Javascript must be enabled to continue!
Research progress in magnetocaloric effect materials
View through CrossRef
Magnetocaloric effect(MCE) is the intrinsic property of a magnetic material near transition temperature and the magnetic refrigeration based on MCE has been demonstrated as a promising alternative to the conventional gas compression or expansion refrigeration due to its high energy efficiency and environmental friendliness. The development of magnetic refrigeration technology depends on the research progress of magnetic refrigerant materials with large MCEs. Lots of researches of material exploration and material optimization have promoted the progress of magnetic refrigeration technology in recent decades. In this paper, we introduce the basic theory of MCE and the development of refrigeration technology, review the research progress of large MCE materials both in low temperature range and in room temperature range, and specifically focus on the latest progress of some MCE materials. Low temperature MCE materials mainly include those rare earth based materials with low transition temperatures, such as binary alloys(RGa, RNi, RZn, RSi, R3Co and R12Co7), ternary alloys(RTSi, RTAl, RT2Si2, RCo2B2 and RCo3B2), and quaternary alloys(RT2B2C), where R denotes the rare earth and T represents the transition metal. Those materials mainly possess the second-order phase transitions and show good thermal hysteresis, magnetic hysteresis, and thermal conductivities. Room temperature MCE materials are mainly Gd-Si-Ge intermetallic compounds, La-Fe-Si intermetallic compounds, MnAs-based compounds, Mn-based Heusler alloys, Mn-based antiperovskite compounds, Mn-Co-Ge intermetallic compounds, Fe-Rh compounds, and perovskite-type oxides. The above materials usually have the first-order phase transitions and most of these materials possess the large MCEs in room temperature range, therefore they have received much attention home and abroad. Among those room temperature MCE materials, the La-Fe-Si series is considered to be the most promising magnetic refrigerant materials universally and our country has independent intellectual property rights of them. The further development prospects of MCE materials are also discussed at the end of this paper.
Acta Physica Sinica, Chinese Physical Society and Institute of Physics, Chinese Academy of Sciences
Title: Research progress in magnetocaloric effect materials
Description:
Magnetocaloric effect(MCE) is the intrinsic property of a magnetic material near transition temperature and the magnetic refrigeration based on MCE has been demonstrated as a promising alternative to the conventional gas compression or expansion refrigeration due to its high energy efficiency and environmental friendliness.
The development of magnetic refrigeration technology depends on the research progress of magnetic refrigerant materials with large MCEs.
Lots of researches of material exploration and material optimization have promoted the progress of magnetic refrigeration technology in recent decades.
In this paper, we introduce the basic theory of MCE and the development of refrigeration technology, review the research progress of large MCE materials both in low temperature range and in room temperature range, and specifically focus on the latest progress of some MCE materials.
Low temperature MCE materials mainly include those rare earth based materials with low transition temperatures, such as binary alloys(RGa, RNi, RZn, RSi, R3Co and R12Co7), ternary alloys(RTSi, RTAl, RT2Si2, RCo2B2 and RCo3B2), and quaternary alloys(RT2B2C), where R denotes the rare earth and T represents the transition metal.
Those materials mainly possess the second-order phase transitions and show good thermal hysteresis, magnetic hysteresis, and thermal conductivities.
Room temperature MCE materials are mainly Gd-Si-Ge intermetallic compounds, La-Fe-Si intermetallic compounds, MnAs-based compounds, Mn-based Heusler alloys, Mn-based antiperovskite compounds, Mn-Co-Ge intermetallic compounds, Fe-Rh compounds, and perovskite-type oxides.
The above materials usually have the first-order phase transitions and most of these materials possess the large MCEs in room temperature range, therefore they have received much attention home and abroad.
Among those room temperature MCE materials, the La-Fe-Si series is considered to be the most promising magnetic refrigerant materials universally and our country has independent intellectual property rights of them.
The further development prospects of MCE materials are also discussed at the end of this paper.
Related Results
Magnetocaloric Effect In Full-Heusler Rh
2
SmIn Compound Based on Rare Earths Using DFT and Monte Carlo Studies
Magnetocaloric Effect In Full-Heusler Rh
2
SmIn Compound Based on Rare Earths Using DFT and Monte Carlo Studies
Abstract
Magnetocaloric refrigeration is an integral part of technology and is under constant investigation. In this regard, the characteriza...
Photothermal--Magnetocaloric Coupled Evaporators for Self-Adaptive Water Evaporation and Oil--Water Purification in Complex Environments
Photothermal--Magnetocaloric Coupled Evaporators for Self-Adaptive Water Evaporation and Oil--Water Purification in Complex Environments
Solar-driven interfacial evaporation is a sustainable approach for
freshwater production; however, its reliability is limited by the
fluctuating solar intensity and complex water c...
MAGNETIC PHASE TRANSITION AND MAGNETOCALORIC EFFECT OF RE0.7Sr0.3MnO3 POLYCRYSTALLINE MATERIALS
MAGNETIC PHASE TRANSITION AND MAGNETOCALORIC EFFECT OF RE0.7Sr0.3MnO3 POLYCRYSTALLINE MATERIALS
In this report, we present some results of the magnetic phase transition nature and magnetocaloric effect of four polycrystalline ceramics of RE0.7Sr0.3MnO3 with RE = La, Pr, Nd an...
Energy Applications of Magnetocaloric Materials
Energy Applications of Magnetocaloric Materials
AbstractThe need for energy‐efficient and environmentally friendly refrigeration, heat pumping, air conditioning, and thermal energy harvesting systems is currently more urgent tha...
Phase Transitions under Magnetic Fields: Composition-Engineered Magnetocaloric Performance in Ni-Mn-Sn Heusler Alloys
Phase Transitions under Magnetic Fields: Composition-Engineered Magnetocaloric Performance in Ni-Mn-Sn Heusler Alloys
Abstract
Understanding how magnetic fields alter phase transitions is a practical obstacle in magnetocaloric refrigeration, where optimizing the magnetocaloric effe...
Linear dependence of magnetocaloric effect on magnetic field in Mn0.6Fe0.4NiSi0.5Ge0.5 and Ni50Mn34Co2Sn14 with first-order magnetostructural transformation
Linear dependence of magnetocaloric effect on magnetic field in Mn0.6Fe0.4NiSi0.5Ge0.5 and Ni50Mn34Co2Sn14 with first-order magnetostructural transformation
The study on the field dependence of magnetocaloric effect (MCE) is considered to be of fundamental and practical importance, since it not only guides us in understanding and optim...
Simulating the giant magnetocaloric effect-from mean-field theory to microscopic models
Simulating the giant magnetocaloric effect-from mean-field theory to microscopic models
Magnetocaloric materials are recognized as one of the major classes of magnetic materials for energy applications, and can be either employed as refrigerants in heat-pumping device...
Influence of the particle size on a MnFe(P,Si,B) compound with giant magnetocaloric effect
Influence of the particle size on a MnFe(P,Si,B) compound with giant magnetocaloric effect
How the microstructure affects first-order magnetic transitions (FOMT) in materials with giant magnetocaloric effect remains poorly understood. Here, we study the FOMT and giant ma...

