OATAO - Open Archive Toulouse Archive Ouverte Open Access Week

Thermal, mechanical and fluid flow aspects of the high power beam dump for FRIB

Avilov, Mikhail and Aaron, Adam and Amroussia, Aida and Bergez, Wladimir and Boehlert, Carl and Burgess, Thomas and Carroll, Adam and Colin, Catherine and Durantel, Florent and Ferrante, Paride and Fourmeau, Tiffany and Graves, Van and Grygiel, Clara and Kramer, Jacob and Mittig, Wolfgang and Monnet, Isabelle and Patel, Harsh and Pellemoine, Frederique and Ronningen, Reginald and Schein, Mike Thermal, mechanical and fluid flow aspects of the high power beam dump for FRIB. (2016) Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms, 376. 24-27. ISSN 0168-583X

(Document in English)

PDF (Author's version) - Requires a PDF viewer such as GSview, Xpdf or Adobe Acrobat Reader

Official URL: https://doi.org/10.1016/j.nimb.2016.02.068


The Facility for Rare Isotope Beams (FRIB) under construction at Michigan State University is based on a 400 kW heavy ion accelerator and uses in-flight production and separation to generate rare isotope beams. The first section of the fragment separator houses the rare isotope production target, and the primary beam dump to stop the unreacted primary beam. The experimental program will use 400 kW ion beams from 16O to 238U. After interaction with the production target, over 300 kW in remaining beam power must be absorbed by the beam dump. A rotating water-cooled thin-shell metal drum was chosen as the basic concept for the beam dump. Extensive thermal, mechanical and fluid flow analyses were performed to evaluate the effects of the high power density in the beam dump shell and in the water. Many properties were optimized simultaneously, such as shell temperature, mechanical strength, fatiguestrength, and radiation resistance. Results of the analyses of the beam dump performance with different design options will be discussed. For example, it was found that a design modification to the initial water flow pattern resulted in a substantial increase in the wall heat transfer coefficient. A detailed evaluation of materials for the shell is in progress. The widely used titanium alloy, Ti–6Al–4V (wt%), is presently consideredas the best candidate, and is the subject of specific tests, such as studies of performance under heavy ion irradiation.

Item Type:Article
HAL Id:hal-02094234
Audience (journal):International peer-reviewed journal
Uncontrolled Keywords:
Institution:French research institutions > Commissariat à l'Energie Atomique et aux énergies alternatives - CEA (FRANCE)
French research institutions > Centre National de la Recherche Scientifique - CNRS (FRANCE)
Other partners > Ecole Nationale Supérieure d'Ingénieurs de Caen - ENSICAEN (FRANCE)
Université de Toulouse > Institut National Polytechnique de Toulouse - Toulouse INP (FRANCE)
Other partners > Michigan State University - MSU (USA)
Université de Toulouse > Université Toulouse III - Paul Sabatier - UT3 (FRANCE)
Laboratory name:
U.S. DOE Office of Science (USA) - Michigan State University - MSU (USA)
Deposited On:12 Mar 2019 10:01

Repository Staff Only: item control page