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Magnetic transition and large reversible magnetocaloric effect in EuCu_(1.75)P_2 compound

Magnetic transition and large reversible magnetocaloric effect in EuCu_(1.75)P_2 compound
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摘要 The magnetocaloric effect(MCE) in EuCu1.75P2 compound is studied by the magnetization and heat capacity measurements.Magnetization and modified Arrott plots indicate that the compound undergoes a second-order phase transition at TC ~ 51 K.A large reversible MCE is observed around TC.The values of maximum magnetic entropy change(-△SxMma) reach 5.6 J·kg^-1·K-1 and 13.3 J·kg^-1·K-1 for the field change of 2 T and 7 T,respectively,with no obvious hysteresis loss in the vicinity of Curie temperature.The corresponding maximum adiabatic temperature changes(△Tadmax) are evaluated to be 2.1 K and 5.0 K.The magnetic transition and the origin of large MCE in EuCu1.75P2 are also discussed. The magnetocaloric effect(MCE) in EuCu1.75P2 compound is studied by the magnetization and heat capacity measurements.Magnetization and modified Arrott plots indicate that the compound undergoes a second-order phase transition at TC ~ 51 K.A large reversible MCE is observed around TC.The values of maximum magnetic entropy change(-△SxMma) reach 5.6 J·kg^-1·K-1 and 13.3 J·kg^-1·K-1 for the field change of 2 T and 7 T,respectively,with no obvious hysteresis loss in the vicinity of Curie temperature.The corresponding maximum adiabatic temperature changes(△Tadmax) are evaluated to be 2.1 K and 5.0 K.The magnetic transition and the origin of large MCE in EuCu1.75P2 are also discussed.
出处 《Chinese Physics B》 SCIE EI CAS CSCD 2013年第2期460-463,共4页 中国物理B(英文版)
基金 Project supported by the National Natural Science Foundation of China (Grant No. 11004044) the Natural Science Foundation of Zhejiang Province,China(Grant No. Y4110581)
关键词 EuCu1.75P2 compound magnetocaloric effect magnetic transition critical behavior EuCu1.75P2 compound,magnetocaloric effect,magnetic transition,critical behavior
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