Magnetic, magnetocaloric and transport properties in AlCMn3 antiperovskite compound

Magnetic Field‐Oriented Electrical Transport Properties in Antiperovskite Mn3SnC

“…[21] Moreover, the phase transitions are usually accompanied by a magnitude of the entropy change, which is related to the amount of order that is lost or gained during this transition. [5][6][7][8][9][10][11] The IP field-oriented FMR of the 3 Â 5 mm 2 Mn 3 SnC film is shown in Figure 4. 10 GHz radio frequency (rf ) power was injected and subsequently absorbed, and the first derivation of the absorbance was presented as the FMR spectrum.…”

“…[ 21 ] Moreover, the phase transitions are usually accompanied by a magnitude of the entropy change, which is related to the amount of order that is lost or gained during this transition. [ 5–11 ]…”

“…The ternary manganese compounds with a formula of Mn 3 MC (M = Al, Ga, Zn, In, and Sn) have the cubic crystal structure of an antiperovskite type: the Mn atoms on the cubic corners and the C atom centered in the unit with space group Pm m . The compounds usually have a wide variety of attractive effects, like giant magnetoresistance, [ 1 ] superconductivity, [ 2 ] negative thermal expansion, [ 3 ] and magnetocaloric effect, [ 4–8 ] at magnetic or temperature fields. These detectable macroscopic effects promote the materials to be the outstanding candidate for mature magnetic device applications.…”

Magnetocaloric Properties in Gd3Ni2 and Gd3CoNi Systems

“…Generally, SO ferromagnetic-paramagnetic (FM-PM) phase transitions are one of the vital issues related to the functionalities and fundamental physics of magnetic systems. The Landau theory for phase transitions was used to describe the MCE in Gd 3 Ni 2 and Gd 3 CoNi systems with magnetoelastic and magnetoelectronic couplings [13][14][15][16]. As shown in the work of Provino et al [12], for Gd 3 Ni 2 and Gd 3 CoNi compounds, the applied magnetic field, H, dependence on peaks of À∆S M obtained near the Curie temperature, T C , increases proportionally (À∆S M $H 2 3 ).…”

Monte Carlo study of the magnetic properties and magnetocaloric effect of an AFM/FM BiFeO3/Co bilayer

“…The influence of the crystal field and external magnetic field on the variation of the peak value of isothermal entropy change was discussed emphatically. Apart from the research mentioned above, there are many other investigations on the MCE of thin films, for instance AlCMn 3 [36], NdMnO 3 [37], Ho 3 Pd 2 [38], Sr 2 CrMoO 6 [39], Sr 2 CrIrO 6 [40], and SmFe 1−x Mn x O 3 [41]. All these studies reveal that exchange coupling and an applied external field play a significant role in the variation of the MCE, and this is exactly what our present research focuses on.…”