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NEA irradiation system ready to deploy at MITR
A new irradiation experimental system is ready for deployment. The rig, which is the focus of In-Core Real-Time Mechanical Testing of Structural Materials (INCREASE-I), an OECD Nuclear Energy Agency project, will be used to conduct stress-relaxation tests of stainless steel at the Massachusetts Institute of Technology Reactor (MITR), according to the OECD NEA.
Oleg I. Buzhinskij, Yuri M. Semenets
Fusion Science and Technology | Volume 32 | Number 1 | August 1997 | Pages 1-13
Technical Paper | First-Wall Technology | doi.org/10.13182/FST97-A19875
Articles are hosted by Taylor and Francis Online.
A review of some characteristic features of the boronization process, properties of boron-carbon films, and the influence of these features on tokamak discharges is presented. Boronization, as defined here, is a plasma chemical vapor deposition of a thin a-B/C:H film on the first wall of fusion reactors. As a result of boronization, oxygen, carbon, and heavy impurities (e.g., iron, nickel, and chromium) are suppressed, and hydrogen recycling is reduced, which substantially improves the characteristics of tokamak discharges. A two-stage complex protection of both the first wall by boronization and of limiters, divertor plates, and radio-frequency antennas by the application of thick B4C coatings provides further improvement of tokamak plasma parameters.