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A systems approach to lithium-ion battery management /

Previously limited to heavy and bulky lead-acid storage batteries, large format batteries were used only where absolutely necessary as a means of energy storage. The improved energy density, cycle life, power capability, and durability of lithium ion cells has given us electric and hybrid vehicles w...

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Detalles Bibliográficos
Clasificación:Libro Electrónico
Autor principal: Weicker, Phillip
Formato: Electrónico eBook
Idioma:Inglés
Publicado: Boston : Artech House, [2014]
Colección:Artech House power engineering series.
Temas:
Acceso en línea:Texto completo

MARC

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100 1 |a Weicker, Phillip. 
245 1 2 |a A systems approach to lithium-ion battery management /  |c Phillip Weicker. 
264 1 |a Boston :  |b Artech House,  |c [2014] 
300 |a 1 online resource 
336 |a text  |b txt  |2 rdacontent 
337 |a computer  |b c  |2 rdamedia 
338 |a online resource  |b cr  |2 rdacarrier 
490 1 |a Power engineering 
504 |a Includes bibliographical references. 
520 |a Previously limited to heavy and bulky lead-acid storage batteries, large format batteries were used only where absolutely necessary as a means of energy storage. The improved energy density, cycle life, power capability, and durability of lithium ion cells has given us electric and hybrid vehicles with meaningful driving range and performance, grid-tied energy storage systems for integration of renewable energy and load leveling, backup power systems and other applications. This book discusses battery management system (BMS) technology for large format lithium-ion battery packs from a systems perspective. It covers the future of BMS; provides new ways to generate, use, and store energy; free us from the perils of non-renewable energy sources; provides a full update on BMS technology, covering software, hardware, integration, testing, and safety. --  |c Edited summary from book. 
505 0 |a 1 Introduction; 1.1 Battery Management Systems and Appli; 1.2 State of the Art; 1.3 Challenges; 2 Lithium-Ion Battery Fundamentals; 2.1 Battery Operation; 2.2 Battery Construction; 2.3 Battery Chemistry; 2.4 Safety; 2.5 Longevity; 2.6 Performance; 2.7 Integration; 3 Large-Format Systems; 3.1 Definition; 3.2 Balance of Plant; 3.3 Load Interface; 3.4 Variation and Divergence; 3.5 Application Parameters; 4 System Description; 4.1 Typical Inputs; 4.2 Typical Outputs; 4.3 Typical Functions; 4.4 Summary; 5 Architectures; 5.1 Monolithic; 5.2 Distributed; 5.3 Semi-Distributed 
505 8 |a 5.4 Connection Methods5.5 Additional Scalability; 5.6 Battery Pack Architectures; 5.7 Power Supply; 5.8 Control Power; 5.9 Computing Architecture; 6 Measurement; 6.1 Cell Voltage Measurement; 6.2 Current Measurement ; 6.2.1 Current Sensors; 6.2.2 Current Sense Measurement; 6.3 Synchronization of Current and Volta; 6.4 Temperature Measurement; 6.5 Measurement Uncertainty and Battery ; 6.6 Interlock Status; 7 Control; 7.1 Contactor Control; 7.2 Soft Start or Precharge Circuits; 7.3 Control Topologies; 7.4 Contactor Opening Transients; 7.5 Chatter Detection; 7.6 Economizers 
505 8 |a 7.7 Contactor Topologies7.8 Contactor Fault Detection; 8 Battery Management System Functionality; 8.1 Charging Strategies; 8.1.1 CC/CV Charging Method; 8.1.2 Target Voltage Method; 8.1.3 Constant Current Method; 8.2 Thermal Management; 8.3 Operational Modes; 9 High-Voltage Electronics Fundamentals; 9.1 High-Voltage DC Hazards; 9.2 Safety of High-Voltage Electronics; 9.3 Conductive Anodic Filaments; 9.4 Floating Measurements; 9.4.1 Y-Capacitance; 9.5 HV Isolation; 9.6 ESD Suppression on Isolated Devices; 9.7 Isolation Detection; 10 Communications; 10.1 Overview; 10.2 Network Technologies 
505 8 |a 10.2.1 IC/SPI10.2.2 RS-232 and RS-485; 10.2.3 Local Interconnect Network; 10.2.4 CAN; 10.2.5 Ethernet and TCP/IP; 10.2.6 Modbus; 10.2.7 FlexRay; 10.3 Network Design; 11 Battery Models; 11.1 Overview; 11.2 Thévenin Equivalent Circuit; 11.3 Hysteresis; 11.4 Coulombic Efficiency; 11.5 Nonlinear Elements; 11.6 Self-Discharge Modeling; 11.7 Physics-Based Battery Models; 11.7.1 Doyle-Fuller-Newman Model; 11.7.2 Single Particle Model; 11.8 State-Space Representations of Batt; References; 12 Parameter Identification; 12.1 Brute-Force Approach; 12.2 Online Parameter Identification 
505 8 |a 12.3 SOC/OCV Characterization12.4 Kalman Filtering; 12.5 Recursive Least Squares; 12.6 Electrochemical Impedance Spectrosc; 13 Limit Algorithms; 13.1 Purpose; 13.2 Goals; 13.3 Limit Strategy; 13.4 Determining Safe Operating Area; 13.5 Temperature; 13.6 SOC/DOD; 13.7 Cell Voltage; 13.8 Faults; 13.9 First-Order Predictive Power Limit; 13.10 Polarization-Dependent Limit; 13.11 Limit Violation Detection ; 13.12 Limits with Multiple Parallel Stri; 14 Charge Balancing; 14.1 Balancing Strategies; 14.2 Balancing Optimization; 14.3 Charge Transfer Balancing; 14.3.1 Flying Capacitor 
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590 |a Knovel  |b ACADEMIC - Sustainable Energy & Development 
590 |a Knovel  |b ACADEMIC - Electronics & Semiconductors 
650 0 |a Lithium ion batteries. 
650 0 |a Power electronics. 
650 0 |a Battery chargers. 
650 6 |a Batteries au lithium-ion. 
650 6 |a Électronique de puissance. 
650 6 |a Chargeurs (Génie électrique) 
650 7 |a TECHNOLOGY & ENGINEERING  |x Mechanical.  |2 bisacsh 
650 7 |a Battery chargers  |2 fast 
650 7 |a Lithium ion batteries  |2 fast 
650 7 |a Power electronics  |2 fast 
730 0 |a Artech access. 
776 0 8 |i Print version:  |a Weicker, Phillip.  |t Systems approach to lithium-ion battery management.  |d Boston : Artech House, [2014]  |z 9781608076598  |w (DLC) 2013444272 
830 0 |a Artech House power engineering series. 
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