Sustainable Economic Development (ENEA), the Max Planck Institute for Plasma Physics (IPP) in Germany, and the VTT Technical Research Centre of Finland (VTT). The institutions will focus on key technologies required for long-pulse operation of future fusion reactors...

2026-08-27

AMPERA and Lawrence Livermore National Laboratory Collaborate to Develop Advanced Nuclear Fuel

AMPERA announced on August 26 that it has established a strategic partnership with Lawrence Livermore National Laboratory (LLNL), which operates under the U.S. Department of Energy (DOE) National Nuclear Security Administration (NNSA) system. The two parties will collaborate on next-generation advanced nuclear fuels, with a focus on applications such as compact nuclear energy systems and subcritical reactor platforms. Under the collaboration arrangement, the two parties will jointly advance the development of manufacturing processes related to tristructural isotropic (TRISO) fuel. Project objectives include improving the reliability, licensability, and scalability of fuel manufacturing,...

2026-08-27

MIIT: Promote Future Industries Including Nuclear Fusion Energy as New Growth Drivers

The State Council Information Office held a press conference on August 26, where the Ministry of Industry and Information Technology (MIIT) briefed on efforts to fully implement the 15th Five-Year Plan and accelerate new industrialization. The MIIT stated that over the next five years, it will focus on optimizing the industrial structure, coordinating the transformation and upgrading of traditional industries, nurturing and strengthening emerging industries, and making forward-looking arrangements for future industries, while maintaining and developing a complete industrial system. In terms of future industry layout, the MIIT proposed promoting quantum technology, biomanufacturing, hydrogen energy and nuclear fusion energy, brain-computer interfaces, embodied intelligence, and sixth-generation mobile communications as new economic growth drivers. The inclusion of nuclear fusion energy in future industry directions reflects its important position in new industrialization and the cultivation of strategic emerging industries.

2026-08-27

Target Image of "Artificial Sun" China Huanliu-4 Released

The 2026 Fusion Energy Conference and Fusion Energy Week opened in Shanghai on the 25th. The target image of the "Artificial Sun" China Huanliu-4 was released at the opening ceremony. China Huanliu-4 is a fourth-generation magnetic confinement fusion large-scale scientific experimental device and the world's first high-temperature superconducting strong-field steady-state burning experimental platform. It will systematically verify the reliability of high-temperature superconducting strong-field magnets in complex fusion environments, demonstrate full-domain intelligent control of fusion reactors, and achieve long-duration steady-state operation of the device. Fusion energy is an important direction for the future development of human energy, and major countries around the world are competing to position themselves in the new track of fusion energy. Zhang Guangjun, Vice Minister of Science and Technology, pointed out on the same day that the 15th Five-Year Plan will incorporate controlled nuclear fusion as a future energy technology into key directions for energy innovation development, and list controlled nuclear fusion as a major national frontier science and technology project.

2026-08-26

Japan's JT-60SA Experimental Team Advances Preparations for Next Operation Phase

Preparations for the next phase of JT-60SA experimental activities are underway. The technical team is carrying out integrated commissioning as planned, while the experimental team is simultaneously refining related tools and software to enhance scientific output capabilities for the next operation phase. During a training course organized by QST, EUROfusion participants are learning how to configure discharge settings using the Human-Machine Interface (HMI) in preparation for the next JT-60SA campaign. Image credit: QST. The Third JT-60SA Experimental Team Workshop was held from July 27 to 31, 2026, at the Naka Institute of the National Institutes for Quantum Science and Technology (QST) in Japan. Approximately 50 experts attended, including 20 representatives from Europe...

2026-08-26

U.S. Research Reveals Diamond Melting Mechanism at High Pressure, Potentially Enhancing Inertial Confinement Fusion Performance

A research team at Lawrence Livermore National Laboratory (LLNL) in the U.S. recently published a study in Nature Physics reporting that the latest dynamic compression experiments have, for the first time, directly recorded atomic structural changes during diamond melting under extreme high pressure. The experiments showed that under high-pressure conditions, solid diamond can float in liquid metallic carbon, similar to ice floating on water. Diamond is not only a high-hardness carbon material but is also used as the fuel target capsule shell in inertial confinement fusion experiments. When intense lasers drive the capsule implosion, the compression and melting behavior of the diamond shell can affect whether the fusion fuel reaches the required high-temperature, high-pressure state. Meanwhile, the planetary science community has long focused on the high-pressure behavior of carbon in the deep interiors of ice giant planets...

2026-08-26

Japan's Helical Fusion Publishes Research Results on High-Temperature Superconducting Magnets

Helical Fusion recently announced that its joint research on high-temperature superconducting magnets with the National Institute for Fusion Science (NIFS) has passed peer review and been published in the Journal of Physics: Conference Series. The results, previously disclosed in a preliminary report, primarily validate the performance of high-temperature superconducting conductors for fusion reactor applications under strong magnetic fields and high currents. This study tested the UROCOIC high-temperature superconducting conductor independently developed by Helical Fusion. The research team fabricated the conductor into a double-pancake coil sample and used existing test equipment to simulate, as closely as possible, the magnetic field and current environment expected in future fusion reactors.

2026-08-26

South Korea launches next-generation nuclear energy research talent training program

South Korea's talent training program for postdoctoral researchers in the nuclear energy field has officially been launched, which will be based on university laboratories to promote future nuclear technology research, industry-academia-research cooperation, and employment linkage. On August 25, during the 2026 Climate and Energy Job Fair, the Ministry of Climate, Energy and Environment, the Korea Institute of Energy Technology Evaluation and Planning (KETEP), and the Korea Radiation Promotion Association held the next-generation energy leader training program in the nuclear energy field...

2026-08-26

China's Huanliu-4 High-Temperature Superconducting Magnet Development Roadmap Clarified

On August 25, during the 2026 Fusion Energy Conference and Fusion Energy Activity Week, the Yangtze River Delta Innovation Consortium, led by China Fusion Energy Co., Ltd., has clarified its development targets for high-temperature superconducting high-field tokamak magnets: to build the first 25T high-temperature superconducting high-field magnet development and testing line by 2028, and to complete prototype magnet development by 2030. The consortium is led by China Fusion Energy Co., Ltd., with members including Shanghai Superconductor, Eastern Superconductor, Shanghai Jiao Tong University, Shanghai Electric Nuclear Power Group, Chaoci Xinneng, Energy Singularity, Hangyang Group, and Yixi Technology. The consortium will focus on building high-temperature superconducting high-field tokamak magnet development capabilities and engineering technology systems to provide key technical support for the subsequent construction of China's Huanliu-4.

2026-08-26

U.S. Fusion Roadmap Targets Early Power Plant Deployment by Mid-2030s

The U.S. Department of Energy (DOE) recently released the "Fusion Science and Technology Roadmap," proposing to accelerate the deployment of early fusion power plants by the mid-2030s. The roadmap represents a key federal-level arrangement to advance fusion technology from experimental research toward engineering and commercialization, coordinated by the Office of Fusion established in November 2025. Unlike existing nuclear power plants that release energy through fission reactions, fusion devices attempt to fuse light atomic nuclei together, with an energy source principle identical to that of the Sun. Fusion power is regarded as a potential low-carbon energy direction, but the industry remains in the experimental and demonstration stage, with private developers yet to achieve commercial-scale net energy gain, i.e...

2026-08-26

US Pacific Fusion Breaks Ground on $1 Billion Fusion Facility in New Mexico

On August 25, local time, Pacific Fusion launched construction of a research and manufacturing campus in Albuquerque, New Mexico, USA. The project involves an investment of approximately $1 billion and will be used to build the company's fusion demonstration system, with goals including achieving net facility gain and producing high-yield fusion energy pulses. The campus is located in the Mesa del Sol area of Albuquerque. According to Pacific Fusion's plan, the demonstration system aims to achieve net energy gain at the facility level by 2030, meaning the fusion device outputs more energy than the total energy initially stored in the equipment. The company stated that if this goal is achieved, it will mark a significant technological milestone in the commercialization of fusion energy...

2026-08-26

Japan Completes Cryogenic Test of World's Largest Superconducting Toroidal Field Coil for ITER

Japan's National Institutes for Quantum Science and Technology (QST) and Toshiba Corporation announced on August 25 that they had successfully completed the first cryogenic current test of the world's largest superconducting toroidal field coil at the construction site of the International Thermonuclear Experimental Reactor (ITER). The test was conducted at an operating temperature of approximately minus 269 degrees Celsius, marking a critical technical milestone before ITER's commissioning. The superconducting toroidal field coil, also known as the TF coil, installed in the test facility is a key component of ITER's superconducting magnet system, used to generate the strong magnetic field required to confine plasma. During the test, the team cooled the coil from room temperature to cryogenic conditions, confirmed its transition to the superconducting state, and for the first time achieved stable conduction of 10,000 amperes of current while the coil was in the superconducting state.

2026-08-25

US Study Shows Inertial Fusion Implosions Can Tolerate Certain Asymmetries

Researchers at the Lawrence Livermore National Laboratory (LLNL) in the US have recently found that implosion designs for inertial fusion energy (IFE) can withstand considerable imperfections before performance degrades sharply. This result aids in the design of fuel targets for future fusion power plants, particularly in assessing the tolerance of target capsules to errors under high-frequency injection and laser-driven conditions. The study's simulation results show the density (top) and temperature (bottom) at the instant just before fusion reactions peak in an asymmetric implosion. The hottest spot coincides with the point of highest fuel density, indicating direct ignition of high-density fuel jets driven by asymmetry. The image was recently selected for the cover of Physics of Plasmas...

2026-08-25

U.S. Department of Energy Extends Princeton University Contract to Operate PPPL

The U.S. Department of Energy (DOE) and Princeton University have extended the contract under which Princeton University manages and operates the Princeton Plasma Physics Laboratory (PPPL). The laboratory is located on Princeton University's Forrestal Campus in Plainsboro, New Jersey. Under the new extension, the contract will be renewed for five years starting April 1, 2027. Princeton University expects to strengthen collaboration with faculty and research teams on campus during the contract period, explore next-generation fusion energy research facilities, and enhance laboratory infrastructure and safety to support ongoing operational needs. Princeton University's office for research affairs...

2026-08-25

Rock Fusion Completes Key Processes for Stellarator 3D Non-Planar Superconducting Prototype Coil

Recently, the stellarator high-strength stainless steel armored 3D non-planar superconducting prototype coil developed by Rock Fusion (Shanghai) Technology Co., Ltd. has completed two key processes: 3D precision winding and ground insulation wrapping. The overall 3D geometric error of the coil is consistently controlled at the millimeter level, indicating that the company has preliminarily established key manufacturing processes including material adaptation, 3D precision forming, and insulation wrapping for high-field steady-state stellarator superconducting magnets. The stellarator is an important device for steady-state controlled nuclear fusion research, and 3D superconducting coils are used to generate the complex magnetic fields required to confine plasma. Unlike conventional planar coils, stellarator coils typically feature non-planar spatial structures with continuously varying curvature...

2026-08-25