Journal of Applied Physics · 2002 · 44 citations · 10 references
EngineeringMaterials EngineeringMaterials ScienceAir ConditioningElectromagneticsMagnetic MaterialsFerromagnetic MaterialsMagnetic ComponentsMagnetocaloric MaterialsPermanent Magnet MachinesPermanent MagnetsSuperconducting Magnet SystemsMagnetic Field StrengthMagnetic RefrigerationMagnetic Refrigeration MaterialsMagnetocaloric EffectMaterials DesignPermanent Magnet DesignRefrigeratorsSuperconducting Magnets
Recent research into the development of magnetic refrigeration (MR) operating at room temperature has shown that it can provide a reliable, energy-efficient cooling system. To enhance the cooling power of the magnetic refrigerator, it is required to use a magnetic refrigerant material with large magnetocaloric effect (MCE) at the appropriate temperature. Most advanced magnetic refrigerant materials show largest MCE at high applied magnetic fields generated by a superconducting magnet. For application of MCE to air conditioners or household refrigerators, it is essential to develop a permanent magnet array to form a compact, strong, and energy-efficient magnetic field generator. Generating a magnetic field well above the remanence of a permanent magnet material is hard to achieve through conventional designs. A permanent magnet array based on a hollow cylindrical flux source is found to provide an appropriate geometry and magnetic field strength for MR applications.
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Magnetocaloric effects of Laves phase Er(Co1−Ni )2 compounds
H. Wada, Y. Tanabe, M. Shiga et al. · Journal of Alloys and Compounds · 2001 · 115 citations
Natural Sciences, Materials Engineering, Materials Science +14