@article{oai:repo.qst.go.jp:00048987,
 author = {西山, 幸一 and Ｊｕａｎ, Ｋｎａｓｔｅｒ and 奥村, 義和 and Marqueta, Alvaro and Pruneri, Giuseppe and Scantamburlo, Francesco and 坂本, 慶司 and 杉本, 昌義 and 春日井, 敦 and 平田, 洋介 and 近藤, 恵太郎 and 池田, 幸治 and 前原, 直 and 一宮, 亮 and 新屋, 貴浩 and 伊原, 彰 and 北野, 敏彦 and Beauvais, Pierre-Yves and Gobin, Raphael and Bolzon, Benoit and Integrated, Project Team LIPAc and 西山 幸一 and Ｊｕａｎ Ｋｎａｓｔｅｒ and 奥村 義和 and Alvaro Marqueta and Giuseppe Pruneri and Francesco Scantamburlo and 坂本 慶司 and 杉本 昌義 and 春日井 敦 and 平田 洋介 and 近藤 恵太郎 and 池田 幸治 and 前原 直 and 一宮 亮 and 新屋 貴浩 and 伊原 彰 and 北野 敏彦 and Benoit Bolzon},
 journal = {Fusion Engineering and Design},
 month = {Jan},
 note = {The goal of LIPAc (Linear IFMIF Prototype Accelerator) is to achieve a 125 mA, 9 MeV, CW (continuous wave, i.e. 100% duty cycle) deuteron beam with an average beam power of 1.125 MW. In the beam current mea- surement, it is considered that calorimetric measurement is advantageous for high current and CW operations since it is not subject to secondary electrons, etc. In calorimetric measurements, it is necessary to measure the temperature rise of the cooling water as accurately as possible. We applied this method to LIPAc proton beams at the Beam Stop unit. In order to check the reliability, we inserted a heater in the cooling loop as a heat source and obtained correlation between the applied and measured power, which was found to be 1.0. Moreover, using this heater, accuracy of this measurement with respect to the flow rate of the cooling water was investigated. Due to heat transfer and the fluctuations of water temperature, etc., there is a range of flow rates in which the measurement error can be minimized with our calorimetric measurement system.},
 pages = {1--4},
 title = {Development of calorimetry methodology for beam current measurement of the Linear IFMIF Prototype Accelerator (LIPAc)},
 volume = {126},
 year = {2018}
}