Andrey A. Belyaev
National Scientific Center "Kharkiv Physical and Technological Institute",1, Academicheskaya St., Kharkiv, 61108, Ukraine
Dmitriy V. Fedorchenko
National Scientific Center "Kharkiv Physical and Technological Institute",1, Academicheskaya St., Kharkiv, 61108, Ukraine
Manap A. Khazhmuradov
National Scientific Center "Kharkiv Physical and Technological Institute",1, Academicheskaya St., Kharkiv, 61108, Ukraine
Alexey A. Lukhanin
National Scientific Center "Kharkiv Physical and Technological Institute",1, Academicheskaya St., Kharkiv, 61108, Ukraine
Oleksandr Lukhanin
Kharkov institute of physics and technology, 1, Akademicheskaya St., Kharkov, 61108, Ukraine
Yegor V. Rudychev
National Scientific Center "Kharkiv Physical and Technological Institute",1, Academicheskaya St., Kharkiv, 61108, Ukraine
Bahram Khalighi
General Motors Global R&D, 30500 Mound Rd., MC 480-106-256, Warren, MI 48090, USA
Taeyoung Han
General Motors Global R&D, Warren, MI 48092, USA
Erik Yen
General Motors Global R&D, Warren, MI 48092, USA
Upendra S. Rohatgi
Brookhaven National Laboratory, Bldg 197D, Upton, NY 11973, USA
Li-Ion batteries are currently used in hybrid and electric vehicles. Battery life and performance requires temperature control in narrow range. One of the methods considered is use of specially designed heat pipe. The study includes a heat pipe between two battery simulators. The heat pipe was cooled by air flow of 2.5 m/s and with temperature range of from 9°C to 40°C.
We have compared the measured surface temperature distributions to those which were received from computer simulation in order to obtain effective thermal conductivity of the heat pipe and its thermal performance. This effective thermal conductivity increases, as the inlet air temperature increases and reaches the value of 2500 W/(m×K).