Operando small-angle x-ray scattering for battery research

다국어 초록 (Multilingual Abstract)

With the rapid growth of secondary batteries used in various industries,methods for analyzing battery elements such as electrodes and electrolyteshave also improved. In addition, as the utility of nano-scaled electrode mate-rials have attracted greater attention, it has become increasingly clear that con-ventional electrochemical analytic methods have limitations. Consequently,electron microscopy and even synchrotron x-ray radiation techniques havebeen adopted and are now widely used. Among several advanced analyticaltechniques, synchrotron radiation-basedoperandosmall-angle x-ray scattering(SAXS) enables real-time analysis of changes in the ordering of nanostructuresand in the electron densities of electrodes and solid electrolytes during electro-chemical reactions. In this review, the principle and applications ofoperandoSAXS are briefly introduced, to help in understanding the complex nanostruc-tural behaviors of battery components used in secondary batteries, and further-more, it is hoped to contribute to innovative materials design.

참고문헌 (Reference)

1 Y. Nishi, 100 : 101-, 2001

2 N. Nitta, 18 : 252-, 2015

3 A. Manthiram, 3 : 1063-, 2017

4 F. Jiang, 6 : 32639-, 2016

5 T. Chen, 26 : 208-, 2020

6 C. de las Casas, 208 : 74-, 2012

7 B. E. Murdock, 11 : 2102028-, 2021

8 M. Neidhardt, 12 : 4790-, 2022

9 Y. Chen, 59 : 83-, 2021

10 X. Wu, 7 : 65-, 2019

11 K. Liu, 4 : 2018

12 M. Zhao, 6 : 1095-, 2020

13 Y. Lei, 26 : 100997-, 2022

14 Y. S. Choi, 57 : 10500-, 2021

15 J. Zhang, 3 : 124-, 2021

16 Y. Huang, 9 : 2106004-, 2022

17 J. Wang, 14 : 9819-, 2020

18 S. Kim, 3 : 2643-, 2020

19 P. Barai, 9 : 359-, 2016

20 S. Walu"s, 10 : 233-, 2018

21 S. Lee, 408 : 111-, 2018

22 H. Yao, 7 : 3381-, 2014

23 F. Wu, 27 : 101-, 2015

24 W. Kim, 170 : 236-, 2020

25 T. Wang, 1 : 200-, 2018

26 F. Xie, 2 : 042002-, 2020

27 D. A. Stevens, 147 : 4428-, 2000

28 J. -Y. Hwang, 46 : 3529-, 2017

29 K. M. Abraham, 5 : 3544-, 2020

30 W. Zhang, 1 : 100012-, 2019

31 C. Li, 29 : e00297-, 2021

32 Y. -K. Sun, 5 : 3221-, 2020

33 X. Judez, 165 : A6008-, 2017

34 L. Wang, 7 : 111-, 2020

35 T. Liu, 7 : 2001207-, 2020

36 K. Takada, 1765 : 020008-, 2016

37 A. Varzi, 4 : 17251-, 2016

38 Z. Ding, 167 : 070541-, 2020

39 K. B. Hatzell, 5 : 922-, 2020

40 Y. Zheng, 49 : 8790-, 2020

41 J. Wu, 3 : 1623-, 2019

42 C. Shen, 2 : 1700298-, 2018

43 Z. Zhang, 12 : 35132-, 2020

44 G. O. Park, 14 : 1702985-, 2018

45 J. Yoon, 53 : 276-, 2021

46 J. Yoon, 493 : 229682-, 2021

47 Y. Kim, 396 : 749-, 2018

48 H. Kim, 413 : 241-, 2019

49 Y. S. Choi, 16 : 631-, 2022

50 F. Lin, 117 : 13123-, 2017

51 G. -L. Xu, 17 : 953-, 2017

52 H. Kim, 26 : 6361-, 2014

53 Y. Kim, 8 : 2378-, 2015

54 W. Lee, 8 : 1701788-, 2018

55 Y. Kim, 10 : 29992-, 2018

56 H. Kim, 12 : 2909-, 2018

57 E. Lee, 7 : 1902413-, 2020

58 T. Kim, 575 : 151744-, 2022

59 S. -M. Bak, 10 : 563-, 2018

60 G. O. Park, 9 : 5470-, 2015

61 T. Li, 14 : 1370-, 2021

62 K. Qian, 11 : 2002821-, 2021

63 S. Y. Park, 451 : 553-, 2008

64 W. Wang, 65 : 57-, 2008

65 T. Rattanawongwiboon, 191 : 109842-, 2022

66 C. Prehal, 118 : e2021893118-, 2021

67 T. -C. Chou, 142 : 2857-, 2020

68 T. Li, 116 : 11128-, 2016

69 B. L. Mehdi, 15 : 2168-, 2015

70 M. Balasubramanian, 92 : 1-, 2001

71 T. D. Hatchard, 151 : A838-, 2004

72 P. V. Braun, 12 : 3060-, 2018

73 M. Fehse, 478 : 228685-, 2020

74 C. L. Berhaut, 13 : 11538-, 2019

75 C. L. Berhaut, 29 : 190-, 2020

76 W. Cheng, 260 : 124157-, 2021

77 J. Wang, 49 : 6480-, 2013

78 G. O. Park, 26 : 2800-, 2016

79 S. M. Bhaway, 11 : 1443-, 2017

80 J. K. Shon, 7 : 11049-, 2016

81 K. H. Kim, 526 : 231135-, 2022

82 Y. Xia, 34 : 8767-, 2018

83 D. A. Stevens, 148 : A803-, 2001

84 Z. Liu, 20 : 3844-, 2020

85 A. S. Pandian, 390 : 153-, 2018

86 M. D. Galluzzo, 12 : 57421-, 2020

87 G. E. Möhl, 3 : 1525-, 2018

88 S. Inceoglu, 3 : 510-, 2014

89 Jae Seo Park ; 김재호 ; 양승재, "Rational Design of Metal–Organic Framework-Based Materials for Advanced LiS Batteries" 대한화학회 42 (42): 148-158, 2021