Hysteresis Design of Magnetocaloric Materials—From Basic Mechanisms to Applications
- Location
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Deutsche Nationalbibliothek Frankfurt am Main
- Extent
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Online-Ressource
- Language
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Englisch
- Bibliographic citation
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Hysteresis Design of Magnetocaloric Materials—From Basic Mechanisms to Applications ; volume:6 ; number:8 ; year:2018 ; pages:1397-1428 ; extent:32
Energy technology ; 6, Heft 8 (2018), 1397-1428 (gesamt 32)
- DOI
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10.1002/ente.201800264
- URN
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urn:nbn:de:101:1-2022091107205367693327
- Rights
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Open Access; Der Zugriff auf das Objekt ist unbeschränkt möglich.
- Last update
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15.08.2025, 7:38 AM CEST
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Hysteresis Design of Magnetocaloric Materials-From Basic Mechanisms to Applications
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Calculating the magnetocaloric effect in second-order-type material by micromagnetic simulations: A case study on Co2B
High‐Throughput Design of Magnetocaloric Materials for Energy Applications: MM´X alloys
High‐Throughput Design of Magnetocaloric Materials for Energy Applications: MM´X alloys
Impact of soft magnetic α‐Fe in hard Nd 2 Fe 14 B magnetic materials: A micromagnetic study
Transport Properties and Magnetoresistance of Cluster-Assembled Fe-Ge and Fe-Ag Nanocomposites
Development of Rare Earth Free and Rare Earth Balance Permanent Magnets
Unconventional Alloy Design of (Nd, Pr)-Fe-B Based Alloys for the Production of Permanent Magnets by Additive Manufacturing
Designing Multicaloric Materials with Martensitic Phase Transitions for Future Cooling Applications
High-throughput Designing of Magnetic Antiperovskites for Multifunctional Applications
Structural and magnetic properties of epitaxial rare-earth cobalt thin films
Hysteresis Design of Magnetocaloric Materials-From Basic Mechanisms to Applications
On the rare-earth-based intermetallic compounds for magnetocaloric hydrogen liquefaction: a matter of performance and criticality
Calculating the magnetocaloric effect in second-order-type material by micromagnetic simulations: A case study on Co2B
High‐Throughput Design of Magnetocaloric Materials for Energy Applications: MM´X alloys
High‐Throughput Design of Magnetocaloric Materials for Energy Applications: MM´X alloys
Impact of soft magnetic α‐Fe in hard Nd 2 Fe 14 B magnetic materials: A micromagnetic study
Transport Properties and Magnetoresistance of Cluster-Assembled Fe-Ge and Fe-Ag Nanocomposites
Development of Rare Earth Free and Rare Earth Balance Permanent Magnets
Unconventional Alloy Design of (Nd, Pr)-Fe-B Based Alloys for the Production of Permanent Magnets by Additive Manufacturing
Designing Multicaloric Materials with Martensitic Phase Transitions for Future Cooling Applications
High-throughput Designing of Magnetic Antiperovskites for Multifunctional Applications
Structural and magnetic properties of epitaxial rare-earth cobalt thin films
Hysteresis Design of Magnetocaloric Materials-From Basic Mechanisms to Applications
On the rare-earth-based intermetallic compounds for magnetocaloric hydrogen liquefaction: a matter of performance and criticality
Calculating the magnetocaloric effect in second-order-type material by micromagnetic simulations: A case study on Co2B
High‐Throughput Design of Magnetocaloric Materials for Energy Applications: MM´X alloys
High‐Throughput Design of Magnetocaloric Materials for Energy Applications: MM´X alloys
Impact of soft magnetic α‐Fe in hard Nd 2 Fe 14 B magnetic materials: A micromagnetic study
Transport Properties and Magnetoresistance of Cluster-Assembled Fe-Ge and Fe-Ag Nanocomposites
Development of Rare Earth Free and Rare Earth Balance Permanent Magnets
Unconventional Alloy Design of (Nd, Pr)-Fe-B Based Alloys for the Production of Permanent Magnets by Additive Manufacturing
Designing Multicaloric Materials with Martensitic Phase Transitions for Future Cooling Applications
High-throughput Designing of Magnetic Antiperovskites for Multifunctional Applications