Analyzing a Component of the ITER Tokamak with Simulation

Analyzing a Component of the ITER Tokamak with Simulation

comsol Brianne Costa | April 12, 2016 We can solve many of the world’s energy sustainability problems by harnessing the power of the sun through fusion energy. Tokamaks are devices that test the practicality of employing fusion energy on Earth. ITER, which will be the largest tokamak on Earth when complete, has required years of … Read more

First plasma in upgraded extreme materials-facility Magnum-PSI

First plasma in upgraded extreme materials-facility Magnum-PSI

Differ 8 June 2016 DIFFER’s facility Magnum-PSI produced its first plasma on Wednesday 8 June 2016, a major milestone in the relocation of this unique experiment for fusion wall materials. Magnum-PSI will be fully operational again at the end of 2016, and is the only laboratory setup in the world capable of investigating candidate materials … Read more

10 Facts You Should Know About Fusion Energy

10 Facts You Should Know About Fusion Energy

PPPL By Larry Bernard, January 25, 2016 It’s natural. In fact, it’s abundant throughout the universe. Stars – and there are billions and billions of them – produce energy by fusion of light atoms. It’s safe. There are no dangerous byproducts. It produces some radioactive waste, but that requires only decades to decay, not thousands … Read more

AFTER ITER

AFTER ITER

ITER The next step after ITER will be a demonstration power plant—or DEMO—that will explore continuous or near-continuous (steady-state) operation. Decades of fusion research and generations of fusion devices have contributed to the design of ITER. And ITER, in its turn, will contribute to the design of the next-generation machine—DEMO—that will bring fusion research to … Read more

A tokamak must breathe

A tokamak must breathe

ITER 06 JUN, 2016 When plasmas ten times hotter than the core of the Sun begin pulsating inside the ITER vacuum vessel, the combined mass of the Tokamak and cryostat (25,000 tons) will need a bit of breathing space. Not much—but enough to accommodate the wobbling, expansions and occasional displacements caused by the tremendous forces … Read more

NSTX upgraded to the world’s most powerful Spherical tokamak

NSTX upgraded to the world’s most powerful Spherical tokamak

FuseNet The National Spherical Torus Experiment (NSTX) was built at the Princeton Plasma Physics Laboratory (PPPL) and started operation in 1999. The goal of the device is to study the physics of spherically shaped fusion plasmas, which are claimed to have several advantages over the traditional doughnut-shaped plasmas. Consequently, there is considerable interest in these … Read more

Compact tokamaks: the approach to bring fusion energy within reach

Compact tokamaks: the approach to bring fusion energy within reach

WNN by David Kingham | 31 May 2016 Fusion reactor development could proceed much more rapidly by scaling down the size of reactors being developed, potentially helping the first compact fusion pilot plants to be ready to produce electricity for the first time within the next decade, writes David Kingham. Nuclear fusion is the creative … Read more

Compact spherical tokamak would be 100 times smaller than ITER and has a chance to start operating decades earlier

Compact spherical tokamak would be 100 times smaller than ITER and has a chance to start operating decades earlier

Next Big Future May 31, 2016 Startup company Tokamak Energy has published three papers showing size is not an important factor in fusion reactors and proving that a compact spherical tokamak reactor can produce high power. This turns the pursuit of fusion into a series of engineering challenges. The Tokamak Energy plan will overcome these … Read more