AnswersPublished30 sources
China’s Fusion Power Plan: From EAST Experiments to BEST’s 2030 Electricity Target
China’s clearest fusion power pathway is EAST → CRAFT → BEST → a later demonstration reactor: BEST is targeted to demonstrate net fusion gain and fusion generated electricity around 2030, but that is a project goal—no... EAST has demonstrated long duration high confinement plasma operation, while CRAFT and BEST shif...
Published byEdited with GPT-5.6 TerraImages generated with GPT Image 2
Research answer
Key takeaways
- China’s clearest fusion power pathway is EAST → CRAFT → BEST → a later demonstration reactor: BEST is targeted to demonstrate net fusion gain and fusion generated electricity around 2030, but that is a project goal—no...
- EAST has demonstrated long duration high confinement plasma operation, while CRAFT and BEST shift the effort toward reactor grade magnets, components and power plant engineering.
- China has elevated fusion in its 2026–2030 Five Year Plan and Atomic Energy Law, pairing national programs with state backed companies, private capital and a growing superconducting magnet supply chain.
AI Prompt
openai.comCreate a landscape editorial hero image for this Studio Global article: How is China pursuing its ambition to generate electricity from fusion and “light the first lamp” of fusion power—through milestones at EAST. Article summary: China is pursuing fusion as a state-backed industrial program: use EAST to solve plasma physics, CRAFT to qualify reactor components, BEST to attempt pilot electricity in the early 2030s, and then move toward a commercia. Topic tags: general, government, general web, user generated, news. Style: premium digital editorial illustration, source-backed research mood, clean composition, high detail, modern web publication hero. Use reference image context only for broad subject, composition, and topical grounding; do not copy the exact image. Avoid: logos, brand marks, copyrighted characters, real person likenesses, fake screenshots, UI text, readable text, watermar
China is trying to turn fusion from an experimental-science program into an industrial power program. Its central strategy is a staged one: use EAST to improve plasma operation, CRAFT to test reactor systems, and BEST to pursue a fusion-electricity demonstration around 2030. The often-used phrase “lighting the first lamp” describes that ambition; it should not be mistaken for electricity already delivered by a commercial fusion plant. 25
45
50
The Hefei ladder: EAST, CRAFT and BEST
Hefei is the focal point of this strategy because it hosts all three major facilities: the Experimental Advanced Superconducting Tokamak (EAST), the Comprehensive Research Facility for Fusion Technology (CRAFT), and the Burning Plasma Experimental Superconducting Tokamak (BEST). Their functions are complementary rather than interchangeable. 25
47
EAST: learning to hold a fusion plasma steady
EAST is a superconducting tokamak designed to study long-duration, stable operation of high-temperature plasma—essential physics for any future magnetic-confinement power plant. In January 2025, it sustained high-confinement plasma for 1,066 seconds, or more than 17 minutes. 25
38
That milestone matters because fusion is not won simply by heating a plasma to an extreme temperature. A reactor must also confine the plasma, maintain its density and cleanliness, prevent damaging instabilities, and keep operating long enough for the system to be useful. Recent EAST research has focused on the plasma-density limit, reporting stable operation at extreme density when plasma-wall interactions are carefully controlled. 44
CRAFT: moving from plasma science to reactor hardware
CRAFT is intended to close the engineering gap between a tokamak experiment and an electricity-producing plant. It is a specialized research campus in Hefei for fusion technologies and reactor-core systems, alongside the region’s EAST and BEST projects. 25
47
This step is vital because a future reactor needs far more than a successful plasma pulse. Its magnets, heating and current-drive systems, plasma-facing surfaces, heat-handling components, and maintenance arrangements must work together in conditions that approximate a power plant. Reporting in 2026 described CRAFT as entering its final testing phase. 47
BEST: the attempt to turn fusion energy into electricity
BEST is the most direct link in China’s program to a power-generation claim. The compact superconducting tokamak is being assembled in Hefei and is intended to demonstrate net fusion energy gain and fusion-generated electricity around 2030. Its 400-tonne base was installed in late 2025; two superconducting magnets completed full-load tests in 2026, and the project is reported to be on track for completion by the end of 2027. 45
46
52
That is an exceptionally ambitious target. A successful BEST demonstration would be a major technical milestone, but it would not by itself establish a commercially viable power station. A plant must ultimately produce useful electricity after accounting for its own power demands, operate reliably for long periods, tolerate neutron damage, handle fuel requirements, and be economical to build and maintain.
Why 100–300 million °C is only the beginning
Magnetic-confinement fusion seeks to make light atomic nuclei fuse inside a plasma held away from the reactor wall by powerful magnetic fields. The extreme temperatures associated with fusion are necessary to create the conditions for reactions, but temperature alone does not solve the problem.
China’s tokamak route depends on several linked capabilities:
- Long-duration confinement: EAST’s extended high-confinement operation addresses the need to keep plasma stable rather than merely achieve a brief pulse.
25
38
- Density and wall control: The reported density-regime result at EAST highlights how plasma-wall interaction can limit, or potentially enable, higher-performance operation.
44
- High-field superconducting magnets: Stronger magnetic fields can improve confinement and potentially support more compact machines. In August 2026, a Yangtze River Delta consortium led by China Fusion Energy said it would develop engineering capabilities for high-temperature-superconducting, high-field tokamak magnets.
18
- Reactor engineering: CRAFT and BEST represent the effort to turn these individual technologies into an integrated machine.
45
AI-based control and advanced manufacturing may help optimize and build these systems, but they do not remove the core reactor challenges. The decisive question is whether the full system can run safely, repeatedly and affordably—not whether any one subsystem reaches a headline milestone.
Policy turns fusion into a national industrial priority
China’s policy framework now explicitly backs fusion development. The 15th Five-Year Plan for 2026–2030 lists nuclear fusion among future-development priorities. 1
8
The Atomic Energy Law took effect on January 15, 2026. It provides a framework for atomic-energy research, development and peaceful use, and explicitly encourages scientific research and technological development in controlled thermonuclear fusion. 7
Institutionally, China has also created China Fusion Energy Co., a subsidiary of the China National Nuclear Corporation. It was unveiled with registered capital of 15 billion yuan, or about $2.1 billion, providing a state-backed vehicle for coordinating development and industrial participation. 30
A wider capital and supply-chain push
The fusion race is attracting capital globally as well as in China. The Fusion Industry Association reported that 56 surveyed fusion companies raised $4.48 billion in the 12 months to July 2026, lifting cumulative reported funding since 2021 to $14.24 billion. The association and Reuters noted that this survey gives an incomplete view of China, where several firms are backed by both government and private funding. 34
39
Chinese financing activity includes a 1 billion yuan Series A round for Startorus Fusion and an 830 million yuan seed round for Hefei Xinghe Fusion. 21
23 Shanghai-based fusion companies had collectively raised nearly 18 billion yuan by September 2026, according to Yicai Global, illustrating that Hefei is a leading hardware cluster but not China’s only fusion center.
17
The investment is particularly relevant for magnets, specialized materials, cryogenic equipment, vacuum systems and precision manufacturing. The new high-temperature-superconducting magnet consortium is a concrete example of China’s attempt to build domestic engineering capacity around a strategic bottleneck. 18
What comes after BEST?
The longer-term roadmap points beyond BEST to the planned China Fusion Engineering Test Reactor (CFETR), which is positioned as a bridge between international experimental programs and commercial fusion plants. CFETR remains planned rather than operational. 11
36
47
This creates two different timelines that are often blurred together:
- Around 2030: a BEST-led attempt at net fusion gain and a first fusion-electricity demonstration.
50
- Later decades: a demonstration reactor and, only after that, a station capable of sustained commercial operation.
Analyses of China’s fusion sector generally frame commercial generation as a 2030s-to-2040s objective, not an established schedule. 8 The distinction matters: a demonstration that powers a small load would be historic, while a power plant that can operate reliably, replace damaged components, manage fuel, and compete with other low-carbon generation is a much higher bar.
The bottom line
China’s advantage is not that it has already solved fusion power. It is that it is pursuing the problem as a connected national program: plasma research at EAST, reactor-system testing at CRAFT, a power-demonstration target at BEST, policy support, state-backed coordination and an expanding industrial base.
BEST’s 2030 target is the key near-term test. If it succeeds, China would have advanced the global fusion race from long-duration plasma research toward an integrated electricity demonstration. But “the first lamp” remains a target, and commercial fusion will still depend on proving durable, repeatable and economically credible plant operation. 45
50
Studio Global AI
Continue your research
This page includes a source-backed answer you can continue inside Studio Global.
People also ask
What is the short answer to "China’s Fusion Power Plan: From EAST Experiments to BEST’s 2030 Electricity Target"?
China’s clearest fusion power pathway is EAST → CRAFT → BEST → a later demonstration reactor: BEST is targeted to demonstrate net fusion gain and fusion generated electricity around 2030, but that is a project goal—no...
What are the key points to validate first?
China’s clearest fusion power pathway is EAST → CRAFT → BEST → a later demonstration reactor: BEST is targeted to demonstrate net fusion gain and fusion generated electricity around 2030, but that is a project goal—no... EAST has demonstrated long duration high confinement plasma operation, while CRAFT and BEST shift the effort toward reactor grade magnets, components and power plant engineering.
What should I do next in practice?
China has elevated fusion in its 2026–2030 Five Year Plan and Atomic Energy Law, pairing national programs with state backed companies, private capital and a growing superconducting magnet supply chain.