Exploring Low Magnetization Induced Magnetocaloric Effect in Metallic Antiperovskite AsNCr3

This manuscript explores the magnetocaloric properties of the antiperovskite compound AsNCr3, emphasizing its potential for sustainable refrigeration applications. Employing a combination of phenomenological modeling and density functional theory, the research reveals that the material’s low magnetization, arising from antiferromagnetic spin alignment, contributes to reduced hysteresis losses and enhanced thermal stability. Key findings include moderate entropy changes, a relatively narrow operational temperature span, and field-dependent phase transitions, indicating suitability for precise thermal management. The insights offer a pathway to designing efficient, environmentally friendly refrigeration systems based on low-magnetization materials.

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Publication Details

Journal
Physics of the Solid State
Published
2025-10-24
DOI
https://doi.org/10.1134/s1063783425602632
Primary Topic
Thermal Expansion and Ionic Conductivity
Type
article
Field-Weighted Citation Impact
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article

Exploring Low Magnetization Induced Magnetocaloric Effect in Metallic Antiperovskite AsNCr3

Soumyadipta Pal, Arnab Basu, Subarna Datta, Shreemoyee Ganguly et al.
Physics of the Solid State
Thermal Expansion and Ionic Conductivity
article

Exploring Low Magnetization Induced Magnetocaloric Effect in Metallic Antiperovskite AsNCr3

Soumyadipta Pal, Arnab Basu, Subarna Datta, Shreemoyee Ganguly, Sarit Srimani
article en

Abstract

This manuscript explores the magnetocaloric properties of the antiperovskite compound AsNCr3, emphasizing its potential for sustainable refrigeration applications. Employing a combination of phenomenological modeling and density functional theory, the research reveals that the material’s low magnetization, arising from antiferromagnetic spin alignment, contributes to reduced hysteresis losses and enhanced thermal stability. Key findings include moderate entropy changes, a relatively narrow operational temperature span, and field-dependent phase transitions, indicating suitability for precise thermal management. The insights offer a pathway to designing efficient, environmentally friendly refrigeration systems based on low-magnetization materials.

Physics of the Solid StateVol. 67(11)
University of Engineering & Management (IN), Institute of Environmental Studies & Wetland Management (IN)
Openalex Percentile: Top 76%
Thermal Expansion and Ionic Conductivity
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Exploring Low Magnetization Induced Magnetocaloric Effect in Metallic Antiperovskite AsNCr3 — Soumyadipta Pal, Arnab Basu, et al. · Physics of the Solid State (2025) | TGRS Research Map | TGRS