Abstract
Scientific and technical advancements have been made that improve fusion's prospects to provide a new energy source, showing enhanced plasma confinement conditions with plasma temperatures reaching or exceeding 100 million degrees. Overshadowing this progress is the challenge involved in developing an economically viable fusion power plant design. Many proposed next-step DEMO and pilot plant designs are extensions of existing physics-focused experimental devices defined to understand and control plasma operations to achieve and sustain a fusion reaction. Transitioning scientific and technical advancements into a functional power plant requires a dedicated focus on architectural designs that integrate diverse technologies, while optimizing physics conditions, with a focus on economic viability. This holistic approach is essential in turning the promise of fusion energy into a reality. The Spherical Tokamak Advanced Reactor (STAR) is a fusion power plant conceptual design with the architectural focus that strives to balance physics, engineering, and cost considerations. It has been set up to introduce relevant physics, engineering and concept features that an intermediate pilot plant might follow, with the goal of meeting system performances and economic requirements that lead to a commercially competitive fusion power plant.
| Original language | English (US) |
|---|---|
| Article number | 115461 |
| Journal | Fusion Engineering and Design |
| Volume | 222 |
| DOIs | |
| State | Published - Jan 2026 |
All Science Journal Classification (ASJC) codes
- Civil and Structural Engineering
- General Materials Science
- Nuclear Energy and Engineering
- Mechanical Engineering
Keywords
- Blanket segmentation
- Device availability
- NNB heating
- Reactor design
- Remote maintenance