A remarkable decrease of the structural transition temperature of MnNiSi from 1200 to transitions, leading to a large magnetocaloric effect near room temperature. Application of relatively low hydrostatic pressures (∼2.4 kbar) lead to an extraordinary enhancement of the isothermal entropy change from -ΔS=44 to 89 J/kgK at ambient and 2.4 kbar applied pressures, respectively, for a field change of ΔB=5T, and is associated with a large relative volume change of about 7% with P=2.4 kbar
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
The isostructural alloying of two compounds with different magnetic and thermo-structural properties...
To present day, the maximum magnetocaloric effect (MCE) at room temperature for a magnetic field cha...
MnNiSi-based alloys and isostructural systems have traditionally demonstrated impressive magnetocalo...
In this work, the phase transitions and magnetocaloric properties of Mn 1-xAu xCoGe (0 ≤ x ≤ 0.025) ...
The magnetic, thermal, and magnetocaloric properties of Ni45Mn43CrSn11 Heusler alloy have been inves...
To present day, the maximum magnetocaloric effect (MCE) at room temperature for a magnetic field cha...
Solid-state caloric effects, such as the magnetocaloric (MCE) and barocaloric (BCE) effects, may be ...
The structural properties of Mn0.92Fe0.08CoGe have been investigated in detail using synchrotron x-r...
A first-order magneto-structural transition from a ferromagnetic orthorhombic TiNiSi-type martensite...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
The isostructural alloying of two compounds with different magnetic and thermo-structural properties...
To present day, the maximum magnetocaloric effect (MCE) at room temperature for a magnetic field cha...
MnNiSi-based alloys and isostructural systems have traditionally demonstrated impressive magnetocalo...
In this work, the phase transitions and magnetocaloric properties of Mn 1-xAu xCoGe (0 ≤ x ≤ 0.025) ...
The magnetic, thermal, and magnetocaloric properties of Ni45Mn43CrSn11 Heusler alloy have been inves...
To present day, the maximum magnetocaloric effect (MCE) at room temperature for a magnetic field cha...
Solid-state caloric effects, such as the magnetocaloric (MCE) and barocaloric (BCE) effects, may be ...
The structural properties of Mn0.92Fe0.08CoGe have been investigated in detail using synchrotron x-r...
A first-order magneto-structural transition from a ferromagnetic orthorhombic TiNiSi-type martensite...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...
Magnetic refrigeration relies on a substantial entropy change in a magnetocaloric material when a ma...