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Enhancing reversible capacity and cycling stability of Li1.2Ni0.13Fe0.13Mn0.54O2 by inducing low Li/Ni misalignment through Mo doping

Ran Pei-Lin Wu Kang Zhao En-Yue Wang Fang-Wei Wu Zhi-Min

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Enhancing reversible capacity and cycling stability of Li1.2Ni0.13Fe0.13Mn0.54O2 by inducing low Li/Ni misalignment through Mo doping

Ran Pei-Lin, Wu Kang, Zhao En-Yue, Wang Fang-Wei, Wu Zhi-Min
cstr: 32037.14.aps.73.20231361
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  • Li-ion batteries (LIBs) are widely used in mobile devices and electric vehicles, but the traditional layered transition metal cathode material, LiTMO2 (TM=Ni, Co, Mn, or Al), has a low energy density that cannot satisfy the demand of commercial applications. The Li-rich Mn-based layered oxides (LRLOs) are a strong competitor to the traditional layered cathode materials for their specific capacity of more than 200 mAh/g. Due to the high energy density and low cost, Li-rich Mn-based layered oxides (LRLO) have been a promising candidate cathode for next-generation Li-ion batteries. The anionic redox reaction (ARR) in LRLO destabilizes the lattice oxygen, leading to voltage degradation and capacity loss. Although iron-substituted cobalt-free Li-rich materials can achieve less voltage decay, they suffer severe cation disorder and poor kinetics. Here, we develop a simple and feasible high-valent ion doping strategy by doping Mo into Li1.2Ni0.13Fe0.13Mn0.54O2(LNFMO), which expands the Li layer spacing and provides a broader channel for Li+ transport, thereby improving the diffusion kinetics of Li+, effectively suppressing the cation disorder, and further stabilizing the layered structure. As a result, the Mo-doped LRLO exhibits significantly enhanced electrochemical performance, with an initial reversible capacity of 209.48 mAh/g at 0.2 C, and the initial specific capacity increasing from 137.02 mAh/g to 165.15 mAh/g at 1 C. After 300 cycles, specific capacity remains 117.49 mAh/g for the Mo-doped cathode, and the voltage decay decreases from 2.09 mV/cycle to 1.66 mV/cycle. The Mo-doped LRLO is systematically characterized, and the mechanism of cycle stabilization is revealed, which provides an important reference for designing high performance Li-rich cathode.
      Corresponding author: Zhao En-Yue, eyzhao@sslab.org.cn ; Wang Fang-Wei, fwwang@iphy.ac.cn ; Wu Zhi-Min, zmwu@cqnu.edu.cn
    • Funds: Project supported by the Key Project of Scientific and Technological Research Program of Chongqing Municipal Education Commission of China (Grant No. KJZD-K202300512) and the National Natural Science Foundation of China (Grant Nos. 52088101, 12105197).
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    Dahiya P P, Ghanty C, Sahoo K, Basu S, Majumder S B 2018 J. Electrochem. Soc. 165 A3114Google Scholar

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  • 图 1  Rietveld精修的样品LNFMO (a)和LNFMO-Mo (d) XRD图谱; 样品LNFMO (b)和LNFMO-Mo (e)的SEM图; 样品LNFMO (c)和LNFMO-Mo (f)的TEM图及层间距; LNFMO-Mo (g)表面不同元素的EDS分布图

    Figure 1.  Rietveld refined XRD patterns of samples LNFMO (a) and LNFMO-Mo (d); SEM images of samples LNFMO (b) and LNFMO-Mo (e); TEM images and layer spacing of samples LNFMO (c) and LNFMO-Mo (f); EDS images of distributions of different elements on the surface of LNFMO-Mo (g).

    图 2  样品LNFMO (a)和LNFMO-Mo (b)前3次循环的CV曲线; 在不同电流密度下的倍率性能 (c); 0.2 C电流密度下的初始循环曲线 (d); LNFMO (e)和LNFMO-Mo (f)的GITT曲线; 两种样品0.2 C (g)、0.5 C (h)、1 C (i)电流密度下的长循环性能

    Figure 2.  CV curves for the first 3 cycles of samples LNFMO (a) and LNFMO-Mo (b); rate performance at different current density (c); initial cycling curves at 0.2 C current density (d); GITT curves of samples LNFMO (e) and LNFMO-Mo (f); the long-cycle performance of the two samples at 0.2 C (g), 0.5 C (h), and 1 C (i) current density.

    图 3  LNFMO (a)和LNFMO-Mo (b)在原始、第1次充电至4.5 V、 4.8 V, 第1次放电至2.0 V状态下的XRD谱图及I(003)/(104)比值的变化; LNFMO(c)和LNFMO-Mo(d)在原始、第1次充电至4.8 V, 第1次放电至2.0 V状态下的O 1s XPS光谱

    Figure 3.  XRD spectra of LNFMO (a) and LNFMO-Mo (b) in the pristine, first charge to 4.5 V, 4.8 V, and first discharge to 2.0 V states and the variation of the I(003)/(104) ratio; O 1s XPS spectra of LNFMO (c) and LNFMO-Mo (d) in the pristine, first charge to 4.8 V, and first discharge to 2.0 V states.

  • [1]

    Chen Q, Pei Y, Chen H, Song Y, Zhen L, Xu C Y, Xiao P, Henkelman G 2020 Nat. Commun. 11 3411Google Scholar

    [2]

    He W, Zhang C, Wang M, Wei B, Zhu Y, Wu J, Liang C, Chen L, Wang P, Wei W 2022 Adv. Funct. Mater. 32 2200322Google Scholar

    [3]

    Seo D-H, Lee J, Urban A, Malik R, Kang S, Ceder G 2016 Nat. Chem. 8 692Google Scholar

    [4]

    Li X, Li X, Monluc L, et al. 2022 Adv. Energy Mater. 12 2200427Google Scholar

    [5]

    Jiao J, Zhang Z, Kuroiwa Y, Zhao E, Yin W, Wang B, Wang F, Zhao J, Zhang X, Xiao X 2023 Chem. Eng. J. 454 140327Google Scholar

    [6]

    Zhang K, Li B, Zuo Y, Song J, Shang H, Ning F, Xia D 2019 Electrochem. Energy Rev. 2 606Google Scholar

    [7]

    Eum D, Kim B, Kim S J, et al. 2020 Nat. Mater. 19 419Google Scholar

    [8]

    Liu W, Li J, Li W, Xu H, Zhang C, Qiu X 2020 Nat. Commun. 11 3629Google Scholar

    [9]

    Asl H Y, Manthiram A 2020 Science 369 140Google Scholar

    [10]

    Manthiram A, Knight J C, Myung S T, Oh S-M, Sun Y K 2016 Energy Mater. 6 1501010Google Scholar

    [11]

    Wu K, Zhao E, Ran P, Yin W, Zhang Z, Wang B, Ikeda K, Otomo T, Xiao X, Wang F, Zhao J 2023 Small 19 2300419Google Scholar

    [12]

    Hu S, Pillai Anoop S, Liang G, Pang W K, Wang H, Li Q, Guo Z 2019 Electrochem. Energy Rev. 2 277Google Scholar

    [13]

    Zhao H, Lam W A, Sheng L, Wang L, Bai P, Yang Y, Ren D, Xu H, He X 2022 Adv. Energy Mater. 12 2103894Google Scholar

    [14]

    Zhao E, Zhang M, Wang X, et al. 2020 Energy Storage Mater. 24 384Google Scholar

    [15]

    Zhao H, Li W, Li J, Xu H, Zhang C, Li J, Han C, Li Z, Chu M, Qiu X 2022 Nano Energy 92 106760Google Scholar

    [16]

    Billaud J, Sheptyakov D, Sallard S, Leanza D, Talianker M, Grinblat J, Sclar H, Aurbach D, Novák P, Villevieille C 2019 J. Mater. Chem. A 7 15215Google Scholar

    [17]

    Zhao T, Ji R, Yang H, Zhang Y, Sun X, Li Y, Li L, Chen R 2019 J. Energy Chem. 33 37Google Scholar

    [18]

    Lee Y, Park H, Cho M, Ahn J, Ko W, Kang J, Choi Y J, Kim H, Park I, Ryu W, Hong J, Kim J 2022 Adv. Funct. Mater. 32 2204354Google Scholar

    [19]

    Nayak P K, Grinblat J, Levi M, Levi E, Kim S, Choi J W, Aurbach D 2016 Adv. Energy Mater. 6 1502398Google Scholar

    [20]

    Dahiya P P, Ghanty C, Sahoo K, Basu S, Majumder S B 2018 J. Electrochem. Soc. 165 A3114Google Scholar

    [21]

    Wang E, Xiao D, Wu T, Liu X, Zhou Y, Wang B, Lin T, Zhang X, Yu H 2022 Adv. Funct. Mater. 32 2201744Google Scholar

    [22]

    Kroger F A 1977 Annu. Rev. Mater. Sci. 7 449Google Scholar

    [23]

    Zu C X, Li H 2011 Energy Environ. Sci. 4 2614Google Scholar

    [24]

    Li X, Xin H, Liu Y, Li D, Yuan X, Qin X 2015 RSC Adv. 5 45351Google Scholar

    [25]

    Liu X, Yu B, Wang M, Jin Y, Fu Z, Chen J, Ma Z, Guo B, Huang Y, Li X 2022 Mater. Today Commun. 32 104170Google Scholar

    [26]

    Yang J, Chen Y, Li Y, Xi X, Zheng J, Zhu Y, Xiong Y, Liu S 2021 ACS Appl. Mater. Interfaces 13 25981Google Scholar

    [27]

    Meng J, Xu L, Ma Q, Yang M, Fang Y, Wan G, Li R, Yuan J, Zhang X, Yu H, Liu L, Liu T 2022 Adv. Funct. Mater. 32 2113013Google Scholar

    [28]

    Morales J, Pérez-Vicente C, Tirado J L 1990 Mater. Res. Bull. 25 623Google Scholar

    [29]

    Zhao J, Zhang W, Huq A, Misture S T, Zhang B, Guo S, Wu L, Zhu Y, Chen Z, Amine K, Pan F, Bai J, Wang F 2017 Adv. Energy Mater. 7 1601266Google Scholar

    [30]

    Li Q, Wang Y, Wang X, Sun X, Zhang J N, Yu X, Li H 2020 ACS Appl. Mater. Interfaces 12 2319Google Scholar

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Publishing process
  • Received Date:  21 August 2023
  • Accepted Date:  25 September 2023
  • Available Online:  09 October 2023
  • Published Online:  20 January 2024

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