Subheader Icon 877-412-3651
Article Construction of the Largest Fusion Reactor in the World has Began Image
Image by Markus Distelrath from Pixabay

The world’s largest fusion reactor has entered the construction phase, and it’s planned for activation in 2025. Named the “International Thermonuclear Experimental Reactor”, the project started about three decades ago and was initially co-funded by the EU, USA, Russia, China, India, Japan, and South Korea. That said, it’s a global effort to create something that would change the field of energy generation forever, and the hopes are high that it will achieve this.

The first parts of the 25,000 ton reactor are on their way to Saint-Paul-lès-Durance, in France, where the ITER is based. The site preparations started in 2008, the excavation completed in 2010, and the completion of the “Tokamak” construction that is going to host the humongous reactor was completed in 2017. We are in the assembly phase now, with welders constructing the vessel, which is planned for completion in 2025.

When this happens, the engineers will power up the behemoth and then they’ll wait for it to reach fusion-level temperatures. That should take roughly another decade, so by 2035, ITER may enter fully-operational and energy-outputting status. If everything goes as planned, ITER will be able to produce 500 MW of thermal power and sustain that for 1,000 seconds (almost 17 minutes) inside its 840 m3 deuterium/tritium filled reactor chamber.

Until then, other similar projects that feature smaller tokamaks may come into fruition sooner, so we may get to see the concept of nuclear fusion reactors proven in practice before the ITER outputs any power. When it does though, it’s going to be the change in gear that everyone in the field has been waiting and hoping for.

Nuclear fusion reactors are theoretically (and proved in the experimental level) able to produce power by using very little fuel and unlocking its nuclear power through the fusion of two atomic nuclei in a heavier one. This presupposes the overcoming of various technical and practical barriers, as well as the maintenance of extreme pressure and temperature conditions, but if done right, it can keep giving power almost indefinitely.

Related Articles

Latest PyroGenesis Wins Second Ti64 Titanium Powder Order Image
Metals

PyroGenesis Wins Second Ti64 Titanium Powder Order

PyroGenesis will supply coarse-cut Ti64 titanium powder to a U.S. applied research facility for electron beam melting research. Credit: PyroGenesis Inc. PyroGenesis has received a second commercial order for Ti64 titanium powder from a large U.S. applied research facility supported by the Department of Defense and NASA. The repeat order comes less than a week after the same customer placed its

Latest China’s World-First Plant Turns 5.56 Million Tons of Mine Waste Into Iron Every Year Image
Industry News

China’s World-First Plant Turns 5.56 Million Tons of Mine Waste Into Iron Every Year

China has started operating a groundbreaking industrial facility that could change how the world looks at mining waste. The plant in Anshan, Liaoning province, can process 5.56 million metric tons of difficult iron ore and mine tailings every year. Turning Mining Waste Into a Resource Mining produces huge amounts of leftover material after valuable minerals are separated from rock. Much of t

Latest Inconel vs Titanium: Strength, Heat Resistance & Cost Compared Image
Metals

Inconel vs Titanium: Strength, Heat Resistance & Cost Compared

The Inconel vs titanium decision comes down to the part’s hardest requirement. Inconel protects strength in extreme heat and aggressive process conditions. Titanium carries structural loads at far less weight, with excellent corrosion resistance. Engineers and buyers should compare specific grades, product forms, heat treatments, and design allowables — not two broad material families. This gui

Latest DOE Funds 10 U.S. Materials Recycling Projects Image
Industry News

DOE Funds 10 U.S. Materials Recycling Projects

Ten research teams will receive $4.8 million to develop materials recovery, remanufacturing and recycling technologies for U.S. manufacturing. Credit: REMADE Institute The U.S. Department of Energy’s REMADE Institute has awarded $4.8 million to 10 materials recycling projects designed to move manufacturing technologies closer to commercial use. Several projects focus directly on aluminium, stee