http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
Handbook of lithium-ion battery pack design
chemistry, components, types, and terminology
The Handbook of Lithium-Ion Battery Pack Design, authored by John T. Warner, provides an in-depth exploration of lithium-ion battery pack design. It covers a range of topics including battery chemistry, components, and terminology, emphasizing design criteria, engineering processes, and thermal management. The book also addresses the standards for manufacturing and testing, as well as second-life and recycling considerations. Aimed at professionals and researchers in the field of battery technology and electric vehicles, this comprehensive guide offers insights into the latest advancements and future trends in lithium-ion battery applications.
Front Cover -- The Handbook of Lithium-Ion Battery Pack Design -- The Handbook of Lithium-Ion Battery Pack Design -- Copyright -- Contents -- List of Figures -- List of Tables -- About the Author -- Preface to the Second Edition -- References -- 1 -- Introduction -- Factors Influencing Consumer Adoption of Electric Vehicles -- Other Adoption Factors -- Evolving Vehicle Technologies and Systems -- Purpose of the Book -- Chapter Outline -- 2 -- History of Vehicle Electrification -- The History of the Modern Storage Battery -- Primary Cells -- Dry Cells -- Secondary Batteries
An Electrical Industry Emerges -- Early Electric Vehicle Development -- Vehicle Electrification 1970-90 -- Vehicle Electrification 1990-2000 -- Vehicle Electrification 2000 to Present -- Japanese and Korean OEMs -- European OEMs -- Chinese OEMs -- Start-ups -- Summary -- 3 -- Basic Terminology -- Vehicle Terms -- Stationary and Grid Terminology -- Battery Terms -- Summary -- 4 -- Battery Pack Design Criteria and Selection -- Ohm's Law and Basic Battery Calculations -- Understanding Customer Requirements -- Calculating the Number of Cells Needed -- Calculating the Pack Energy and Capacity
Calculating Total Pack Energy -- Calculating Usable Energy -- Calculating End of Life Energy -- Calculating System Power -- Maximum Continuous Discharge -- Calculating Charge Voltages -- Power to Energy Ratios -- Large Stationary and Grid Systems -- Application Engineering and Systems Engineering -- Quick Formula Summary -- 5 -- Battery Engineering Processeses and Methods -- Technology Readiness Levels -- Battery Pack Engineering Process and Stages -- Program and Project Management -- Feasibility Stage -- Proof of Concept (Alpha) Stage -- Production Design (Beta) Stage
Failure Mode and Effects Analysis -- Design for Reliability and Design for Service -- Design for Service -- Process Verification -- Quality and Reliability -- How It Really Works -- 6 -- Battery Engineering Tools: Computer-Aided Engineering, Design, and Analysis -- National Laboratories -- Software Providers and Packages -- Analysis Types -- Battery Sizing Tools -- 7 -- Lithium-ion and Other Cell Chemistries -- Lead Acid -- Nickel-Based Chemistries -- Nickel Cadmium -- Nickel Metal Hydride -- Nickel Iron -- Nickel Zinc -- Nickel Hydrogen -- Sodium-Based Chemistries -- Sodium-ion -- Sodium Sulfur
Lithium-ion Cells -- Cathode Chemistries -- Anode Materials -- Separators -- Electrolytes -- Safety Features -- Lithium-ion Cell Types and Sizes -- Cylindrical Cells -- Prismatic Cells -- Pouch Cells -- Lithium-ion Cell Manufacturers -- 8 -- Battery Management System Controls -- Battery Management System Typologies -- Centralized/Monolithic Battery Management System -- Master-Slave BMS -- Distributed Battery Management System -- Battery Management System Hardware -- Balancing -- Active Versus Passive Balancing -- Additional Battery Management System Functionality -- Software and Controls