Engineering Energy Storage

Name: Engineering Energy Storage
Price: 140 USD
Availability: InStock
ISBN: 9780443267376

by Jacob Joseph Lamb, Odne Stokke Burheim

2nd Edition

Publisher: Academic Press

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Book Details

Print ISBN	9780443267376
eText ISBN	9780443267383
Publisher	Academic Press
Publishing Year	2024
Edition	2nd Edition
Language	English
Pages	300

Engineering Energy Storage, 2nd Edition, co-authored by Jacob Joseph Lamb and Odne Stokke Burheim, provides an analytical reference on energy storage technologies and system design. Structured for undergraduate students, postgraduate students, professional engineers, R&D personnel, and industrial personnel working on energy storage systems, this 300-page volume establishes essential principles for assessing modern storage capabilities.

The thematic scope encompasses mechanical, thermal, thermomechanical, and electrochemical energy storage technologies across dedicated engineering modules. Furthermore, the volume details hydrogen energy storage, water electrolysis technologies, and fuel cells, giving technical readers focused documentation on chemical energy carriers, gas production methods, and conversion devices.

To connect physical principles with technical field applications, the text incorporates numerical examples at the chapter level together with applied industry problems and their solutions. These structured exercises assist both academic learners and industrial specialists in evaluating operational metrics, performance parameters, and system configurations across active energy projects.

Chapter 1: Energy Storage
- • 1.1 A Brief History of Energy
- • 1.2 Renewable Energy and Energy Storage
- • 1.3 Energy, power and other aspects
- • 1.3.1 Energy Storage Systems
- • 1.3.2 Energy and Power for Transportation
- • 1.3.3 Volume and Mass
- • 1.3.4 Technology Performance
- • 1.3.5 Fueling Rate
- • 1.3.6 Efficiency and Propagation of Efficiency Losses
Chapter 2: General Thermodynamics
- • 2.1 The First Law and Internal Energy, U
- • 2.2 Second Law and Entropy
- • 2.2.1 Reversible Adiabatic must be Isentropic
- • 2.2.2 The Carnot Efficiency Limitation
- • 2.3 Pressure and Volume
- • 2.4 Enthalpy and Control Volumes
- • 2.5 Gibbs Free Energy and Chemical Potential
Chapter 3: Mechanical Energy Storage
- • 3.1 Introduction
- • 3.2 Mechanical Energy Storage
- • 3.2.1 Flywheels
- • 3.2.2 Hydroelectric Energy Storage
Chapter 4: Thermal Energy Storage
- • 4.1 Heat vs Thermal Energy
- • 4.2 Single Phase Energy Storage - Sensible Heat
- • 4.3 Two Phase Thermal Energy Storage - Latent Heat
- • 4.3.1 Single Component Systems
- • 4.3.2 Two Component Systems - Eutectic and Non-Eutectic Heat
- • 4.3.3 Reaction Heat
- • 4.4 Cooling and energy storage
- • 4.4.1 Vapour-Liquid Phase Diagrams
- • 4.4.2 Heat Pumps and Refrigeration Systems
- • 4.4.3 From two-phase to three-phase energy storage systems
Chapter 5: Thermomechanical Energy Storage
- • 5.1 Thermodynamics - Heat, Work and States
- • 5.2 Compressed Air Energy Storage
- • 5.2.1 Phase Change Materials
- • 5.2.2 Cryogenic Energy Storage
- • 5.2.3 Other Compressed Gases
- • 5.3 Solar Power Towers
Chapter 6: Electrochemical Energy Storage
- • 6.1 Introduction
- • 6.2 Nernst Equation and the Electromotoric Force - EMF
- • 6.2.1 The Free Energy of a Reaction
- • 6.2.2 The Electrochemical Free Energy
- • 6.2.3 Half Cell Reactions
- • 6.2.4 Ohm’s Law - Power and Potential
- • 6.3 Concentration and Nernst Equation
- • 6.3.1 Activity of Components and Species
- • 6.3.2 EMF and Concentration
- • 6.3.3 Concentration Polarization Overpotentials
- • 6.3.4 Liquid Junction Potential
- • 6.4 Electrode Reaction Kinetics
- • 6.4.1 The Equilibrium Reaction Rate and Constant
- • 6.4.2 Butler-Volmer Overpotentials
- • 6.4.3 The Tafel Overpotential - an Approximation
- • 6.4.4 Charge Transfer Resistance Overpotentials, RCT - yet an approximation
- • 6.4.5 Overpotentials for Competing Electrode Reactions
Chapter 7: Secondary Batteries
- • 7.1 Battery terminology
- • 7.2 Red-ox cells and oxidation number
- • 7.3 Charging and Discharge Power and Efficiency
- • 7.4 Battery Capacity
- • 7.5 Battery footprint
- • 7.5.1 Accumulated weight
- • 7.5.2 Environmental footprint
- • 7.6 Battery chemistry
- • 7.6.1 Lead Acid battery
- • 7.6.2 NiCd batteries
- • 7.6.3 NiMeH batteries
- • 7.6.4 ZEBRA batteries
- • 7.7 Li-ion batteries
- • 7.7.1 Manufacturing of Li-ion batteries
- • 7.8 Flow Cell Batteries
- • 7.8.1 RedOx Flow Batteries
- • 7.8.2 Concentration Flow Batteries
Chapter 8: Hydrogen for Energy Storage
- • 8.1 Hydrogen Production; Water electrolysis
- • 8.1.1 Water electrolysis thermodynamics
- • 8.1.2 Electrolysis Technologies
- • 8.1.3 Other Types of Electrolysis
- • 8.1.4 Hydrogen from coal and natural gas
- • 8.2 Hydrogen Storage and Distribution
- • 8.2.1 Thermodynamic Properties of Hydrogen
- • 8.2.2 Hydrogen Storage Technologies
- • 8.3 Reuse of Hydrogen: Fuel Cells
- • 8.3.1 Fuel cell thermodynamics
- • 8.3.2 Fuel cell technologies
- • 8.4 Mineral limitations
- • 8.5 Perspectives of hydrogen requirements for various sectors
Chapter 9: Supercapacitors for Energy Storage and Conversion
- • 9.1 Conventional Capacitors
- • 9.2 Supercapacitors
- • 9.3 Deploying Supercapacitors
- • 9.4 Pseudo- and Hybrid Supercapacitors
Chapter A: Symbols and Constants
Chapter B: Adiabatic Compression of Air
Chapter C: Para and Ortho Hydrogen