Prussian Blue Analogues as Positive Electrodes for Mg Batteries: Insights into Mg2+ Intercalation

被引:7
|
作者
Trocoli, Rafael [1 ]
Houdeville, Raphaelle [2 ]
Frontera, Carlos [2 ]
Vincent, Smobin [3 ]
Garcia Lastra, Juan Maria [3 ]
Palacin, M. Rosa [2 ]
机构
[1] Univ Cordoba, Fac Ciencias, Dept Quim Inorgan & Ingn Quim, Inst Quim Energia & Medio Ambiente IQUEMA, Cordoba 14071, Spain
[2] Inst Ciencia Mat Barcelona ICMAB CSIC, Campus UAB, Bellaterra 08193, Catalonia, Spain
[3] Tech Univ Denmark, Dept Energy Convers & Storage, DK-2800 Lyngby, Denmark
关键词
magnesium batteries; Prussian blue analogues; operando XRD; density functional theory; HIGH-VOLTAGE CATHODE; NICKEL HEXACYANOFERRATE; POWDER DIFFRACTION; SUPERIOR CATHODE; ION;
D O I
10.1002/cssc.202301224
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Potassium manganese hexacianoferrate has been prepared by co-precipitation from manganese (II) chloride and potassium citrate, with chemical analysis yielding the formula K1.72Mn[Fe(CN)(6)](0.92)square(0.08) & sdot; 1.1H(2)O (KMnHCF). Its X-ray diffraction pattern is consistent with a monoclinic structure (space group P 2(1)/n, no. 14) with cell parameters a=10.1202(6)& Aring;, b=7.2890(5)& Aring;, c=7.0193(4)& Aring;, and beta=89.90(1)degrees. Its redox behavior has been studied in magnesium containing electrolytes. Both K+ ions deintercalated from the structure upon oxidation and contamination with Na+ ions coming from the separator were found to interfere in the electrochemical response. In the absence of alkaline ions, pre-oxidized manganese hexacianoferrate showed reversible magnesium intercalation, and the process has been studied by operando synchrotron X-ray diffraction. The location of Mg2+ ions in the crystal structure was not possible with the available experimental data. Still, density functional theory simulations indicated that the most favorable position for Mg2+ intercalation is at 32f sites (considering a pseudo cubic F m-3m phase), which are located between 8c and Mn sites.
引用
收藏
页数:8
相关论文
共 50 条
  • [21] Putative Mechanism of Mg2+/Mg2+ Exchange and Na+/Mg2+ Antiports
    Guenther, T.
    Management Services, 40 (03):
  • [22] Putative mechanism of Mg2+/Mg2+ exchange and Na+/Mg2+ antiport
    Gunther, T
    MAGNESIUM-BULLETIN, 1996, 18 (01): : 2 - 6
  • [23] Intercalation/deintercalation of solvated Mg2+ into/from graphite interlayers
    Shimizu, Masahiro
    Nakahigashi, Atsuhito
    Arai, Susumu
    PHYSICAL CHEMISTRY CHEMICAL PHYSICS, 2021, 23 (31) : 16981 - 16988
  • [24] Correction to: Prussian Blue Analogues in Aqueous Batteries and Desalination Batteries
    Chiwei Xu
    Zhengwei Yang
    Xikun Zhang
    Maoting Xia
    Huihui Yan
    Jing Li
    Haoxiang Yu
    Liyuan Zhang
    Jie Shu
    Nano-Micro Letters, 2021, 13
  • [25] MoS2 nanostructures:: Synthesis and electrochemical Mg2+ intercalation
    Li, XL
    Li, YD
    JOURNAL OF PHYSICAL CHEMISTRY B, 2004, 108 (37): : 13893 - 13900
  • [26] Thermodynamics and kinetics of Mg2+/Li+ and Mg2+/Na+ co-intercalation into layered titanium disulfide
    Tang, Yudi
    Tao, Donggang
    Cao, Yuliang
    Xu, Fei
    PHYSICAL CHEMISTRY CHEMICAL PHYSICS, 2023, 25 (33) : 22497 - 22504
  • [27] Hybrid Mg/Li-ion batteries enabled by Mg2+/L+ co-intercalation in VS4 nanodendrites
    Wang, Yanrong
    Wang, Caixing
    Yi, Xu
    Hu, Yi
    Wang, Lei
    Ma, Lianbo
    Zhu, Guoyin
    Chen, Tao
    Jin, Zhong
    ENERGY STORAGE MATERIALS, 2019, 23 : 741 - 748
  • [28] Insights into Mg2+ Intercalation in a Zero-Strain Material: Thiospinel MgxZr2S4
    Bonnick, Patrick
    Blanc, Lauren
    Vajargah, Shahrzad Hosseini
    Lee, Chang-Wook
    Sun, Xiaoqi
    Balasubramanian, Mahalingam
    Nazar, Linda F.
    CHEMISTRY OF MATERIALS, 2018, 30 (14) : 4683 - 4693
  • [29] Prussian blue and its analogues as advanced supercapacitor electrodes
    Goda, Emad S.
    Lee, Seungho
    Sohail, Muhammad
    Yoon, Kuk Ro
    JOURNAL OF ENERGY CHEMISTRY, 2020, 50 : 206 - 229
  • [30] Prussian blue and its analogues as advanced supercapacitor electrodes
    Emad S.Goda
    Seungho Lee
    Muhammad Sohail
    Kuk Ro Yoon
    Journal of Energy Chemistry , 2020, (11) : 206 - 229