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43. Sun Y, Wang C, Chu L, Wen Y, Nie M, Liu F. Low temperature coefficient of resistivity induced by magnetic transition and lattice
contraction in Mn NiN compound. Scr Mater 2010;62:686-9. DOI
3
44. Takenaka K, Ozawa A, Shibayama T, Kaneko N, Oe T, Urano C. Extremely low temperature coefficient of resistance in antiperovskite
Mn Ag Cu N. Appl Phys Lett 2011;98:022103. DOI
3 1-x x
45. Lin JC, Wang BS, Tong P, et al. Tunable temperature coefficient of resistivity in C- and Co-doped CuNMn . Scr Mater 2011;65:452-
3
5. DOI
46. Deng S, Sun Y, Wang L, et al. Near-zero temperature coefficient of resistivity associated with magnetic ordering in antiperovskite
Mn Ni N. Appl Phys Lett 2016;108:041908. DOI
1-x
3+x
47. He T, Huang Q, Ramirez AP, et al. Superconductivity in the non-oxide perovskite MgCNi . Nature 2001;411:54-6. DOI
3
48. Rosner H, Weht R, Johannes MD, Pickett WE, Tosatti E. Superconductivity near ferromagnetism in MgCNi . Phys Rev Lett
3
2002;88:027001. DOI PubMed
49. Wu M, Isshiki H, Chen T, Higo T, Nakatsuji S, Otani Y. Magneto-optical Kerr effect in a non-collinear antiferromagnet Mn Ge. Appl
3
Phys Lett 2020;116:132408. DOI
50. Balk AL, Sung NH, Thomas SM, et al. Comparing the anomalous Hall effect and the magneto-optical Kerr effect through
antiferromagnetic phase transitions in Mn Sn. Appl Phys Lett 2019;114:032401. DOI
3
51. Feng W, Guo GY, Zhou J, Yao Y, Niu Q. Large magneto-optical Kerr effect in noncollinear antiferromagnets Mn X (X = Rh, Ir,
3
Pt). Phys Rev B 2015;92:144426. DOI
52. Kamishima K, Bartashevich M, Goto T, Kikuchi M, Kanomata T. Magnetic behavior of Mn GaC under high magnetic field and high
3
pressure. J Phys Soc Jpn 1998;67:1748-54. DOI
53. Fruchart D, Bertaut EF, Sayetat F, Nasr Eddine M, Fruchart R, Sénateur JP. Structure magnetique de Mn GaC. Solid State
3
Commun 1970;8:91-9. DOI
54. Fruchart D, Bertaut EF. Magnetic studies of the metallic perovskite-type compounds of manganese. J Phys Soc Jpn 1978;44:781-91.
DOI
55. Çakιr Ö, Acet M. Reversibility in the inverse magnetocaloric effect in Mn GaC studied by direct adiabatic temperature-change
3
measurements. Appl Phys Lett 2012;100:202404. DOI
56. Sénateur JP, Boursier D, L'héritier P, Lorthioir G, Fruchart ME, Le Caer G. Etude par spectrometrie mössbauer de ZnMn et de
3
la transition antiferro-ferromagnetique de GaMn C dopes au fer 57. Mater Res Bull 1974;9:603-14. DOI
3
57. Deng S, Sun Y, Wang L, et al. Frustrated triangular magnetic structures of Mn ZnN: applications in thermal expansion. J Phys Chem C
3
2015;119:24983-90. DOI
58. Fruchart D, Bertaut EF, Madar R, Fruchart R. Diffraction neutronique de Mn ZnN. J Phys Colloques 1971;32:C1-876. DOI
3
59. Wu M, Wang C, Sun Y, et al. Magnetic structure and lattice contraction in Mn NiN. J Appl Phys 2013;114:123902. DOI
3
60. Hua L, Wang L, Chen LF. First-principles investigation of Ge doping effects on the structural, electronic and magnetic properties in
antiperovskite Mn CuN. J Phys Condens Matter 2010;22:206003. DOI
3
61. Han H, Sun Y, Deng S, et al. Effect of thermal stress on non-collinear antiferromagnetic phase transitions in antiperovskite Mn GaN
3
compounds with Mn SbN inclusions. Ceramics Int 2022;48:15200-6. DOI
3
62. Sun Y, Hu P, Shi K, et al. Giant zero-field cooling exchange-bias-like behavior in antiperovskite Mn Co Mn N compound. Phys
3 0.61 0.39
Rev Mater 2019;3:024409. DOI
63. Salvador JR, Guo F, Hogan T, Kanatzidis MG. Zero thermal expansion in YbGaGe due to an electronic valence transition. Nature
2003;425:702-5. DOI
64. Mary TA, Evans JSO, Vogt T, Sleight AW. Negative Thermal Expansion from 0.3 to 1050 Kelvin in ZrW O . Science 1996;272:90-2.
2
8
DOI
65. Song Y, Shi N, Deng S, Xing X, Chen J. Negative thermal expansion in magnetic materials. Prog Mater Sci 2021;121:100835. DOI
66. Chen J, Hu L, Deng J, Xing X. Negative thermal expansion in functional materials: controllable thermal expansion by chemical
modifications. Chem Soc Rev 2015;44:3522-67. DOI PubMed
67. Gava V, Martinotto AL, Perottoni CA. First-principles mode Gruneisen parameters and negative thermal expansion in α-ZrW O . Phys
8
2
Rev Lett 2012;109:195503. DOI PubMed
68. Li CW, Tang X, Muñoz JA, et al. Structural relationship between negative thermal expansion and quartic anharmonicity of cubic ScF .
3
Phys Rev Lett 2011;107:195504. DOI
69. Long YW, Hayashi N, Saito T, Azuma M, Muranaka S, Shimakawa Y. Temperature-induced A-B intersite charge transfer in an A-
site-ordered LaCu Fe O perovskite. Nature 2009;458:60-3. DOI
3
12
4
70. Gerhardt I, Liu Q, Lamas-Linares A, Skaar J, Kurtsiefer C, Makarov V. Full-field implementation of a perfect eavesdropper on a
quantum cryptography system. Nat Commun 2011;2:349. DOI PubMed
71. Chen J, Fan L, Ren Y, et al. Unusual transformation from strong negative to positive thermal expansion in PbTiO -BiFeO perovskite.
3
3
Phys Rev Lett 2013;110:115901. DOI
72. Huang R, Liu Y, Fan W, et al. Giant negative thermal expansion in NaZn -type La(Fe, Si, Co) compounds. J Am Chem Soc
13 13
2013;135:11469-72. DOI
73. Qi TF, Korneta OB, Parkin S, De Long LE, Schlottmann P, Cao G. Negative volume thermal expansion via orbital and magnetic
orders in Ca Ru Cr O (0 < x < 0.13). Phys Rev Lett 2010;105:177203. DOI
2
1-x
4
x