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In a significant stride toward sustainable energy, France’s WEST tokamak has set a new record by maintaining a hot plasma for 1,337 seconds, or just over 22 minutes. This achievement marks a crucial milestone for nuclear fusion research, as it demonstrates the ability to sustain a long and steady plasma operation—an essential requirement for future nuclear fusion power plants. Notably, this record surpasses the previous mark set by China’s EAST tokamak by approximately 25 percent. The success of this experiment is a testament to the resilience of the machine’s internal surfaces under tough operating conditions, a key factor in advancing fusion technology.

Understanding Plasma and Nuclear Fusion

Inside the WEST tokamak, physicists deploy strong magnetic fields to contain a fast-moving gas of charged particles, known as plasma. The plasma remains confined while heat and particle exhaust are carefully managed to ensure that the parts exposed to the plasma do not degrade. According to Anne-Isabelle Etienvre, Director of Fundamental Research at the Commissariat à l’énergie atomique et aux énergies alternatives (CEA), the facility achieved a new technological milestone by sustaining hydrogen plasma for over twenty minutes with the injection of 2 megawatts of heating power. This highlights the delicate balance required in controlling plasma, as even minor instabilities can escalate if not promptly addressed by the research team.

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What a Tokamak Does

A tokamak functions as a ring-shaped magnetic bottle where fields direct charged particles, allowing them to loop around the torus rather than collide with the walls. This method, known as magnetic confinement, enables scientists to heat a thin gas until atomic nuclei possess sufficient energy to fuse and release more energy. France is now preparing for the next phase with the ITER device, which is being assembled in the same region. ITER is designed to generate about 500 megawatts of fusion power from approximately 50 megawatts of heating power applied to the plasma, representing a significant leap in fusion energy production capabilities.

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How This Fits With Other Records

While the duration of plasma is a vital aspect of fusion research, energy output remains another critical indicator. The United Kingdom’s JET facility, for example, achieved a different milestone by producing 69 megajoules of fusion energy in a single five-second pulse using a minimal amount of fuel. This accomplishment demonstrated a high energy release over a short period, contrasting with WEST’s focus on stability over a longer duration without high fusion power output. Different fusion devices emphasize different aspects of fusion technology by design, creating a comprehensive roadmap of what future power plants must achieve to operate reliably and efficiently.

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Why Long Pulses Matter

A fusion power plant must operate for extended periods while remaining structurally healthy and maintaining stable temperatures. This involves ensuring a clean fuel supply and preventing the erosion or contamination of components by the plasma. Efficient exhaust handling is also essential, as the plasma must dissipate heat and particles in a controlled manner to keep metal surfaces within safe temperature limits. The materials used, such as tungsten in WEST’s divertor region, are crucial to this process, as they must withstand high temperatures while avoiding damage or contamination. Although a 22-minute plasma does not equate to net electricity production, WEST’s experiment focused on achieving stability and control, key factors in advancing fusion technology.

Plasma, Fusion, and the Future

The team at CEA plans to conduct longer experiments, gradually increasing plasma time and heating power. This ongoing research will provide valuable data for operating the ITER device when it becomes operational. The transition from experimental results to larger machines like ITER is crucial for moving fusion from laboratory settings to scenarios relevant to power plants. While fusion reactions do not produce long-lived radioactive waste as fission does, they can activate surrounding metal structures. This underscores the importance of material choice and design to manage activated components effectively. Despite these challenges, the progress at WEST brings us closer to achieving practical fusion energy, raising questions about the future role of fusion in meeting global energy needs.

As research progresses and records like those set by WEST are achieved, the potential for fusion energy to play a transformative role in the global energy landscape becomes increasingly clear. Each advancement in sustaining plasmas longer, hotter, and cleaner contributes to the foundation for future reactors. These reactors may one day offer substantial amounts of safe and reliable power. As we move forward, what role will fusion energy play in addressing the world’s growing demand for clean and sustainable energy sources?

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