As-solidified Ni48Co2Mn35In15 ribbons were prepared through the melt-spinning method, and their structural, magnetic, magnetocaloric properties, and martensitic transformations were investigated. The inverse martensitic transformation temperature (TA=325 K) for the melt spun ribbons shifted by 55 K to higher temperature relative to that of the bulk material (TA = 270 K). The working temperature range of the magnetic entropy change (ΔSM) in Ni48Co2Mn35In15 ribbons has been significantly expanded relative to that of bulk. The roles of the magnetostructural transitions on the magneto-responsive properties of the ribbons are discussed
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
"The structural, thermal, magnetic, and magnetocaloric properties of Ni50Mn35In14.5B0.5 melt-spun ri...
"As-solidified Ni48Co2Mn35In15 ribbons were prepared through the melt-spinning method, and their str...
As-solidified Ni48Co2Mn35In15 ribbons were prepared through the melt-spinning method, and their stru...
Melt spun Ni50-xMn37+xIn13 (2 <= x <= 5) ribbons were investigated for the structure, microstructure...
The crystal structure, and magnetic and magnetocaloric properties of rapidly solidified Ni0.895Cr0.1...
The effect of Fe on the martensitic transitions, magnetic and inverse magnetocaloric effect in Ni47M...
The present investigation addresses the magnetocaloric behaviour in a series of Ni77-XMnXGa23 (x = 2...
The characteristics of magnetostructural coupling play a crucial role in the magnetic field-driven b...
Structural transformation, microstructure and magnetocaloric effect (MCE) were investigated in melt-...
The magnetic, structural, thermal, and magnetocaloric properties of Ni50Mn35In14.5B0.5 melt-spun rib...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
The magnetic, structural, thermal, and magnetocaloric properties of Ni50Mn35In14.5B0.5 melt-spun rib...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
"The structural, thermal, magnetic, and magnetocaloric properties of Ni50Mn35In14.5B0.5 melt-spun ri...
"As-solidified Ni48Co2Mn35In15 ribbons were prepared through the melt-spinning method, and their str...
As-solidified Ni48Co2Mn35In15 ribbons were prepared through the melt-spinning method, and their stru...
Melt spun Ni50-xMn37+xIn13 (2 <= x <= 5) ribbons were investigated for the structure, microstructure...
The crystal structure, and magnetic and magnetocaloric properties of rapidly solidified Ni0.895Cr0.1...
The effect of Fe on the martensitic transitions, magnetic and inverse magnetocaloric effect in Ni47M...
The present investigation addresses the magnetocaloric behaviour in a series of Ni77-XMnXGa23 (x = 2...
The characteristics of magnetostructural coupling play a crucial role in the magnetic field-driven b...
Structural transformation, microstructure and magnetocaloric effect (MCE) were investigated in melt-...
The magnetic, structural, thermal, and magnetocaloric properties of Ni50Mn35In14.5B0.5 melt-spun rib...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
The magnetic, structural, thermal, and magnetocaloric properties of Ni50Mn35In14.5B0.5 melt-spun rib...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
We report a large magnetic entropy change associated with a high-temperature martensitic transformat...
"The structural, thermal, magnetic, and magnetocaloric properties of Ni50Mn35In14.5B0.5 melt-spun ri...