Searching multi-functional electrolytes to enhance the performance of lithium-ion batteries (LIBs) at extreme temperatures has been extensively explored, while unidirectional enhancements often fail to meet the different demands of LIBs in multi-scenario applications, such as military and aerospace, where LIBs are required to maintain a certain
View moreLithium–ion battery (LIB) suffers from safety risks and narrow operational temperature range in despite the rapid drop in cost over the past decade. it is not feasible to modify the cathode and anode to improve the
View moreThe combustion accident and narrow temperature range of rechargeable lithium-ion batteries (LIBs) limit its further expansion. Non-flammable solvents with a wide liquid range hold the key to safer LIBs with a wide temperature adaptability.
View moreWide Working Temperature Range Rechargeable Lithium–Sulfur Batteries: A Critical Review Zhenfang Zhou, Guicun Li,* Jiujun Zhang, and Yufeng Zhao* for lithium sulfur batteries operated at a wide range of temperature are also proposed.
View moreTherefore, a timely and critical overview of the latest development in the field of RLBs operating at wide temperatures is needed. In this review, an in-depth understanding on how the temperature affects the thermodynamics of lithium-ion transport at electrodes, electrolytes, and electrode/electrolyte interfaces is emphasized.
View moreIn addition, it also demonstrates good performance in a wide temperature range (−20∼50 °C). Overall, this class of battery configuration may open up a promising route for high-energy-density, cost-effective, high-safety, wide-temperature-range, low-stress and dendrite-free rechargeable lithium batteries.
View moreState of health estimation of lithium-ion battery in wide temperature range via temperature-aging coupling mechanism analysis. The 18,650 LiFePO 4 batteries (3.2 V, 1.3 Ah) produced by a Taiwan manufacturer are selected. The Neaware battery test system is used to carry out the charge/discharge tests and Shenzhen Kejing-Star''s thermal test
View moreThe proof-of-concept solid-state model integrated the PEO/MPEG@LLZTO-Nanocellulose (PLCN) CSE, the high-capacity-loading LiFePO 4 (10 mg cm −2) and thin-layer lithium foil (30 μm), exhibiting superior cycling endurance within wide temperature range (from 25 °C to 130 °C) and the high gravimetric energy of 323 Wh kg −1 (excluding packaging and Al
View moreLithium-ion batteries are a key power sources for electric vehicles, offering high energy density, low self-discharge rate, and long cycle life [1, 2].However, they suffer from performance degradation over time, raising concerns about safety risks such as electrolyte leakage and thermal runaway accidents [[3], [4], [5]].Accurate state of health (SOH) estimation
View moreRechargeable lithium batteries (RLBs), including lithium-ion and lithium-metal systems, have recently received considerable attention for electrochemical energy storage (EES) devices due to their low cost, sustainability, environmental friendliness, and
View moreFormulating electrolytes with solvents of low freezing points and high dielectric constants is a direct approach to extend the service-temperature range of lithium (Li)-ion
View moreFormulating electrolytes with solvents of low freezing points and high dielectric constants is a direct approach to extend the service-temperature range of lithium (Li)-ion batteries (LIBs).
View moreThis paper reports on the development of a solid-state thin film lithium battery using a high conductive sulfide solid electrolyte and its charge-discharge characteristics at high and low temperatures. The high ionic conductivity of the sulfide solid electrolyte can
View moreLithium-ion batteries, the predominant energy storage technology, are increasingly challenged to function across a broad thermal spectrum. As essential carriers for ion
View moreRechargeable lithium batteries (RLBs), including lithium-ion and lithium-metal systems, have recently received considerable attention for electrochemical energy storage (EES) devices due to their low cost,
View moreOperating temperature ranges of LIBs. Commercial 1 M LiPF 6 /ethylene carbonate:dimethyl carbonate (DMC) electrolyte can operate in a temperature range of −20
View moreKeywords: solid-state battery, lithium battery, solid electrolyte, operating temperature range All-Solid-State Lithium Batteries with Wide Operating Temperature Range M a OGAWA*, K a YOSHIDA a K HARADA 0 200 400 600 100 200 Energy density per weight (Wh/kg) 300 Energy density per volume (Wh /ℓ) Li-ion Ni-MH Pb Ni-Cd
View moreAs a result, a SEI layer with a rich inorganic component is formed at elevated temperatures, leading to improved performance in lithium titanate (LTO)/Li, lithium iron phosphate (LFP)/Li, and LiNi 0.5 Co 0.2 Mn 0.3 O 2 (NCM523)/Li
View moreThe representative materials in a) research progresses and the b) current material design strategies toward wide temperature range lithium sulfur batteries (The letter of "T" means temperature).
View moreThis lithium-ion battery system can maintain considerable cycle stability and rate performance over a wide temperature range from −30 °C to 60 °C. This study provides new insights into the design of high-safety, high-power LIBs with wide-temperature operating environments.
View moreThis lithium-ion battery system can maintain considerable cycle stability and rate performance over a wide temperature range from −30 °C to 60 °C. This study provides new insights into the
View moreAnd the fundamental operating mechanism and design strategies of electrolyte and electrode materials for RLBs working within a wide-temperature range are reviewed in detail. Finally, insights into and
View moreLithium-ion batteries, the predominant energy storage technology, are increasingly challenged to function across a broad thermal spectrum. As essential carriers for ion transport, electrolytes necessitate adaptability to these extensive temperature variations.
View moreSeen from the simulation results over wide temperature range, mean absolute errors of voltage and temperature are less than 30 mV and 0.12 K at −5–55 °C respectively, which indicates the capability of the developed model for high-precision numerical simulation over temperature range for prismatic lithium-ion batteries.
View moreFor dual salts system (0.8 m LiTFSI and 0.2 m LiODFB in adiponitrile(ADN) /EC (1:1 v/v %), the competition between the anions and solvent is manipulated over a wide
View moreAccurate estimation of the State of Charge (SOC) of a battery can improve battery utilization and reduce driver range anxiety, which is a prerequisite for energy management and fault diagnosis in Battery Management Systems (BMS) [1], [2].Lithium batteries are susceptible to time-varying environmental temperatures, complex electrochemical reactions,
View moreAdditionally, specialized batteries for military and aerospace applications are required to perform reliably in the wide temperature range of −40 to 70 °C [6]. Applications such as subsurface exploration, thermal reactors, defense systems, and space vehicles also demand batteries capable of operating over a wide temperature range [7].
View moreThe perfluorinated electrolytes would be a good choice for high-performance lithium batteries due to an ultra-wide working temperature (−125–70 °C) and excellent flame
View moreHerein, lithium-ion batteries operating in an ultrawide temperature range of −90 to +90 °C were fabricated using a cost-effective method. Electrolytes with weak solvent/Li + interaction, high electrochemical stability, and ultrawide liquid temperature range are key factors for excellent performance.
View moreThis paper reports on the development of a solid-state thin film lithium battery using a high conductive sulfide solid electrolyte and its charge-discharge characteristics at high and low
View moreLithium-ion batteries, the predominant energy storage technology, are increasingly challenged to function across a broad thermal spectrum. It operates over a wide
View moreThe perfluorinated electrolytes would be a good choice for high-performance lithium batteries due to an ultra-wide working temperature (−125–70 °C) and excellent flame-retardant ability, which will lead to the research dream
View moreHerein, lithium-ion batteries operating in an ultrawide temperature range of −90 to +90 °C were fabricated using a cost-effective method. Electrolytes with weak solvent/Li +
View moreHerein this work, an PYR 14 TFSI based electrolyte possesses wide liquid range and good electrochemical stability (4.7 V) was designed with LiDFOB as the salt, propylene carbonate (PC) and 1,2-dimethoxyethane (DME) with low melting point as the solvents. It was found that the electrolyte shows wide liquid range beyond −90 °C and outstanding compatibility with both
View moreAs studied by Ogawa et al. [124] solid-state thin film lithium batteries can be operated at a low temperature of -40 • C with a high temperature of 170 • C, and, correspondingly, a recent
View moreApparently, developing wide-range temperature tolerant LIBs is critically important to enhance battery stability, safety, and applicability.
View moreThis lithium-ion battery system can maintain considerable cycle stability and rate performance over a wide temperature range from −30 °C to 60 °C. This study provides new insights into the design of high-safety, high-power LIBs with wide-temperature operating environments.
Herein, lithium-ion batteries operating in an ultrawide temperature range of −90 to +90 °C were fabricated using a cost-effective method. Electrolytes with weak solvent/Li + interaction, high electrochemical stability, and ultrawide liquid temperature range are key factors for excellent performance.
Cite this: ACS Appl. Mater. Interfaces 2017, 9, 22, 18826–18835 Formulating electrolytes with solvents of low freezing points and high dielectric constants is a direct approach to extend the service-temperature range of lithium (Li)-ion batteries (LIBs).
Ultimately, the synergistic effect of highly concentrated salts and low-viscosity solvents enables the MCMB∥NCM622 coin cells to operate over a wide temperature range of −30 to 90 °C. Table 3 summarizes the compositions and physicochemical properties of lithium salt-modified electrolytes for wide-temperature LIBs.
Although numerous additives have demonstrated significant potential in enabling wide-temperature operation for LIBs, their consumption during cycling limits battery longevity. Relying on additives alone to extend the operating temperature range of LIBs is insufficient.
The development of wide-temperature-range liquid electrolytes (WTLEs) for high-performance lithium-ion batteries (LIBs) will expand their multiple-scenario applications under extreme conditions. 1. Introduction
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