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Aerospace Nuclear Science & Technology
Organized to promote the advancement of knowledge in the use of nuclear science and technologies in the aerospace application. Specialized nuclear-based technologies and applications are needed to advance the state-of-the-art in aerospace design, engineering and operations to explore planetary bodies in our solar system and beyond, plus enhance the safety of air travel, especially high speed air travel. Areas of interest will include but are not limited to the creation of nuclear-based power and propulsion systems, multifunctional materials to protect humans and electronic components from atmospheric, space, and nuclear power system radiation, human factor strategies for the safety and reliable operation of nuclear power and propulsion plants by non-specialized personnel and more.
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Latest News
Framatome signs contracts with Sizewell C
French nuclear developer Framatome is slated to deliver key equipment for Sizewell C Ltd.’s two large reactors planned for the United Kingdom’s Suffolk coast.
The agreement, reportedly worth multiple billions of euros, was announced this week and will involve Framatome from the design phase until commissioning. The company also agreed to a long-term fuel supply deal. Framatome is 80.5 percent owned by France’s EDF and 19.5 percent owned by Mitsubishi Heavy Industries.
J. A. Snipes, D. J. Campbell, T. Casper, Y. Gribov, A. Loarte, M. Sugihara, A. Winter, L. Zabeo
Fusion Science and Technology | Volume 59 | Number 3 | April 2011 | Pages 427-439
Lecture | Fourth ITER International Summer School (IISS2010) | doi.org/10.13182/FST11-A11688
Articles are hosted by Taylor and Francis Online.
Controlling the plasma in ITER to achieve its primary mission goals requires a complex and sophisticated plasma control system (PCS) that will be based initially on those of existing tokamaks, with some significant differences. An overview of the physical phenomena on which the ITER PCS will be based is presented with particular emphasis on magnetohydrodynamic (MHD) instabilities. The ITER PCS is logically structured into five parts that work closely together: (a) wall conditioning and tritium removal; (b) plasma axisymmetric magnetic control, including plasma initiation, inductive plasma current, position, and shape control; (c) plasma kinetic control, including fueling, power and particle flux to the first wall and divertor, noninductive plasma current, plasma pressure, and fusion burn control; (d) nonaxisymmetric control, which includes sawteeth, neoclassical tearing modes, edge localized modes, error fields and resistive wall modes, and Alfven eigenmodes; and (e) event handling, including changing the control algorithm or scenario when a plant system fault or a plasma-related event occurs that could affect plasma operation, which includes disruption mitigation. At high plasma performance, the control of MHD instabilities will become particularly important in ITER to maintain the fusion burn and to avoid potential damage to the first wall.