TY - BOOK ID - 145172039 TI - Battery Systems and Energy Storage beyond 2020 AU - Birke, Kai Peter AU - Karabelli, Duygu PY - 2022 PB - Basel MDPI - Multidisciplinary Digital Publishing Institute DB - UniCat KW - Research & information: general KW - battery energy storage KW - renewable energy KW - distribution network KW - genetic algorithm KW - particle swarm optimization KW - electrolyte KW - additive KW - interface KW - pseudocapacitance KW - intercalation KW - energy storage KW - secondary battery KW - sodium-ion KW - lithium-ion battery KW - traction battery KW - waterjet-based recycling KW - direct recycling KW - life cycle assessment KW - global warming potential KW - electro-thermal model KW - smart cell KW - intelligent battery KW - neural network KW - temperature prediction KW - DRT by time domain data KW - pulse evaluation KW - relaxation voltage KW - online diagnosis KW - degradation mechanisms KW - EIS KW - lead batteries KW - safety concept KW - safety battery KW - battery monitoring KW - electronic battery sensor KW - failure modes KW - failure distribution KW - failure rates KW - field battery investigation KW - safe supply KW - power supply system KW - zinc ion batteries KW - stationary energy storage KW - polymer binder KW - solvent KW - doctor blade coating KW - manganese dioxide KW - mixing ratio KW - electrochemical impedance spectroscopy KW - SEM+EDX KW - electrode fabrication KW - lithium ion battery KW - AC current injection KW - bi-directional control KW - charger KW - lithium-ion battery cell KW - volumetric expansion KW - mechanical degradation KW - state of charge dependency KW - cell thickness KW - mechanical aging KW - non-uniform volume change KW - solar photovoltaic energy KW - redox flow battery KW - residential load KW - renewable energy integration KW - battery sizing KW - battery efficiency KW - lithium battery KW - temperature dependency KW - ether based electrolyte KW - insitu deposited lithium-metal electrode KW - Coulombic efficiency KW - lithium deposition morphology KW - Li-ion battery KW - thermal runaway KW - model KW - post-mortem analysis KW - ecofriendly electrolyte for lithium-ion batteries KW - increased thermal stability of electrolytes KW - enhanced electrolyte safety based on high flash point KW - tributylacetylcitrate KW - acetyltributylcitrate KW - electric vehicle battery KW - disassembly KW - disassembly planner design KW - disassembly strategy optimization KW - battery management system KW - state monitoring KW - state-of-charge KW - digital twin KW - battery model KW - Doyle-Fuller-Newman model KW - equivalent circuit model KW - parameter estimation KW - lithium-ion batteries KW - temperature estimation KW - sensorless temperature measurement KW - artificial intelligence KW - artificial neural network KW - lithium-ion cells KW - battery thermal management systems KW - CFD simulations KW - liquid cooling KW - battery energy storage KW - renewable energy KW - distribution network KW - genetic algorithm KW - particle swarm optimization KW - electrolyte KW - additive KW - interface KW - pseudocapacitance KW - intercalation KW - energy storage KW - secondary battery KW - sodium-ion KW - lithium-ion battery KW - traction battery KW - waterjet-based recycling KW - direct recycling KW - life cycle assessment KW - global warming potential KW - electro-thermal model KW - smart cell KW - intelligent battery KW - neural network KW - temperature prediction KW - DRT by time domain data KW - pulse evaluation KW - relaxation voltage KW - online diagnosis KW - degradation mechanisms KW - EIS KW - lead batteries KW - safety concept KW - safety battery KW - battery monitoring KW - electronic battery sensor KW - failure modes KW - failure distribution KW - failure rates KW - field battery investigation KW - safe supply KW - power supply system KW - zinc ion batteries KW - stationary energy storage KW - polymer binder KW - solvent KW - doctor blade coating KW - manganese dioxide KW - mixing ratio KW - electrochemical impedance spectroscopy KW - SEM+EDX KW - electrode fabrication KW - lithium ion battery KW - AC current injection KW - bi-directional control KW - charger KW - lithium-ion battery cell KW - volumetric expansion KW - mechanical degradation KW - state of charge dependency KW - cell thickness KW - mechanical aging KW - non-uniform volume change KW - solar photovoltaic energy KW - redox flow battery KW - residential load KW - renewable energy integration KW - battery sizing KW - battery efficiency KW - lithium battery KW - temperature dependency KW - ether based electrolyte KW - insitu deposited lithium-metal electrode KW - Coulombic efficiency KW - lithium deposition morphology KW - Li-ion battery KW - thermal runaway KW - model KW - post-mortem analysis KW - ecofriendly electrolyte for lithium-ion batteries KW - increased thermal stability of electrolytes KW - enhanced electrolyte safety based on high flash point KW - tributylacetylcitrate KW - acetyltributylcitrate KW - electric vehicle battery KW - disassembly KW - disassembly planner design KW - disassembly strategy optimization KW - battery management system KW - state monitoring KW - state-of-charge KW - digital twin KW - battery model KW - Doyle-Fuller-Newman model KW - equivalent circuit model KW - parameter estimation KW - lithium-ion batteries KW - temperature estimation KW - sensorless temperature measurement KW - artificial intelligence KW - artificial neural network KW - lithium-ion cells KW - battery thermal management systems KW - CFD simulations KW - liquid cooling UR - https://www.unicat.be/uniCat?func=search&query=sysid:145172039 AB - Currently, the transition from using the combustion engine to electrified vehicles is a matter of time and drives the demand for compact, high-energy-density rechargeable lithium ion batteries as well as for large stationary batteries to buffer solar and wind energy. The future challenges, e.g., the decarbonization of the CO2-intensive transportation sector, will push the need for such batteries even more. The cost of lithium ion batteries has become competitive in the last few years, and lithium ion batteries are expected to dominate the battery market in the next decade. However, despite remarkable progress, there is still a strong need for improvements in the performance of lithium ion batteries. Further improvements are not only expected in the field of electrochemistry but can also be readily achieved by improved manufacturing methods, diagnostic algorithms, lifetime prediction methods, the implementation of artificial intelligence, and digital twins. Therefore, this Special Issue addresses the progress in battery and energy storage development by covering areas that have been less focused on, such as digitalization, advanced cell production, modeling, and prediction aspects in concordance with progress in new materials and pack design solutions. ER -