Electrolytes for Low‐Temperature Lithium Batteries Based on Ternary Mixtures of Aliphatic Carbonates

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    H. Missan, S. S. Sekhon · 2005
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    Bugga V. Ratnakumar, Marshall C. Smart, Richard Ewell, S. Surampudi, R. Marsh · 2000 · Intersociety Energy Conversion Engineering Conference
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    Marshall C. Smart, B. Ratnakumar, K. Chin, L. D. Whitcanack, E. Davies, S. Surampudi, M. Manzo, P. Dalton · 2002 · IECEC '02. 2002 37th Intersociety Energy Conversion Engineering Conference, 2002.
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    A. Mistry, Hans-Georg Steinrück, M. Toney, N. Balsara, Venkat Srinivasan · 2025 · Journal of Physical Chemistry C
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    Jason S. Packard, Ethan Adams, Vilas G. Pol · 2024 · Batteries
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    M. Smart, B. Ratnakumar, L. Whitcanack, F. Puglia, S. Santee, R. Gitzendanner · 2009
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    M. Smart, B. Ratnakumar, R. Ewell, L. D. Whitcanack, K. Chin, S. Surampudi · 2004
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    I. R. Hill, E. Andrukaitis · 2004
34. The evolution of low-temperature lithium metal batteries: Materials, mechanisms, and applications
    Chen-Xi Yu, Bao-Zhou Wang, Shu-Min Zheng · 2025 · Renewable & Sustainable Energy Reviews
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    Helin Xu, Lin Cheng, Daniyaer Paizulamu, Yong-Mi Zhang, Changyu Zhu · 2023 · Energy Reports
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    Bonwun Gu, Chan-Yong Kang · 2025 · Ionics (Kiel)
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    A. Ignatova, G. Z. Tulibaeva, O. V. Yarmolenko, S. Fateev · 2017 · Russian journal of electrochemistry
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    Michael L. Lazar, B. Lucht, B. Sloan, Steve Carlson · 2013
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    M. Smart, B. Ratnakumar, L. Whitcanack · 2008
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    Marshall C. Smart, B. Ratnakumar, L. Whitcanacka, S. Surampudia, L. Lowry, R. Gitzendanner, C. Marsh, F. Puglia, J. Byers, R. Marsh · 2000 · Intersociety Energy Conversion Engineering Conference
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    Chun-Ming Wu, L. Saravanan, Hung-Yuan Chen, Ping-I. Pan, Cheng-Si Tsao, Chia-Chin Chang · 2020 · Journal of the Chinese Chemical Society (Taipei)
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    A. Kuz'mina, T. Kulova, E. K. Tuseeva, E. Chirkova · 2020 · Russian journal of electrochemistry
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    M. Smart, B. Ratnakumar, L. Whitcanack, Elizabeth Dewell, L. Jones, C. Salvo, F. Puglia, R. Gitzendanner, S. Cohen · 2008
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    A. Chagnes · 2015 · Lithium Process Chemistry
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    Shu-Wei Hong, Li Jie, Guan-Chao Wang, Zhian Zhang, Y. Lai · 2015 · Transactions of Nonferrous Metals Society of China
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    V. Ramar, Christian Pszolla, Manuel Weinberger, Markus Borck, Laurent Zinck · 2025 · Batteries & Supercaps
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    Samuel Emilsson, Marcelo Albuquerque, Pernilla Öberg, D. Brandell, M. Johansson · 2024 · ACS Physical Chemistry Au
54. Free-binder lithium ion battery based on a hybrid multiwalled carbon nanotube-graphitic platelet architecture
    Jiang Zhao, Changchun Zhang, De-Bo Wang, Peng Zhang · 2015 · Ionics (Kiel)
55. ELECTROCHEMICAL TECHNOLOGIES FOR LOW TEMPERATURES
    V. Fateev, T. Kulova, E. A. Seregina, N. A. Ivanova, D. Spasov · 2019 · Chemical Problems
56. Wide-temperature Lithium-ion batteries: Material innovations and design strategies for overcoming electrochemical challenges in extreme environments
    Xiaobin Zhong, Shuo Wang, Hang Yao, Shou-Fu Wang, Jiapu Guo, Kai Wang, Yue-Xian Song, Yao-Hui Zhang, Ji-Feng Ding, Han-Tao Liu et al. · 2026 · Applied Energy
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    Ke-Xin Li, Dan-Dan Yu, Tianyi Yu, Jing-Yun Mou, Tianqi Ge, Jia-Wei Luo, Wen-Long Song, Khatam B. Ashurov, Da Chen · 2026 · eChem
58. Self‐sustainable wireless sensor network for low‐temperature application
    Y. Cho, K. Choi, Jaeyoon Kwon · 2021 · Microwave and optical technology letters (Print)
59. Temperature Effects on the Performance of Lithium-Ion and Sodium-Ion Batteries
    T. Kulova, A. Skundin · 2021 · Russian journal of electrochemistry
60. Demonstrating a Metal‐Metal Battery System in Aprotic Electrolyte with Silver and Lithium
    Huimin Wang, Wenchuan Gu, Denis Y. W. Yu · 2019 · ChemElectroChem
61. Lithium Ion Battery Efficient Thermal Management Numerical Simulation Research
    S. Sun, Xin-Yu Zhang, Meng-Qiu Yang · 2014
62. Expanding the Temperature Range of High Power Lithium-Ion Chemistry
    V. Visco, H. Tsukamoto, Michael R. Tomcsi · 2008
63. Recent advances in electrolyte engineering, electrode design, and separator optimization for lithium-ion batteries operating under extreme temperatures
    Jin-Hao Liu, Hang-Qi Liao, Li-Yu Zhang, T.-W. Xiao · 2026 · Journal of Energy Storage
64. From Li-ion to dual-ion batteries: Cation–anion solvation asymmetry as a design principle for electrolytes and interphases
    Yi-Tao He, Dan Zhao, Umer Waqas, J. Červenka · 2026 · Chemical Engineering Journal
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    A. Zaguzina, A. A. Vorfolomeeva, E. Lisitsa, A. Okotrub, L. G. Bulusheva · 2026 · Journal of Structural Chemistry
66. Impact of the Cyclic-to-Linear Carbonate Ratio in EC-DEC-DMC Electrolytes on the Low-Temperature Performance of Sodium-Ion Batteries Comprising Metallic Sodium and Intercalation-Type Electrodes
    D. S. Lutsenko, E. V. Belova, M. Zakharkin, O. Drozhzhin, E. Antipov · 2025 · Journal of the Electrochemical Society
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    Yury V. Shmatok, N. Globa, V. Sirosh, I. V. Romanova · 2025 · Himia Fizika ta Tehnologia Poverhni
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    S. Sun, Xin-Yu Zhang, Lei Feng · 2015 · IEEE International Conference on Multimedia and Expo
71. Electrolyte and Solid-Electrolyte Interphase Layer in Lithium-Ion Batteries
    A. Chagnes, J. Światowska · 2012
72. Li-Ion Rover Batteries and Descent Stage Lithium Thermal Batteries on the Mars Science Laboratory
    B. Ratnakumar, M. Smart, S. Cohen, F. Puglia, R. Cooper, J. Gathright, W. West, T. Daud, S. McCoy, E. Dewell et al. · 2008
73. Lithium-ion batteries
    M. Obrovac, J. Dahn · 1998
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    A. Misra · 2018
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