We report on novel magnetocaloric composites based on La(Fe,Si)13 particles in an amorphous metallic matrix. Hot compaction at the glass transition temperature, Tg, of the matrix prevents crack formation as commonly occurs in conventional hot-compacted La(Fe,Si)13 material. This damage can affect the magnetocaloric performance. The approach in the present paper shows that the La(Fe,Si)13 particles stay intact due to the buffer-effect of the amorphous and ductile matrix at Tg. Therefore, the magnetocaloric properties of the composites are almost independent of the compaction pressures
Miao X, Wang C, Liao T, et al. Novel magnetocaloric composites with outstanding thermal conductivity...
Additive manufacturing is attracting increasing interest in the field of magnetic refrigeration to s...
We report the processing, analysis and testing of magnetocaloric composite materials consisting of L...
We report on novel magnetocaloric composites based on La(Fe,Si)13 particles in an amorphous metallic...
We report on the microstructure, phase constitution, mechanical properties, and magnetocaloric effec...
A successful use of the magnetocaloric material in an active magnetic regenerator (AMR) requires its...
Composites of two magnetocaloric components have been prepared by melt spinning. A special nozzle mo...
A successful use of the magnetocaloric material in an active magnetic regenerator (AMR) requires its...
Due to their excellent magnetocaloric properties hydrogenated La(Fe,Mn,Si)13 are considered as promi...
Due to their excellent magnetocaloric properties hydrogenated La(Fe,Mn,Si)13 are considered as promi...
The microstructure, mechanical properties, thermal transfer performance, and magnetocaloric effect w...
Although the design of composite materials has been proposed as an effective way to improve the mech...
Composite materials containing hydrogenated La(Fe,Mn,Si)13 powder and 5 wt.% of polymer binder have ...
La(Fe, Si)13-based composite plates were successfully fabricated using different amount of...
A series of LaFe11.8Si1.2/La65Co35 bulk composites were fabricated by spark plasma sintering (SPS) f...
Miao X, Wang C, Liao T, et al. Novel magnetocaloric composites with outstanding thermal conductivity...
Additive manufacturing is attracting increasing interest in the field of magnetic refrigeration to s...
We report the processing, analysis and testing of magnetocaloric composite materials consisting of L...
We report on novel magnetocaloric composites based on La(Fe,Si)13 particles in an amorphous metallic...
We report on the microstructure, phase constitution, mechanical properties, and magnetocaloric effec...
A successful use of the magnetocaloric material in an active magnetic regenerator (AMR) requires its...
Composites of two magnetocaloric components have been prepared by melt spinning. A special nozzle mo...
A successful use of the magnetocaloric material in an active magnetic regenerator (AMR) requires its...
Due to their excellent magnetocaloric properties hydrogenated La(Fe,Mn,Si)13 are considered as promi...
Due to their excellent magnetocaloric properties hydrogenated La(Fe,Mn,Si)13 are considered as promi...
The microstructure, mechanical properties, thermal transfer performance, and magnetocaloric effect w...
Although the design of composite materials has been proposed as an effective way to improve the mech...
Composite materials containing hydrogenated La(Fe,Mn,Si)13 powder and 5 wt.% of polymer binder have ...
La(Fe, Si)13-based composite plates were successfully fabricated using different amount of...
A series of LaFe11.8Si1.2/La65Co35 bulk composites were fabricated by spark plasma sintering (SPS) f...
Miao X, Wang C, Liao T, et al. Novel magnetocaloric composites with outstanding thermal conductivity...
Additive manufacturing is attracting increasing interest in the field of magnetic refrigeration to s...
We report the processing, analysis and testing of magnetocaloric composite materials consisting of L...