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Electrochemical capacitors are being increasingly introduced in energy storage devices, for example, in automobiles, renewable energies, and mobile terminals. This book includes five high-quality papers that can lead to technological developments in electrochemical capacitors. The first paper describes the effect of the milling degree of activated carbon particles used in the electrodes on the supercapacitive performance of an electric double-layer capacitor. The second, fourth, and fifth papers describe novel electrode materials that have the potential to enhance the performance of next-generation electrochemical capacitors. Nickel molybdate/reduced graphene oxide nanocomposite, copper-decorated carbon nanotubes, and nickel hydroxide/activated carbon composite are tested, and are shown to be promising candidates for next-generation electrochemical capacitors. The third paper reports the hybrid utilization of electrochemical capacitors with other types of energy devices (photovoltaics, fuel cells, and batteries) in a DC microgrid, which ensures wider applications of electrochemical capacitors in the near future. The knowledge and experience in this book are beneficial in manufacturing and utilizing electrochemical capacitors. Cutting-edge knowledge related to novel electrode nano-materials is also helpful to design next-generation electrochemical capacitors. This book delivers useful information to specialists involved in energy storage technologies.
CNT --- copper --- composite --- energy storage --- DC microgrid --- energy management --- hybrid power system --- energy efficiency --- nickel-cobalt hydroxide --- activated carbon --- hybrid capacitor prototype case study --- KOH aqueous electrolyte energy storage device --- coin-cell prototype --- electrochemical performance --- starch --- porous structure --- NiMoO4/3D-rGO nanocomposite --- NiMoO4 NPs --- ball milling --- electric double-layer capacitor --- supercapacitor --- electrode --- specific capacitance --- energy density --- power density
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It is well-known that colloid and interface science and petroleum production are inextricably linked. Whether in the reservoir, with its porous structure, or during recovery, crude oil is intimately associated with rock surfaces and with water, often in the form of emulsions. This situation leads to highly complex systems, comprising multiple colloids and interfaces, which require to be optimized if oil is to be recovered efficiently, both in terms of economic cost and with due concern for the environment. This book contains a compilation of contemporary research topics which illustrate various aspects of the importance of colloids and interfaces in crude oil recovery through modifying conditions between the rock, crude oil, and water in the reservoir, in order to achieve improved oil recovery. The specific topics covered relate both to conventional oils, in which waterflooding is the most common secondary and tertiary means of recovery, and to non-conventional heavy oil and natural bitumen, which require thermal recovery methods, owing to their high viscosity.
n/a --- multicomponent ion exchange --- alcohols --- polymer-enhanced foam --- low salinity waterflooding --- heavy oil --- cyclodextrins --- SAGD --- nanoparticle fluids --- CO2 foam --- in-situ rheology --- surfactants --- Pickering emulsions --- enhanced oil recovery --- emulsions --- inclusion complexes --- petroleum --- Bacillus halodurans --- non-Newtonian flow in porous medium --- oil recovery --- Bacillus firmus --- oil film displacement --- surface and interfacial tension --- naphthenic acid --- Microbial Enhanced Oil Recovery --- recovery factor --- thermal recovery --- heavy oil and bitumen --- SAG --- colloid and interfacial science --- metal ion interactions --- porous media --- optical video microscopy --- microfluidics --- spore forming bacteria --- interfacial complexation --- electric double layer --- dynamic interfacial tension --- polymer flooding --- wettability --- polymers --- fluid–fluid interactions --- interfaces --- waterflooding --- oil sands --- EOR --- contact angles --- wettability alteration --- biotransformation --- monolayer --- asphaltene --- petroleum colloids --- surface charge --- heavy oil recovery --- fluid-fluid interactions
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This highly informative and carefully presented book covers the most recent advances as well as comprehensive reviews addressing novel and state-of-the-art topics from active researchers in innovative advanced materials and hybrid materials, concerning not only their synthesis, preparation, and characterization but especially focusing on the applications of such materials with outstanding performance.
non-isothermal crystallisation kinetics --- multi-modal polymer --- graphene-based polymer nanocomposite --- carbon black fillers. --- n/a --- Li4Ti5O12 --- magnesium batteries --- cathodes --- MgCl2 --- garnet --- dual substitution --- spark plasma sintering --- conductivity --- activated carbon --- steam activation --- low-density polyethylene --- electric double layer capacitor --- solid fluoride electrolytes --- ceramics --- LaF3 --- fluorine-ion batteries --- metal current collectors --- electrochemical stability --- cyclic voltammetry --- copper-manganese alloy --- energy storage --- supercapacitor --- graphitic carbon nitride --- TiO2 nanotube --- MoS2 --- Al2O3 --- atomic layer deposition --- Li-ion microbatteries --- nano-catalyst --- noble metals --- TUD-1 --- mesoporous silica --- CO-oxidation --- air purification --- W2C --- WS2 --- hydrothermal --- nanoflowers --- lithium-ion batteries --- CdTe --- nanocrystal --- solar cells --- Spiro --- biomass carbon electrodes --- battery and supercapacitors --- structure–performance relationship --- Lithium-ion batteries --- LiMn2O4 nanoparticles --- Mg-doped --- kinetic and thermodynamic --- thermogravimetric analysis --- Pechini-type sol–gel process --- structure-performance relationship --- Pechini-type sol-gel process
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The book reprints a set of important scientific papers applying physics and mathematics to address the problem of selective ionic conduction in narrow water-filled channels and pores. It is a long-standing problem, and an extremely important one. Life in all its forms depends on ion channels and, furthermore, the technological applications of artificial ion channels are already widespread and growing rapidly. They include desalination, DNA sequencing, energy harvesting, molecular sensors, fuel cells, batteries, personalised medicine, and drug design. Further applications are to be anticipated.The book will be helpful to researchers and technologists already working in the area, or planning to enter it. It gives detailed descriptions of a diversity of modern approaches, and shows how they can be particularly effective and mutually reinforcing when used together. It not only provides a snapshot of current cutting-edge scientific activity in the area, but also offers indications of how the subject is likely to evolve in the future.
reversal potential --- effects of diffusion coefficients --- permanent charge --- bioelectricity --- electrochemistry --- thermodynamics --- electrokinetics --- molecular mean-field theory --- Boltzmann and Fermi distributions --- Poisson–Boltzmann --- Poisson–Fermi --- Poisson–Bikerman --- Nernst–Planck --- steric and correlation effects --- ion channels --- ion activity --- double-layer capacitance --- nanofluidics --- steric effect --- Poisson-Boltzmann model --- Bikerman model --- entropy --- specific ion size --- electric double layer --- orientational ordering of water dipoles --- Helmholtz free energy --- modified Langevin Poisson-Boltzmann model --- nanopores --- reduced models --- Monte Carlo --- classical density functional theory --- Poisson-Nernst-Planck --- ion transport --- nanopore --- graphene --- crown ether --- ion channel --- selectivity --- permeability --- patch-clamp --- computer simulations --- ionic Coulomb blockade --- 2D materials --- nanotubes --- angstrom slits --- protein dynamics --- molecular dynamics --- non-Hermitian Hamiltonians --- algebraic topology --- semiclassical methods --- statistical mechanics --- polarization --- maxwell equations --- gating current --- dielectric constant --- statistical theory --- linear response --- ionic transport --- NaChBac --- computational electrophysiology --- electrodiffusion model --- stochastic simulations --- current–voltage dependence --- committor probabilities --- n/a --- Poisson-Boltzmann --- Poisson-Fermi --- Poisson-Bikerman --- Nernst-Planck --- current-voltage dependence
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Biological membranes are essential components of the living systems and processes occurring with their participation are related mainly to electric phenomena, such as signal transduction, the existence of membrane potentials, and transport through the membrane. It is well known that the universal model of the cell membrane structure is the lipid bilayer, which constitutes the environment for integral and surface membrane proteins. Thus, much attention has been given to the study of the organization and properties of these structures concerning both experimental and theoretical aspects. As systematic examinations are impeded by the complexity of the natural membranes, the best approach to conducting detailed physical and chemical studies of biological membranes is to use simplified well-defined model lipid membranes. Among the most commonly used are liposomes, planar lipid membranes, membranes on solid substrates, and lipid monolayers on the free surface.Studies of the electrical properties of model lipid membranes have been carried out for many years. However, there are still many issues that have not been verified experimentally and for which the existing results are incomplete or inconsistent. Therefore, the main objective of this book was to collect recent scientific and review articles on the electrical properties of model lipid membranes. This objective has been successfully achieved, for which I express heartfelt appreciation to all authors and reviewers for their excellent contributions.
cinnamic acid --- p-coumaric acid --- ferulic acid --- phenolic compound --- electrophoretic light scattering --- electrochemical impedance spectroscopy --- phospholipid bilayers --- liposomes --- drug-membrane interaction --- membrane biophysical study --- electrochemistry --- gold electrode --- supported lipid membranes --- bicelles --- self-assembly --- Langmuir monolayers --- electric surface potential --- dipole moments --- phospholipids --- resveratrol --- planar lipid membrane --- cholesterol --- channel-like event --- capacitance --- fatal ethyl alcohol poisoning --- surface charge density --- microelectrophoresis --- acid–base equilibria --- erythrocytes --- thrombocytes --- planar lipid bilayer --- voltage breakdown --- water pores --- hydrophobic pores --- lipid bilayer electrostatics --- zwitterionic lipid bilayers --- electric double layer --- osmotic pressure --- orientational degree of freedom of lipid headgroups --- orientational ordering of water dipoles --- adhesion of lipid vesicles --- lipid bilayer elasticity --- lipid vesicle shapes --- lipid bilayers --- sucrose --- relative permittivity --- dipole potential --- membrane structure --- n/a --- polymers --- platelets --- dynamic light scattering --- FTIR spectroscopy --- acid-base equilibria
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This collection of articles focuses on different aspects of the study of organic conductors. Recent progress in both theoretical and experimental studies is covered in this Special Issue. Papers on a wide variety of studies are categorized into representative topics of chemistry and physics. Besides classical studies on the crystalline organic conductors, applied studies on semiconducting thin films and a number of new topics shared with inorganic materials are also discussed.
organic π-radical --- molecular conductor --- phthalocyanine --- three-dimensional network --- three-dimensional electronic system --- organic conductors --- bis(ethylenedithio)tetrathiafulvalene (BEDT-TTF) --- bis(ethylenediseleno)tetrathiafulvalene (BEST) --- bis(ethylenedithio)tetraselenafulvalene (BETS) --- electrical resistivity --- magnetic susceptibility --- X-ray analysis --- charge-ordered state --- quantum chemical calculations --- Madelung energy --- magnetic property --- reversible transformation --- spin ladder --- nodal line semimetal --- single-component molecular conductor --- conductivity --- DOS --- tight-binding model --- interacting electrons in one dimension --- electronic and lattice instabilities --- renormalization group method --- X-ray diffraction --- single crystal --- electron density --- molecular orbital --- single-component molecular conductors --- extended-TTF dithiolate ligands --- gold dithiolate complexes --- (BETS)2Fe1−xGaxCl4 --- π-d interaction --- NMR --- charge glass --- heat capacity --- electric current --- electric voltage --- Boson peak --- chirality --- tetrathiafulvalene --- crystal structures --- band structure calculations --- hydrogen bonding --- charge-transfer salts --- (TMTTF)2X --- deuteration --- anions --- charge transport --- tunnel junction --- MOCVD --- quantum well --- co-doping --- solar cells --- (TMTSF)8(I3)5 --- (TMTSF)5(I3)2 --- (TMTSF)4(I3)4·THF --- organic conductor --- crystal structure --- high pressure --- DFT --- MP2 --- organic superconductors --- Beechgard salts --- Maxwell-Garnett approximation --- high-Tc --- pressure effect --- Dirac electron system --- resistivity --- magnetoresistance --- synchrotron X-ray diffraction --- band calculation --- correlated electron materials --- layered organic conductor --- unconventional superconductivity --- vortex dynamics --- d-wave pairing symmetry --- superconducting gap structure --- magnetic field --- flux-flow resistivity --- charge-ordered insulator --- electric double layer transistor --- organic field-effect transistor --- π–d system --- Mott insulator --- strongly correlated electron system --- multiferroic --- dielectric --- photoconductor --- organic semiconductors --- molecular orbitals --- pyroelectricity --- temperature modulation --- molecular ferroelectrics --- radiative temperature control --- thermal diffusion model --- lithium niobate --- first-principles calculation --- density-functional theory --- charge ordering --- hybrid functional --- electronic structure --- nickel–dithiolene complex --- cycloalkane substituent --- crystalline organic charge-transfer complexes --- disordered systems --- overlap integrals --- extended Hückel approximation --- Dirac electrons --- zero-gap semiconductors --- merging of Dirac cones --- n/a --- π-d system --- nickel-dithiolene complex --- extended Hückel approximation
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