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Electrokinetics

Electrokinetics is an in situ remediation technology applicable to soil or soil-like material with low hydraulic conductivities (e.g., clay) contaminated with heavy metals, radionuclides, and selected organic pollutants. The technique has been used in the past in the oil recovery industry and to remove water from soils. [Pg.503]

The technology involves the application of low-intensity, direct electrical current across electrode pairs that have been implanted on each side of the contaminated soil. The electrical current induces electroosmosis and ion migration between the two implanted electrodes. Depending on their charge, the contaminants accumulate on one of the electrodes and are extracted to a recovery system (Fig. 14.4). Improved performance of electrokinetics could be attained by the introduction of surfactants. [Pg.503]

There are four electrokinetic effects that are all due to the electric charge of the double layer at the soUd/liquid interphase (cf Section 7.5). [Pg.33]

Electrophoresis is the migration of charged particles through a liquid. [Pg.33]

Electro-osmosis is a bulk liquid flow through a pore caused by a migrating ionic sheath. [Pg.33]

Sedimentation (streaming) potential is generated because of falling (moving) charged particles. [Pg.33]

Sedimentation electric current is generated when a liquid is pressed through a pore. [Pg.33]


A number of electrokinetic phenomena have in common the feature that relative motion between a charged surface and the bulk solution is involved. Essen-... [Pg.182]

The relationship between the various electrokinetic effects are summarized in Table V-3. [Pg.183]

The most familiar type of electrokinetic experiment consists of setting up a potential gradient in a solution containing charged particles and determining their rate of motion. If the particles are small molecular ions, the phenomenon is called ionic conductance, if they are larger units, such as protein molecules, or colloidal particles, it is called electrophoresis. [Pg.183]

The simple treatment of this and of other electrokinetic effects was greatly clarified by Smoluchowski [69] for electroosmosis it is as follows. The volume flow V (in cm /sec) for a tube of radius r is given by applying the linear velocity V to the body of liquid in the tube... [Pg.185]

Streaming potentials, like other electrokinetic effects, are difficult to measure reproducibly. One means involves forcing a liquid under pressure through a porous plug or capillary and measuring E by means of electrodes in the solution on either side [6, 23, 71-73]. [Pg.188]

The final and less commonly dealt-with member of the family of electrokinetic phenomena is the sedimentation potential. If charged particles are caused to move relative to the medium as a result, say, of a gravitational or centrifugal field, there again will be an induced potential E. The formula relating to f and other parameters is [72, 77]... [Pg.188]

E. Interrelationships in Electrokinetic Phenomena In electroosmosis, the volumetric flow and current are related through... [Pg.188]

The presence of surface conductance behind the slip plane alters the relationships between the various electrokinetic phenomena [83, 84] further complications arise in solvent mixtures [85]. Surface conductance can have a profound effect on the streaming current and electrophoretic mobility of polymer latices [86, 87]. In order to obtain an accurate interpretation of the electrostatic properties of a suspension, one must perform more than one type of electrokinetic experiment. One novel approach is to measure electrophoretic mobility and dielectric spectroscopy in a single instrument [88]. [Pg.189]

Two nucleation processes important to many people (including some surface scientists ) occur in the formation of gallstones in human bile and kidney stones in urine. Cholesterol crystallization in bile causes the formation of gallstones. Cryotransmission microscopy (Chapter VIII) studies of human bile reveal vesicles, micelles, and potential early crystallites indicating that the cholesterol crystallization in bile is not cooperative and the true nucleation time may be much shorter than that found by standard clinical analysis by light microscopy [75]. Kidney stones often form from crystals of calcium oxalates in urine. Inhibitors can prevent nucleation and influence the solid phase and intercrystallite interactions [76, 77]. Citrate, for example, is an important physiological inhibitor to the formation of calcium renal stones. Electrokinetic studies (see Section V-6) have shown the effect of various inhibitors on the surface potential and colloidal stability of micrometer-sized dispersions of calcium oxalate crystals formed in synthetic urine [78, 79]. [Pg.338]

Protein adsorption has been studied with a variety of techniques such as ellipsome-try [107,108], ESCA [109], surface forces measurements [102], total internal reflection fluorescence (TIRE) [103,110], electron microscopy [111], and electrokinetic measurement of latex particles [112,113] and capillaries [114], The TIRE technique has recently been adapted to observe surface diffusion [106] and orientation [IIS] in adsorbed layers. These experiments point toward the significant influence of the protein-surface interaction on the adsorption characteristics [105,108,110]. A very important interaction is due to the hydrophobic interaction between parts of the protein and polymeric surfaces [18], although often electrostatic interactions are also influential [ 116]. Protein desorption can be affected by altering the pH [117] or by the introduction of a complexing agent [118]. [Pg.404]

In particular, in polar solvents, the surface of a colloidal particle tends to be charged. As will be discussed in section C2.6.4.2, this has a large influence on particle interactions. A few key concepts are introduced here. For more details, see [32] (eh 13), [33] (eh 7), [36] (eh 4) and [34] (eh 12). The presence of these surface charges gives rise to a number of electrokinetic phenomena, in particular electrophoresis. [Pg.2674]

Injecting the Sample The mechanism by which samples are introduced in capillary electrophoresis is quite different from that used in GC or HPLC. Two types of injection are commonly used hydrodynamic injection and electrokinetic injection. In both cases the capillary tube is filled with buffer solution. One end of the capillary tube is placed in the destination reservoir, and the other is placed in the sample vial. [Pg.602]

Electrokinetic injections are made by placing both the capillary and the anode into the sample vial and briefly applying an electric fleld. The moles of solute injected into the capillary, nj, are determined using... [Pg.603]

Micellar Electrokinetic Capillary Chromatography One limitation to CZE is its inability to separate neutral species. Micellar electrokinetic chromatography... [Pg.606]

The elution order for neutral species in MEKC depends on the extent to which they partition into the micelles. Hydrophilic neutrals are insoluble in the micelle s hydrophobic inner environment and elute as a single band as they would in CZE. Neutral solutes that are extremely hydrophobic are completely soluble in the micelle, eluting with the micelles as a single band. Those neutral species that exist in a partition equilibrium between the buffer solution and the micelles elute between the completely hydrophilic and completely hydrophobic neutrals. Those neutral species favoring the buffer solution elute before those favoring the micelles. Micellar electrokinetic chromatography has been used to separate a wide variety of samples, including mixtures of pharmaceutical compounds, vitamins, and explosives. [Pg.606]

Kovat s retention index (p. 575) liquid-solid adsorption chromatography (p. 590) longitudinal diffusion (p. 560) loop injector (p. 584) mass spectrum (p. 571) mass transfer (p. 561) micellar electrokinetic capillary chromatography (p. 606) micelle (p. 606) mobile phase (p. 546) normal-phase chromatography (p. 580) on-column injection (p. 568) open tubular column (p. 564) packed column (p. 564) peak capacity (p. 554)... [Pg.609]

The last set of experiments provides examples of the application of capillary electrophoresis. These experiments encompass a variety of different types of samples and include examples of capillary zone electrophoresis and micellar electrokinetic chromatography. [Pg.614]

Vogt, C. Conradi, S. Rhode, E. Determination of Caffeine and Other Purine Compounds in Pood and Pharmaceuticals by Micellar Electrokinetic Chromatography, /. Chem. Educ. 1997, 74, 1126-1130. [Pg.614]

Electrogalvanizing Electrography Electrogravimetry Electrohydrodynamics Electro-Katadyn process Electrokinetics Electroless deposition Electroless nickel Electroless plating... [Pg.356]

The 2eta potential (Fig. 8) is essentially the potential that can be measured at the surface of shear that forms if the sohd was to be moved relative to the surrounding ionic medium. Techniques for the measurement of the 2eta potentials of particles of various si2es are collectively known as electrokinetic potential measurement methods and include microelectrophoresis, streaming potential, sedimentation potential, and electro osmosis (19). A numerical value for 2eta potential from microelectrophoresis can be obtained to a first approximation from equation 2, where Tf = viscosity of the liquid, e = dielectric constant of the medium within the electrical double layer, = electrophoretic velocity, and E = electric field. [Pg.44]

Electrokinetics. Electrokinetics is a tested technology that has been used for over half a century to dewater and stabilize soils, and has recently been investigated for in situ use at hazardous waste sites (23). Primarily used for metals removal, the technology utilizes an electrical field to generate a flow and concentration gradient in porous and semiporous soils. [Pg.172]

An innovative technology called the "lasagna" process is based on the electrokinetic phenomenon called electro osmosis. The lasagna process was created to treat difficult wastes in low permeabiUty, sdt- and clay-laden soils (40). The lasagna process is so named because it consists of a number of layered subsurface electrodes and treatment zones. These layers can be constmcted either horizontally where contaminants are forced to more upward or in vertical position where lateral contaminant movement is desired. [Pg.172]


See other pages where Electrokinetics is mentioned: [Pg.150]    [Pg.432]    [Pg.178]    [Pg.183]    [Pg.189]    [Pg.416]    [Pg.2674]    [Pg.86]    [Pg.102]    [Pg.603]    [Pg.606]    [Pg.607]    [Pg.609]    [Pg.610]    [Pg.771]    [Pg.775]    [Pg.16]    [Pg.390]    [Pg.295]    [Pg.159]   


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AC electrokinetics

AC electrokinetics and dielectrophoretic spectroscopy of colloidal suspensions

Adsorption and electrokinetic effects

Adsorption electrokinetics

Analysis of biological suspensions by dielectric, impedance, and AC electrokinetic methods

Anti-Brownian ELectrokinetic trap

Application 2 Electrokinetic Injection

Applications of Electrokinetic Phenomena

Applications of Induced-Charge Electrokinetic

Basic Equations of Electrokinetic Processes

Capillary Electrochromatography-Electrospray Electrokinetic Analytical Technique

Capillary Electrophoresis and Micellar Electrokinetic Chromatography

Capillary electrokinetic

Capillary electrokinetic chromatography

Capillary electrokinetics

Capillary electrokinetics cationic surfactants

Capillary electrophoresis electrokinetic injection

Capillary electrophoresis micellar electrokinetic chromatography

Cationic surfactants micellar electrokinetic capillary

Cephalosporins micellar electrokinetic chromatography

Charge electrokinetic

Chemical reactions, electrokinetic control

Chromatography micellar electrokinetic chromatograph

Chromatography, electrokinetic

Chromatography, liquid micellar electrokinetic capillary

Chromatography, micellar electrokinetic capillary MEKC)

Clay minerals electrokinetics

Colloid particle electrokinetic phenomena

Colloidal Electrokinetic Processes

Colloids electrokinetic effects

Conductance Changes, Electric and Electrokinetic Effects

Contaminants electrokinetic migration

Cost Estimates for Electrokinetic Remediation

Coupled Electrokinetic-Thermal Desorption

Coupled electrokinetic permeable reactive

Cyclodextrin concentration micellar electrokinetic

Determining the Surface Charge from Electrokinetic

Disturbances electrokinetic

Double electrical layer electrokinetic potential

Effect, electrokinetic

Effect, electrokinetic effects

Effective electrokinetic mobility

Electrical interfacial layer electrokinetics

Electrochromatography micellar electrokinetic chromatography

Electrochromatography microemulsion electrokinetic

Electrodeposition of particles electrokinetic vs. diffusion control

Electrokinetic

Electrokinetic

Electrokinetic (EK) Extraction System

Electrokinetic Barriers Modeling and Validation

Electrokinetic Barriers for Pollution Containment

Electrokinetic Barriers for Preventing Groundwater Pollution

Electrokinetic Biofence

Electrokinetic Biofences

Electrokinetic Chromatographic Methods

Electrokinetic Cleaning of Ground from Radioactive Nuclides

Electrokinetic Dispensing

Electrokinetic Fence

Electrokinetic First

Electrokinetic Flow Between Two Parallel Soft Plates

Electrokinetic Flow and Ion Transport

Electrokinetic Flow in Porous Media

Electrokinetic Focusing

Electrokinetic Liquid Flow in Nanochannels

Electrokinetic Localization of Radioactive Nuclide Pollution

Electrokinetic Measurements Fibers

Electrokinetic Mobility

Electrokinetic Modeling of Heavy Metals

Electrokinetic Motion of Cells and

Electrokinetic Motion of Cells and Nonpolarizable

Electrokinetic Motion of Cells and Nonpolarizable Particles

Electrokinetic Motion of Heterogeneous

Electrokinetic Motion of Heterogeneous Particles

Electrokinetic Motion of Particles

Electrokinetic Motion of Polarizable

Electrokinetic Motion of Polarizable Particles

Electrokinetic Phenomena and the Saxen Relations

Electrokinetic Phenomena and the Zeta-Potential

Electrokinetic Remediation Setup in Field Applications

Electrokinetic Remediation of Mixed Metal Contaminants

Electrokinetic Removal of Chlorinated Aliphatic Hydrocarbons

Electrokinetic Removal of Chlorinated Organic Compounds

Electrokinetic Removal of Chlorinated Pesticides

Electrokinetic Removal of Energetic Compounds

Electrokinetic Removal of Heavy Metals

Electrokinetic Removal of Herbicides from Soils

Electrokinetic Removal of PAHs

Electrokinetic Removal of PAHs Using Facilitating Agents

Electrokinetic Removal of Radionuclides

Electrokinetic Sample Dispensing

Electrokinetic Sample Injection

Electrokinetic Sample Introduction

Electrokinetic Second

Electrokinetic Sonic Amplitude measurements

Electrokinetic Transport

Electrokinetic Transport of Chlorinated Organic Pesticides

Electrokinetic Transport with Biochemical

Electrokinetic Transport with Biochemical Reactions

Electrokinetic Treatment Coupled with Injection of Nanomaterials

Electrokinetic Treatment of Contaminated Marine Sediments

Electrokinetic Two-Phase Flows

Electrokinetic actuators

Electrokinetic adsorption

Electrokinetic ageing

Electrokinetic behavior

Electrokinetic behavior interfaces

Electrokinetic capillary instrumentation

Electrokinetic characterization

Electrokinetic charge density

Electrokinetic chromatogram

Electrokinetic chromatography electrophoretic mobility

Electrokinetic chromatography neutral analyte

Electrokinetic chromatography pseudostationary phase

Electrokinetic chromatography retention factor

Electrokinetic chromatography separations

Electrokinetic chromatography, synthetic food

Electrokinetic concentration processes

Electrokinetic curves, shape

Electrokinetic decontamination

Electrokinetic detection techniques

Electrokinetic devices

Electrokinetic dielectrophoresis mixer

Electrokinetic effects electro-osmosis

Electrokinetic effects sedimentation potential

Electrokinetic effects streaming potential

Electrokinetic electrophoresis

Electrokinetic equations

Electrokinetic experiments

Electrokinetic extrapolation

Electrokinetic filtration

Electrokinetic flow

Electrokinetic flow pattern

Electrokinetic forces

Electrokinetic forces Balance

Electrokinetic forces Dielectrophoresis

Electrokinetic forces Electroosmosis

Electrokinetic forces Electrophoresis

Electrokinetic forces Heating

Electrokinetic forces small particles

Electrokinetic injection

Electrokinetic injection electrophoresis

Electrokinetic injection microchip capillary electrophoresis

Electrokinetic injection platform

Electrokinetic injection, capillary

Electrokinetic injection, injector design

Electrokinetic injection, method

Electrokinetic injection, method problems

Electrokinetic instability

Electrokinetic instability mixer

Electrokinetic instruments

Electrokinetic losses

Electrokinetic measurements

Electrokinetic measurements four types

Electrokinetic measurements, flotation

Electrokinetic methods

Electrokinetic micropumps

Electrokinetic mixing

Electrokinetic mobilization

Electrokinetic modelling of dielectric endurance

Electrokinetic molecular

Electrokinetic molecular concentration

Electrokinetic motion

Electrokinetic permeability

Electrokinetic phenomena

Electrokinetic phenomena Concentrators

Electrokinetic phenomena The zeta potential

Electrokinetic phenomena and colloids the zeta potential

Electrokinetic phenomena applications

Electrokinetic phenomena determination

Electrokinetic phenomena dielectrophoresis

Electrokinetic phenomena electro-osmosis

Electrokinetic phenomena electroosmosis

Electrokinetic phenomena electrophoresis

Electrokinetic phenomena sedimentation potential

Electrokinetic phenomena streaming potential

Electrokinetic phenomena suspensions

Electrokinetic phenomena techniques

Electrokinetic phenomena zeta potential

Electrokinetic phenomena, classification

Electrokinetic plane of shear

Electrokinetic platform

Electrokinetic potential

Electrokinetic potential complexes

Electrokinetic preconcentration techniques

Electrokinetic preconcentration techniques isotachophoresis

Electrokinetic preconcentration techniques microfluidic devices

Electrokinetic pressure wave

Electrokinetic processes

Electrokinetic processing,

Electrokinetic properties

Electrokinetic properties across

Electrokinetic pump

Electrokinetic pumping

Electrokinetic radius

Electrokinetic remediation

Electrokinetic remediation success

Electrokinetic resistivity

Electrokinetic separations

Electrokinetic separations considerations

Electrokinetic separations electrophoresis, scale

Electrokinetic signal

Electrokinetic slip flow

Electrokinetic sonic amplitude

Electrokinetic sonic amplitude effect

Electrokinetic sonic amplitude technique

Electrokinetic sound waves

Electrokinetic technique

Electrokinetic theory

Electrokinetic voltage

Electrokinetic/Electrohydrodynamic Flow

Electrokinetic/Electrohydrodynamic Flow Instability

Electrokinetically-driven plug flow

Electrokinetics 724 INDEX

Electrokinetics Fenton process

Electrokinetics advantages

Electrokinetics and Bioremediation

Electrokinetics barriers

Electrokinetics bioremediation

Electrokinetics charged interfaces

Electrokinetics chemical oxidation/reduction

Electrokinetics disadvantages

Electrokinetics electric double layer

Electrokinetics electrodialysis

Electrokinetics electrophoresis

Electrokinetics enhanced bioremediation

Electrokinetics enhanced flushing

Electrokinetics enhanced remediation

Electrokinetics extraction

Electrokinetics facilitating agents

Electrokinetics flow-generated potentials

Electrokinetics gradient

Electrokinetics isoelectric point

Electrokinetics laboratory tests

Electrokinetics limitations

Electrokinetics mechanisms

Electrokinetics media

Electrokinetics mobility

Electrokinetics of Non-Newtonian Liquids

Electrokinetics phenomena

Electrokinetics phytoremediation

Electrokinetics point

Electrokinetics removing

Electrokinetics removing permeability soils

Electrokinetics to Enhance Remediation Strategies

Electrokinetics zeta potential

Electrokinetics, polysaccharides

Electroosmotic flow electrokinetic chromatography

Electroosmotic flow micellar electrokinetic

Electrophoresis and Other Electrokinetic Phenomena

Electrophoresis electrokinetic capillary

Electrophoresis micellar electrokinetic

Electrophoresis micellar electrokinetic chromatograph

Electrophoresis, electrokinetic effects

Electrostatics and Electrokinetics

Energy conversion in the electrokinetic effect

Enhanced Electrokinetic Remediation of Chlorinated Pesticides

Enhanced electrokinetic remediation techniques

Experiences With Field Applications of Electrokinetic Remediation

Experimental Setup in Electrokinetic Measurements

Factors that Limit the Applicability of Electrokinetic Technology

Flavonoids, micellar electrokinetic

Flavonoids, micellar electrokinetic chromatography

Flow movement electrokinetic effects

Free Surface Electrokinetics

Heavy metals removal electrokinetics

High performance capillary electrophoresis micellar electrokinetic

High performance liquid micellar electrokinetic capillary

Implementing electrokinetics

In Situ Electrokinetic Extraction (ISEE

Induced-Charge Electrokinetic Flow

Induced-Charge Electrokinetic Motion

Influence of Coupled Electrokinetic-Phytoremediation on Soil Remediation

Interfacial Electrokinetic Flow

Ionic strength, micellar electrokinetic

Ionic strength, micellar electrokinetic chromatography

Joule Heating in Electrokinetic Flow: Theoretical

Joule Heating in Electrokinetic Flow: Theoretical Models

Linear solvation energy relationships micellar electrokinetic

Liquid chromatography micellar electrokinetic chromatograph

MEKC (micellar electrokinetic capillary

Micellar Electrokinetic Chromatography (MECK)

Micellar electrokinetic

Micellar electrokinetic MECC)

Micellar electrokinetic MEKC)

Micellar electrokinetic capillary

Micellar electrokinetic capillary aqueous phase

Micellar electrokinetic capillary chromatography

Micellar electrokinetic capillary chromatography MECC)

Micellar electrokinetic capillary chromatography MECC/MEKC)

Micellar electrokinetic capillary chromatography amino acid analysis

Micellar electrokinetic capillary electro-osmotic flow

Micellar electrokinetic capillary electrophoresis

Micellar electrokinetic capillary principle

Micellar electrokinetic capillary separation process

Micellar electrokinetic capillary surfactants

Micellar electrokinetic chromatograph

Micellar electrokinetic chromatograph micelle

Micellar electrokinetic chromatograph microemulsions

Micellar electrokinetic chromatograph migration times

Micellar electrokinetic chromatograph resolution

Micellar electrokinetic chromatography

Micellar electrokinetic chromatography , generally

Micellar electrokinetic chromatography MECC)

Micellar electrokinetic chromatography MEKC)

Micellar electrokinetic chromatography applications

Micellar electrokinetic chromatography capacity factor

Micellar electrokinetic chromatography capillary zone electrophoresis with

Micellar electrokinetic chromatography critical micelle concentration

Micellar electrokinetic chromatography detergents

Micellar electrokinetic chromatography development

Micellar electrokinetic chromatography environmental applications

Micellar electrokinetic chromatography instrumentation

Micellar electrokinetic chromatography micelle

Micellar electrokinetic chromatography modifications

Micellar electrokinetic chromatography modifiers

Micellar electrokinetic chromatography operating conditions

Micellar electrokinetic chromatography pharmaceutical compounds

Micellar electrokinetic chromatography principles

Micellar electrokinetic chromatography resolution

Micellar electrokinetic chromatography separation

Micellar electrokinetic chromatography separation conditions

Micellar electrokinetic chromatography surfactant

Micellar electrokinetic chromatography surfactants used

Micellar electrokinetic chromatography technique using

Micellar electrokinetic chromatography theory

Micellar electrokinetic chromatography using

Micellar electrokinetic chromatography with MEKC

Micellar electrokinetic defined

Micellar electrokinetic illicit drug substances

Micellar electrokinetic optimization validation

Micellar electrokinetic separation conditions

Micellar, aggregates electrokinetic chromatography

Micelle electrokinetic capillary chromatography

Miceller electrokinetic chromatography

Microchannels electrokinetic transport

Microemulsion electrokinetic

Microemulsion electrokinetic chromatography

Microemulsion electrokinetic chromatography MEEKC)

Microemulsion electrokinetic development

Mineral interface, electrokinetic

Mixing electrokinetic instability induced

Molecular Dynamics Simulations Electrokinetic Nanofluidics

Multiplexed microemulsion electrokinetic chromatography

Nanomicellar electrokinetic

Nanomicellar electrokinetic chromatography

Nonlinear Electrokinetic Phenomena

PH effects electrokinetics

Packed capillary columns electrokinetic packing

Particles electrokinetics

Pharmaceutical analysis micellar electrokinetic chromatography

Pharmaceutical analysis microemulsion electrokinetic chromatography

Phenols micellar electrokinetic chromatography

Phenomenological equations electrokinetic

Phytoremediation after Electrokinetic Process

Plug electrokinetically-driven

Pollution electrokinetics

Polymeric surfactant electrokinetic chromatography

Potential, electrokinetic redox

Practical Use of Electrokinetic Processes

Preconcentration electrokinetic mode

Pressure, electrokinetic injection

Proteins electrokinetic methods

Rate constant electrokinetic

Removal of Anionic Pollutants by Electrokinetics

Retention times, micellar electrokinetic

Retention times, micellar electrokinetic chromatography

Sample application electrokinetic injection

Sample introduction electrokinetic method

Separation methods micellar electrokinetic chromatograph

Separation techniques micellar electrokinetic chromatography

Silica electrokinetics

Stabilization electrokinetic mechanism

Streaming potential, electrokinetic

Study Tests on Electrokinetic Remediation of Sea Harbor Sediments

Surface charge electrokinetics

Surface charges from electrokinetic measurements

Surfactant-Enhanced Electrokinetic Remediation of Chlorinated Pesticides

Teorells Electrokinetic Model

The Electric Double Layer and Electrokinetic Phenomena

The Future of Multidimensional Electrokinetic Separations

The IUPAC definition of electrokinetic parameters

Use of the Electrokinetic Process to Improve Phytoremediation

Vesicle electrokinetic chromatography,

Virus electrokinetic properties

Vivo Electrokinetic Potentials

Zeta (Electrokinetic) Potential

Zeta electrokinetic phenomena

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