Clean Energy and Fuel (Hydrogen) Storage
Srinivasan, Sesha
Clean Energy and Fuel (Hydrogen) Storage - MDPI - Multidisciplinary Digital Publishing Institute 2019 - 1 electronic resource (278 p.)
Open Access
Clean energy and fuel storage are often required for both stationary and automotive applications. Some of these clean energy and fuel storage technologies currently under extensive research and development include hydrogen storage, direct electric storage, mechanical energy storage, solar–thermal energy storage, electrochemical (batteries and supercapacitors), and thermochemical storage. The gravimetric and volumetric storage capacity, energy storage density, power output, operating temperature and pressure, cycle life, recyclability, and cost of clean energy or fuel storage are some of the factors that govern efficient energy and fuel storage technologies for potential deployment in energy harvesting (solar and wind farms) stations and onboard vehicular transportation. This Special Issue thus serves the need for promoting exploratory research and development on clean energy and fuel storage technologies while addressing their challenges to practical and sustainable infrastructures.
Creative Commons
English
books978-3-03921-631-4 9783039216307 9783039216314
10.3390/books978-3-03921-631-4 doi
MgH2 vertically oriented graphene gas loss concentrated solar power (CSP) complex hydrides PCM roof hydrogen storage systems slag bubbles transportation dye-sensitized solar cells undercooling methanogenesis electrochemical energy storage hydrogen storage Fischer–Tropsch state of charge estimator gas turbine engine simplified electrochemical model hot summer and cold winter area rock permeability flutter instability charge density binder salt cavern energy storage battery energy storage system capacitance LiNH2 ball milling production rate leaching tubing quality function deployment (QFD) nanocatalyst lab-scale thermal energy storage (TES) comprehensive incremental benefit lean direct injection Li-ion batteries separator four-point salt cavern low emissions combustion ionic liquid carbon materials nanocomposite materials electrical double layers recovery factor thermochemical energy storage Klinkenberg method flow-induced vibration cathode porous media metal hydride aquifer size diffusion auxiliary services compensation water invasion conjugate phase change heat transfer heat transfer enhancement failure mode and effect analysis (FMEA) magnetism carbonate gas reservoirs equivalent loss of cycle life internal and reverse external axial flows thermal energy storage lithium-ion batteries bacterial sulfate reduction crystal growth rates optimal capacity gas storage energy discharge anode Ag nanoparticles regenerator hydrogen absorption freestanding TiO2 nanotube arrays material science extended kalman filter reactive transport modeling synthetic rock salt testing hydrogen energy storage lattice Boltzmann method dynamic modeling bubbles burst Power to Liquid large-scale wind farm PHREEQC
Clean Energy and Fuel (Hydrogen) Storage - MDPI - Multidisciplinary Digital Publishing Institute 2019 - 1 electronic resource (278 p.)
Open Access
Clean energy and fuel storage are often required for both stationary and automotive applications. Some of these clean energy and fuel storage technologies currently under extensive research and development include hydrogen storage, direct electric storage, mechanical energy storage, solar–thermal energy storage, electrochemical (batteries and supercapacitors), and thermochemical storage. The gravimetric and volumetric storage capacity, energy storage density, power output, operating temperature and pressure, cycle life, recyclability, and cost of clean energy or fuel storage are some of the factors that govern efficient energy and fuel storage technologies for potential deployment in energy harvesting (solar and wind farms) stations and onboard vehicular transportation. This Special Issue thus serves the need for promoting exploratory research and development on clean energy and fuel storage technologies while addressing their challenges to practical and sustainable infrastructures.
Creative Commons
English
books978-3-03921-631-4 9783039216307 9783039216314
10.3390/books978-3-03921-631-4 doi
MgH2 vertically oriented graphene gas loss concentrated solar power (CSP) complex hydrides PCM roof hydrogen storage systems slag bubbles transportation dye-sensitized solar cells undercooling methanogenesis electrochemical energy storage hydrogen storage Fischer–Tropsch state of charge estimator gas turbine engine simplified electrochemical model hot summer and cold winter area rock permeability flutter instability charge density binder salt cavern energy storage battery energy storage system capacitance LiNH2 ball milling production rate leaching tubing quality function deployment (QFD) nanocatalyst lab-scale thermal energy storage (TES) comprehensive incremental benefit lean direct injection Li-ion batteries separator four-point salt cavern low emissions combustion ionic liquid carbon materials nanocomposite materials electrical double layers recovery factor thermochemical energy storage Klinkenberg method flow-induced vibration cathode porous media metal hydride aquifer size diffusion auxiliary services compensation water invasion conjugate phase change heat transfer heat transfer enhancement failure mode and effect analysis (FMEA) magnetism carbonate gas reservoirs equivalent loss of cycle life internal and reverse external axial flows thermal energy storage lithium-ion batteries bacterial sulfate reduction crystal growth rates optimal capacity gas storage energy discharge anode Ag nanoparticles regenerator hydrogen absorption freestanding TiO2 nanotube arrays material science extended kalman filter reactive transport modeling synthetic rock salt testing hydrogen energy storage lattice Boltzmann method dynamic modeling bubbles burst Power to Liquid large-scale wind farm PHREEQC