Enhanced reversibility of the magnetoelastic transition in (Mn,Fe)2(P,Si) alloys via minimizing the transition-induced elastic strain energy

doi:/10.1016/j.jmst.2021.05.087

Abstract

Abstract:

Magnetocaloric materials undergoing reversible phase transitions are highly desirable for magnetic refrigeration applications. (Mn,Fe)₂(P,Si) alloys exhibit a giant magnetocaloric effect accompanied by a magnetoelastic transition, while the noticeable irreversibility causes drastic degradation of the magnetocaloric properties during consecutive cooling cycles. In the present work, we performed a comprehensive study on the magnetoelastic transition of the (Mn,Fe)₂(P,Si) alloys by high-resolution transmission electron microscopy, in situ field- and temperature-dependent neutron powder diffraction as well as density functional theory calculations (DFT). We found a generalized relationship between the thermal hysteresis and the transition-induced elastic strain energy for the (Mn,Fe)₂(P,Si) family. The thermal hysteresis was greatly reduced from 11 to 1 K by a mere 4 at.% substitution of Fe by Mo in the Mn_1.15Fe_0.80P_0.45Si_0.55 alloy. This reduction is found to be due to a strong reduction in the transition-induced elastic strain energy. The significantly enhanced reversibility of the magnetoelastic transition leads to a remarkable improvement of the reversible magnetocaloric properties, compared to the parent alloy. Based on the DFT calculations and the neutron diffraction experiments, we also elucidated the underlying mechanism of the tunable transition temperature for the (Mn,Fe)₂(P,Si) family, which can essentially be attributed to the strong competition between the covalent bonding and the ferromagnetic exchange coupling. The present work provides not only a new strategy to improve the reversibility of a first-order magnetic transition but also essential insight into the electron-spin-lattice coupling in giant magnetocaloric materials.

Key words: Magnetocaloric effect, (Mn,Fe)₂(P,Si), Hysteresis, Neutron diffraction

Xuefei Miao, Yong Gong, Fengqi Zhang, Yurong You, Luana Caron, Fengjiao Qian, Wenhui Guo, Yujing Zhang, Yuanyuan Gong, Feng Xu, Niels van Dijk, Ekkes Brück. Enhanced reversibility of the magnetoelastic transition in (Mn,Fe)₂(P,Si) alloys via minimizing the transition-induced elastic strain energy[J]. J. Mater. Sci. Technol., 2022, 103: 165-176.

Figures/Tables 10

Fig. 1. (a) Temperature-dependent magnetization measured in 1 T for the Mn1.15Fe0.80-xMoxP0.45Si0.55 alloys. (b) Curie temperature as a function of the Mo content derived from the thermomagnetic curves. The dependence of thermal hysteresis on the Mo content is shown in the inset of (b). Isothermal magnetization/demagnetization curves for the x = 0 (c) and 0.04 (d) alloys.

Fig. 2. (a) In situ field-dependent neutron diffraction patterns collected at 257 K from the Mn1.15Fe0.76Mo0.04P0.45Si0.55 alloy. (b) Schematic illustration of the field-induced magnetoelastic transition in the (Mn,Fe)2(P,Si) alloys. (c) Rietveld refinement of the neutron diffraction pattern collected in 2 T at T = 257 K after zero-field cooling from 300 K. Vertical lines indicate the peak positions (from top to bottom) of the PM (Mn,Fe)2(P,Si) phase, the nuclear structure of the FM (Mn,Fe)2(P,Si) phase, the magnetic structure of the FM (Mn,Fe)2(P,Si) phase, and the Fe3Si-type impurity phase, respectively. Note that the diffraction peaks from the magnet are excluded from the diffraction patterns. (d) The volume fraction of the transformed FM phase (fFM) derived from neutron diffraction patterns during the first 2 field cycles at 257 K after zero-field cooling from 300 K. The solid lines in (d) are guided to the eyes.

Fig. 3. (a) Isothermal entropy change in a field change of 1 T measured upon cooling (open symbols) and heating (solid symbols) for the Mn1.15Fe0.80-xMoxP0.45Si0.55 alloys. (b) Reversible adiabatic temperature change in a cyclic field of 1.1 T. (c) Specific heat at different temperatures (Cp-T curves) measured upon cooling and heating. (d) Latent heat derived from the Cp-T curves and the shift of TC in a magnetic field (dTC/dμ0H) derived from the M-T curves as a function of the Mo content.

Fig. 4. (a) SEM BSE image and (b-f) the corresponding EDS maps of the Mn1.15Fe0.76Mo0.04P0.45Si0.55 alloy.

Fig. 5. (a) Bright-field TEM image and (b-f) the corresponding EDS maps for the Mn1.15Fe0.76Mo0.04P0.45Si0.55 alloy. (g) Composition depth profile along the dashed lines in (a). STEM-HAADF images of the grain boundary area observed from (h) the [001] zone axis of the (Mn,Fe)2(P,Si) phase and (i) the [001] zone axis of the Fe3Si-type phase. Insets in (h) and (i) are the corresponding FFT patterns of the (Mn,Fe)2(P,Si) and Fe3Si-type phases, respectively. High-magnification STEM-HAADF images of (j) the (Mn,Fe)2(P,Si) main phase and (k) the Fe3Si-type grain-boundary phase.

Fig. 6. Contour plots of the temperature-dependent neutron diffraction patterns for the Mn1.15Fe0.80-xMoxP0.45Si0.55 alloys with x = 0 (a) and 0.04 (b). (c) Rietveld refinement of the neutron diffraction pattern collected at T = 4 K in zero magnetic field for the Mn1.15Fe0.76Mo0.04P0.45Si0.55 alloy. Vertical lines indicate the peak positions (from top to bottom) of the nuclear structure of the (Mn,Fe)2(P,Si) phase, the magnetic structure of the (Mn,Fe)2(P,Si) phase, and the Fe3Si-type secondary phase, respectively. Thermal evolution of the lattice parameters a (d) and c (e) for the Mn1.15Fe0.80-xMoxP0.45Si0.55 alloys. Note that the lattice parameters of the x = 0 and 0.04 alloys were derived from temperature-dependent neutron diffraction patterns, while those of the x = 0.01 and 0.02 alloys were derived from temperature-dependent X-ray diffraction patterns. (f) Schematic illustration of the thermally-induced magnetoelastic transition in (Mn,Fe)2(P,Si) alloys.

Fig. 7. Ashby-like plot demonstrating the relationship between the elastic strain energy Ue at TC and the thermal hysteresis ΔThys for the (Mn,Fe)2(P,Si) alloys. The dashed line is a guide to the eyes.

Fig. 8. Calculated ELF contour maps on the Fe-Si and Mn-P layers in (a, b) the FM and (c, d) the PM states of the (Mn,Fe)2(P,Si) alloys. Line profiles of the ELF values (e) between Fe and its nearest neighbors and (f) between Mn and its nearest neighbors. The stoichiometry of MnFeP1/3Si2/3 is assumed in the supercell for simplicity of the calculations.

Fig. 9. Thermal evolution of interatomic distances extracted from neutron diffraction for the Mn1.15Fe0.80P0.45Si0.55 alloy. The errors on the refined distances are smaller than the symbol size.

Fig. 10. (a) The relationship between the TC of the FM-to-PM transition and the c/a ratio of the hexagonal structure at 200 K for the Mn1.15Fe0.80-xMoxP0.45Si0.55 alloys. (b-d) The nearest interatomic distances at 200 K to TC. The errors on the c/a ratio and the interatomic distances are smaller than the symbol size.

References 73

[1]	A. Kitanovski, Adv. Energy Mater. 10 (2020) 1903741. DOI URL
[2]	T. Gottschall, K.P. Skokov, M. Fries, A. Taubel, I. Radulov, F. Scheibel, D. Benke, S. Riegg, O. Gutfleisch, Adv. Energy Mater. 9 (2019) 1901322. DOI URL
[3]	V.K. Pecharsky, K.A. Gschneidner Jr, Phys. Rev. Lett. 78 (1997) 4494-4497. DOI URL
[4]	N.H. Dung, Z.Q. Ou, L. Caron, L. Zhang, D.T.C. Thanh, G.A. de Wijs, R.A. de Groot, K.H.J. Buschow, E. Brück, Adv. Energy Mater. 1 (2011) 1215-1219. DOI URL
[5]	F.X. Hu, B.G. Shen, J.R. Sun, Z.H. Cheng, G.H. Rao, X.X. Zhang, Appl. Phys. Lett. 78 (2001) 3675-3677. DOI URL
[6]	A. Fujita, S. Fujieda, Y. Hasegawa, K. Fukamichi, Phys. Rev. B 67 (2003) 104416. DOI URL
[7]	E.K. Liu, W.H. Wang, L. Feng, W. Zhu, G.J. Li, J. Chen, H.W. Zhang, G.H. Wu, C.B. Jiang, H.B. Xu, F. de Boer, Nat.Commun. 3 (2012) 873.
[8]	Y. Taguchi, H. Sakai, D. Choudhury, Adv. Mater. 29 (2017) 1606144. DOI URL
[9]	T. Krenke, E. Duman, M. Acet, E.F. Wassermann, X. Moya, L. Manosa, A. Planes, Nat. Mater. 4 (2005) 450-454. DOI URL
[10]	J. Liu, T. Gottschall, K.P. Skokov, J.D. Moore, O. Gutfleisch, Nat. Mater. 11 (2012) 620-626. DOI URL
[11]	T. Gottschall, K.P. Skokov, B. Frincu, O. Gutfleisch, Appl. Phys. Lett. 106 (2015) 021901. DOI URL
[12]	O. Gutfleisch, T. Gottschall, M. Fries, D. Benke, I. Radulov, K.P. Skokov, H. Wende, M. Gruner, M. Acet, P. Entel, M. Farle, Philos. Trans. R. Soc. A 374 (2016) 20150308. DOI URL
[13]	L.D. Landau, Zh. Eksp. Teor. Fiz. 7 (1937) 19-32.
[14]	A.M.G. Carvalho, A.A. Coelho, S. Gama, F.C.G. Gandra, P.J. von Ranke, N.A. de Oliveira, Eur. Phys. J. B 68 (2009) 67-72. DOI URL
[15]	N.H. van Dijk, J. Magn. Magn. Mater. 529 (2021) 167871. DOI URL
[16]	X.F. Miao, H. Sepehri-Amin, K. Hono, Scr. Mater. 138 (2017) 96-99. DOI URL
[17]	M. Fries, L. Pfeuffer, E. Bruder, T. Gottschall, S. Ener, L.V.B. Diop, T. Gröb, K.P. Skokov, O. Gutfleisch, Acta Mater. 132 (2017) 222-229. DOI URL
[18]	A. Bartok, M. Kustov, L.F. Cohen, A. Pasko, K. Zehani, L. Bessais, F. Mazaleyrat, M. LoBue, J. Magn. Magn. Mater. 400 (2016) 333-338. DOI URL
[19]	K. Morrison, J. Moore, K. Sandeman, A. Caplin, L. Cohen, Phys. Rev. B 79 (2009) 134408. DOI URL
[20]	L. Morellon, Z. Arnold, C. Magen, C. Ritter, O. Prokhnenko, Y. Skorokhod, P.A. Algarabel, M.R. Ibarra, J. Kamarad, Phys. Rev. Lett. 93 (2004) 137201. PMID
[21]	H. Zhang, B.G. Shen, Z.Y. Xu, X.Q. Zheng, J. Shen, F.X. Hu, J.R. Sun, Y. Long, J. Appl. Phys. 111 (2012) 07A909. DOI URL
[22]	K. Bhattacharya, S. Conti, G. Zanzotto, J. Zimmer, Nature 428 (2004) 55-59. DOI URL
[23]	J. Cui, Y.S. Chu, O.O. Famodu, Y. Furuya, J. Hattrick-Simpers, R.D. James, A. Lud-wig, S. Thienhaus, M. Wuttig, Z. Zhang, I. Takeuchi, Nat. Mater. 5 (2006) 286-290. DOI URL
[24]	Y.H. Qu, D.Y. Cong, S.H. Li, W.Y. Gui, Z.H. Nie, M.H. Zhang, Y. Ren, Y.D. Wang, Acta Mater. 151 (2018) 41-55. DOI URL
[25]	D.Y. Cong, L. Huang, V. Hardy, D. Bourgault, X.M. Sun, Z.H. Nie, M.G. Wang, Y. Ren, P. Entel, Y.D. Wang, Acta Mater. 146 (2018) 142-151. DOI URL
[26]	Y.H. Qu, D.Y. Cong, X.M. Sun, Z.H. Nie, W.Y. Gui, R.G. Li, Y. Ren, Y.D. Wang, Acta Mater. 134 (2017) 236-248. DOI URL
[27]	J. Liu, Y. Gong, Y. You, X. You, B. Huang, X. Miao, G. Xu, F. Xu, E. Brück, Acta Mater. 174 (2019) 450-458. DOI URL
[28]	C. Chluba, W. Ge, R. Lima de Miranda, J. Strobel, L. Kienle, E. Quandt, M. Wut-tig, Science 348 (2015) 1004-1007. DOI URL
[29]	Y. Liu, X. Fu, Q. Yu, M. Zhang, J. Liu, Acta Mater. 207 (2021) 116687. DOI URL
[30]	V. Provenzano, A.J. Shapiro, R.D. Shull, Nature 429 (2004) 853-857. DOI URL
[31]	H. Sepehri-Amin, A. Taubel, T. Ohkubo, K.P. Skokov, O. Gutfleisch, K. Hono, Acta Mater. 147 (2018) 342-349. DOI URL
[32]	H. Hou, E. Simsek, T. Ma, N.S. Johnson, S. Qian, C. Cissé, D. Stasak, N. Al Hasan, L. Zhou, Y. Hwang, R. Radermacher, V.I. Levitas, M.J. Kramer, M.A. Zaeem, A.P. Stebner, R.T. Ott, J. Cui, I. Takeuchi, Science 366 (2019) 1116-1121. DOI URL
[33]	H. Chen, Y.D. Wang, Z. Nie, R. Li, D. Cong, W. Liu, F. Ye, Y. Liu, P. Cao, F. Tian, X. Shen, R. Yu, L. Vitos, M. Zhang, S. Li, X. Zhang, H. Zheng, J.F. Mitchell, Y. Ren, Nat. Mater. 19 (2020) 712-718. DOI URL
[34]	M. Trassinelli, M. Marangolo, M. Eddrief, V.H. Etgens, V. Gafton, S. Hidki, E. La-caze, E. Lamour, C. Prigent, J.P. Rozet, S. Steydli, Y. Zheng, D. Vernhet, Appl. Phys. Lett. 104 (2014) 081906. DOI URL
[35]	R. Niemann, S. Hahn, A. Diestel, A. Backen, L. Schultz, K. Nielsch, M.F.X. Wag-ner, S. Fähler, APL Mater. 4 (2016) 064101. DOI URL
[36]	F.X. Hu, L. Chen, J. Wang, L.F. Bao, J.R. Sun, B.G. Shen, Appl. Phys. Lett. 100 (2012) 072403. DOI URL
[37]	A. Waske, L. Giebeler, B. Weise, A. Funk, M. Hinterstein, M. Herklotz, K. Skokov, S. Fähler, O. Gutfleisch, J. Eckert, Phys. Status Solidi RRL 9 (2015) 136-140. DOI URL
[38]	J. Lyubina, R. Schafer, N. Martin, L. Schultz, O. Gutfleisch, Adv. Mater. 22 (2010) 3735. DOI
[39]	E. Lovell, A.M. Pereira, A.D. Caplin, J. Lyubina, L.F. Cohen, Adv. Energy Mater. 5 (2015) 1401639. DOI URL
[40]	J.D. Moore, K. Morrison, K.G. Sandeman, M. Katter, L.F. Cohen, Appl. Phys. Lett. 95 (2009) 252504. DOI URL
[41]	Y. Liu, L.C. Phillips, R. Mattana, M. Bibes, A. Barthelemy, B. Dkhil, Nat. Commun. 7 (2016) 11614. DOI URL
[42]	X.F. Miao, L. Caron, J. Cedervall, P.C.M. Gubbens, P. Dalmas de Réotier, A. Yaouanc, F. Qian, A.R. Wildes, H. Luetkens, A. Amato, N.H. van Dijk, E. Brück, Phys. Rev. B 94 (2016) 014426. DOI URL
[43]	N.H. Dung, Moment formation and giant magnetocaloric effects in hexago- nal Mn-Fe-P-Si compounds, Ph.D. dissertation, Delft University of Technology, Delft, 2012.
[44]	A.J. Studer, M.E. Hagen, T.J. Noakes, Phys. B 385-386 (2006) 1013-1015. DOI URL
[45]	J. Rodriguez-Carvajal, Phys. B 192 (1993) 55-69. DOI URL
[46]	F. Guillou, G. Porcari, H. Yibole, N.H. van Dijk, E. Brück, Adv. Mater. 26 (2014) 2671. DOI URL
[47]	H. Yibole, F. Guillou, L. Zhang, N.H. van Dijk, E. Brück, J. Phys. D Appl. Phys. 47 (2014) 075002. DOI URL
[48]	G. Kresse, J. Furthmuller, Phys. Rev. B 54 (1996) 11169. DOI PMID
[49]	A.D. Becke, K.E. Edgecombe, J. Chem. Phys. 92 (1990) 5397-5403. DOI URL
[50]	X.F. Miao, L. Caron, Z. Gercsi, A. Daoud-Aladine, N.H. van Dijk, E. Brück, Appl. Phys. Lett. 107 (2015) 042403. DOI URL
[51]	L. Caron, Z.Q. Ou, T.T. Nguyen, D.T. Cam Thanh, O. Tegus, E. Brück, J. Magn. Magn. Mater. 321 (2009) 3559-3566. DOI URL
[52]	K.A. Gschneidner, V.K. Pecharsky, A.O. Tsokol, Rep. Prog. Phys. 68 (2005) 1479-1539. DOI URL
[53]	K.G. Sandeman, Scr. Mater. 67 (2012) 566-571. DOI URL
[54]	F. Cugini, G. Porcari, S. Fabbrici, F. Albertini, M. Solzi, Philos. Trans. R. Soc. A 374 (2016) 20150306. DOI URL
[55]	T. Gottschall, D. Benke, M. Fries, A. Taubel, I.A. Radulov, K.P. Skokov, O. Gut-fleisch, Adv. Funct. Mater. 27 (2017) 1606735. DOI URL
[56]	X.F. Miao, L. Caron, P. Roy, N.H. Dung, L. Zhang, W.A. Kockelmann, R.A. de Groot, N.H. van Dijk, E. Brück, Phys. Rev. B 89 (2014) 174429. DOI URL
[57]	J.F. Nye, Physical Properties of Crystals: Their Pepresentation By Tensors and Matrices, Oxford University Press, Oxford, UK, 1985.
[58]	P. Roy, E. Torun, R.A. de Groot, Phys. Rev. B 93 (2016) 094110. DOI URL
[59]	N.H. Dung, L. Zhang, Z.Q. Ou, E. Brück, Scr. Mater. 67 (2012) 975-978. DOI URL
[60]	F. Guillou, H. Yibole, N.H. van Dijk, L. Zhang, V. Hardy, E. Brück, J. Alloys Compd. 617 (2014) 569-574. DOI URL
[61]	S.Y. Hu, X.F. Miao, J. Liu, Z.Q. Ou, M.Q. Cong, O. Haschuluu, Y.Y. Gong, F. Qian, Y.R. You, Y.J. Zhang, F. Xu, E. Brück, Intermetallics 114 (2019) 106602. DOI URL
[62]	M. Maschek, X. You, M.F.J. Boeije, D. Chernyshov, N.H. van Dijk, E. Brück, Phys. Rev. B 98 (2018) 224413. DOI URL
[63]	N.V. Thang, X.F. Miao, N.H. van Dijk, E. Brück, J. Alloys Compd. 670 (2016) 123-127. DOI URL
[64]	A. Pasko, A. Bartok, K. Zehani, L. Bessais, F. Mazaleyrat, M. LoBue, AIP Adv. 6 (2016) 056204. DOI URL
[65]	G. Shirane, R. Nathans, C.W. Chen, Phys. Rev. 134 (1964) A1547-A1553. DOI URL
[66]	F. Guillou, A.K. Pathak, D. Paudyal, Y. Mudryk, F. Wilhelm, A. Rogalev, V.K. Pecharsky, Nat. Commun. 9 (2018) 2925. DOI PMID
[67]	J. Lai, B. Huang, X. Miao, N. Van Thang, X. You, M. Maschek, L. van Eijck, D. Zeng, N. van Dijk, E. Brück, J. Alloys Compd. 803 (2019) 671-677. DOI URL
[68]	Z.Q. Ou, N.H. Dung, L. Zhang, L. Caron, E. Torun, N.H. van Dijk, O. Tegus, E. Brück, J. Alloys Compd. 730 (2018) 392-398. DOI URL
[69]	H. Wada, K. Nakamura, K. Katagiri, T. Ohnishi, K. Yamashita, A. Matsushita, Jpn. J. Appl. Phys. 53 (2014) 063001. DOI URL
[70]	D. Liu, M. Yue, J. Zhang, T. McQueen, J. Lynn, X. Wang, Y. Chen, J. Li, R. Cava, X. Liu, Z. Altounian, Q. Huang, Phys. Rev. B 79 (2009) 014435. DOI URL
[71]	X.F. Miao, N.V. Thang, L. Caron, H. Yibole, R.I. Smith, N.H. van Dijk, E. Brück, Scr. Mater. 124 (2016) 129-132. DOI URL
[72]	Q. Zhou, Z.G. Zheng, W.H. Wang, L. Lei, A. He, D.C. Zeng, Intermetallics 106 (2019) 94-99. DOI
[73]	M.F.J. Boeije, P. Roy, F. Guillou, H. Yibole, X.F. Miao, L. Caron, D. Baner-jee, N.H. van Dijk, R.A. de Groot, E. Brück, Chem. Mater. 28 (2016) 4901-4905. DOI URL

Enhanced reversibility of the magnetoelastic transition in (Mn,Fe)₂(P,Si) alloys via minimizing the transition-induced elastic strain energy

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