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High temperature superconducting (HTS) rotating machines require sophisticated cooling system. Concerning the available HTS wire performance of field poles, it is essential to keep their temperature in the range of 28 K to 40 K. Natural convection-cooling system using thermosyphon is one cooling system capable of satisfying this temperature range. The heat transfer capacity of thermosyphon cooling system depends on the condenser, adiabatic tube and evaporator design. For optimized performance of a thermosyphon cooling system, a heat transfer capacity has to be studied. In this study, we focused on the heat transfer area of condenser part. Thermosyphon is one phenomena of heat transfer. It is constructed from condenser part, adiabatic part and evaporator part. In the condenser, the working fluid condenses and flows down by gravity. In the evaporator, working fluid vaporizes and moves by buoyancy to the condenser thereby completing the cycle. Introduction Thermosyphon

The effect of condensation area and operating temperature on heat transfer capacity of a closed loop thermosyphon cooling system for HTS machinery