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Microfluidic

Micro Flow cell Microfluidizers Microgel theory Microgravity Microhardness... [Pg.633]

Formation of Hposomal vesicles under controlled conditions of emulsification of Hpids with phosphoHpids has achieved prominence in the development of dmgs and cosmetics (42). Such vesicles are formed not only by phosphoHpids but also by certain nonionic emulsifying agents. Formation is further enhanced by use of specialized agitation equipment known as microfluidizers. The almost spontaneous formation of Hposomal vesicles arises from the self-assembly concepts of surfactant molecules (43). Vesicles of this type are unusual sustained-release disperse systems that have been widely promoted in the dmg and cosmetic industries. [Pg.294]

ON-LINE MONITORING OF HYDRODYNAMIC FLOW PROFILES IN MICROFLUIDIC CHANNELS BASED UPON MICROELECTROCHEMISTRY... [Pg.85]

Miniaturisation of various devices and systems has become a popular trend in many areas of modern nanotechnology such as microelectronics, optics, etc. In particular, this is very important in creating chemical or electrochemical sensors where the amount of sample required for the analysis is a critical parameter and must be minimized. In this work we will focus on a micrometric channel flow system. We will call such miniaturised flow cells microfluidic systems , i.e. cells with one or more dimensions being of the order of a few microns. Such microfluidic channels have kinetic and analytical properties which can be finely tuned as a function of the hydrodynamic flow. However, presently, there is no simple and direct method to monitor the corresponding flows in. situ. [Pg.85]

OPTIMISATION OF MICROBAND ELECTRODE SIZES AND LOCATIONS WITHIN A RECTANGULAR MICROFLUIDIC CHANNEL FOR ELECTROCHEMICAL MONITORING OF HYDRODYNAMIC FLOW PROFILES... [Pg.127]

Electroosmotic flow (EOE) is thus the mechanism by which liquids are moved from one end of the sepai ation capillai y to the other, obviating the need for mechanical pumps and valves. This makes this technique very amenable to miniaturization, as it is fai simpler to make an electrical contact to a chip via a wire immersed in a reservoir than to make a robust connection to a pump. More important, however, is that all the basic fluidic manipulations that a chemist requires for microchip electrophoresis, or any other liquid handling for that matter, have been adapted to electrokinetic microfluidic chips. [Pg.324]

In this work we discuss some bioanalytes such as amino acids assay by electrokinetic microfluidic chip with ECE detection. [Pg.324]

STATE-OF-THE-ART OF BIOOBJECTS ASSAY IN MICROFLUIDIC LAB-ON-A-CHIP DEVICES... [Pg.341]

Polymers have come a long way from parkesine, celluloid and bakelite they have become functional as well as structural materials. Indeed, they have become both at the same time one novel use for polymers depends upon precision micro-embossing of polymers, with precise pressure and temperature control, for replicating electronic chips containing microchannels for capillary electrophoresis and for microfluidics devices or micro-optical components. [Pg.336]

Ross D, Gaitan M, Locascio LE (2001) Temperature measurement in microfluidic systems using a temperature-dependent fluorescent dye. Anal Chem 73 4117-4123 Sammarco TS, Bums MA (1999) ThermocapiUary pumping of discrete drops in microfabricated analysis devices. AlChE J 45 350-366... [Pg.97]

Gas flows are encountered in many microsystems like micro-motors, micro-turbines, micro-sensors, and microfluidic systems in the presence of air or gas environment. Since the ratio of surface area to volume increases in such microsystems, surface forces become dominant over the body forces, and gas flows have great affects on the performance and reliability of many microdevices. [Pg.113]

Talsma, H., Ozer, A. Y., van Bloois, L., and Crommelin, D. J. A. (1989). The size reduction of Uposomes with a high pressure homogenizer (Microfluidizer). Characterization of prepared dispersions and comparison of conventional methods. Drug Dev. Indust. Pharm.. 15, 197-207. [Pg.336]

IMM (Germany) Nitroglycerin production at 80 tons per year with Xi an Chemical Company [2] microfluidic solutions for bioanalytic and industrial analysis... [Pg.240]

Bettinger CJ, Weinberg EJ, Kulig KM et al (2006) Three-dimensional microfluidic tissueengineering scaffolds using a flexible biodegradable polymer. Adv Mater 18 165-169... [Pg.161]

The sensor chip is held in contact with the prism of the optical system by a microfluidic cartridge that controls the delivery of sample plugs into a tran ort buffer that passes continuously over the sensor chip surfiice. [Pg.777]

For catalyst testing, conventional small tubular reactors are commonly employed today [2]. However, although the reactors are small, this is not the case for their environment. Large panels of complex fluidic handling manifolds, containment vessels, and extended analytical equipment encompass the tube reactors. Detection is often the bottleneck, since it is still performed in a serial fashion. To overcome this situation, there is the vision, ultimately, to develop PC-card-sized chip systems with integrated microfluidic, sensor, control, and reaction components [2]. The advantages are less space, reduced waste, and fewer utilities. [Pg.51]

The realization of complete bench-scale micro reactor set-ups is certainly still in its infancy. Nevertheless, the first investigations and proposals point at different generic concepts. First, this stems from the choice of the constructing elements for such set-ups. Either microfluidic components can be exclusively employed (the so-caUed monolithic concept) or mixed with conventional components (the so-called hybrid or multi-scale concept). Secondly, differences concerning the task of a micro-reactor plant exist. The design can be tailor-made for a specific reaction or process (specialty plant) or be designated for various processing tasks (multi-purpose plant). [Pg.64]

The development of start-up companies in the field of micro-systems technology, including microfluidics, has been reviewed by Wicht et al. [244]. Different types of business models are presented as well as the corresponding growth models. The development of start-ups in Germany in the last 10 years is presented and the product offer is discussed. This is compared with the situation in other European countries. Finally, information on problems and opportimities for the start-ups is provided. [Pg.95]

Mills, P. L., Mitchell, R. E., Wetzel, M. D., Schmidt, M. A., Jensen, K. F., Device level integration to form a parallel microfluidic reactor system, in Ramsey,... [Pg.106]


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2-layer microfluidic system

Actuators in microfluidics

Application of Microfluidic Devices for Biomarker Detection

Application of Microfluidic Systems

Applications microfluidics-based biomedical devices

Applications of Microfluidic Enzymatic Microreactors in Proteomics

Battery microfluidic redox

Bead-Based Microfluidic Platforms

Bilayer microfluidics, supported

BioMEMS microfluidics

Biological fuel cell microfluidic

Biomolecular Adsorption in Microfluidics

Biomolecular Synthesis in Microfluids

Boundary-Element Method in Microfluidics

Brownian Motion in Microfluidics and

Bubble-Actuated Microfluidic Switch

Capacitance-Based Microfluidic Sensors

Capillary-Based Microfluidics

Cell Assays in Microfluidics

Cell Fusion in Microfluidics

Cell Migration in Scaffolds-Based Microfluidic

Cell Migration in Scaffolds-Based Microfluidic Platform

Cellular Mechanotransduction in Microfluidic

Cellular Mechanotransduction in Microfluidic Systems

Centrifugal Microfluidics

Centrifugal microfluidic platform

Channel reactors, microfluidic

Chemical microfluidics

Chip-based microfluidic systems

Compact disk -based microfluidics

Companion Website: www.wiley.com/go/panigrahi/microfluidic

Continuous flow microfluidic device

Coupling Microfluidic Devices to Mass

Coupling Microfluidic Devices to Mass Spectrometers

Coupling Microfluidics with Mass Spectrometry

Cross channel microfluidic

Definition of Microfluidics

Diazomethane microfluidics

Digital Microfluidics

Digital microfluidic systems

Droplet based microfluidics capillary flows

Droplet based microfluidics lab-on-a-chip

Droplet microfluidics

Droplet-based microfluidic technique

Droplet-based microfluidics

Droplets, breakup microfluidics

E. Kjeang, Microfluidic Fuel Cells and Batteries, SpringerBriefs in Energy

Effects of Microfluidics on Preparative Chemistry Processes

Electroactive microfluidic devices

Electrochemical Sensing on Microfluidic Chips

Electrochemical cell microfluidic

Electrochemical detection microfluidic chips (

Electrokinetic preconcentration techniques microfluidic devices

Enzymatic microfluidic

Enzyme Assay in Microfluidics

Example Flow in Microfluidic Devices

Fabricated microfluidic devices

Fabrication of 3D Microfluidic Structures

Fabrication of microfluidic systems

Fluid microfluidics devices

Fluidics Microfluidics

Fluids microfluidics

Fundamentals of Diffusion in Microfluidic

Fundamentals of Diffusion in Microfluidic Systems

Fused microfluidic chip

Glass microfluidic chips

Glass microfluidic devices

Heat microfluidic systems

High microfluidic polymerization

Horizontal Microlenses Integrated in Microfluidics

Hydrodynamic microfluidic systems

Hydrogel microfluidic encapsulation

Hydrophobic/Hydrophilic Microfluidics

Imaging and Microfluidics

Immobilized Microfluidic Enzyme Reactor IMER)

Immunoassays and immunosensors, recent microfluidic electrochemical systems

Impedimetric Biosensors for Nano- and Microfluidics

Integrated Microfluidic Devices

Integrated microfluidic systems, sample processing with

Interfaces Between Microfluidics and Mass

Interfaces Between Microfluidics and Mass Spectrometry

Lab-on-chip microfluidics theory

Laminar microfluidics, advantages

Lattice Poisson-Boltzmann Method, Analysis Electroosmotic Microfluidics

Live cells imaging microfluidic devices

Magnetic Field-Based Microfluidic Devices

Materials Used in Microfluidic Devices

Materials for Microfluidic Fuel Cells

Membrane-assisted microfluidized beds

MicroFluidizer

MicroFluidizer

MicroFluidizer Subject

Microchannels microfluidic

Microfabricated fluidic devices Microfluidics

Microfluid

Microfluid

Microfluid applications

Microfluid lithography

Microfluid system

Microfluidic Analysis System

Microfluidic Assembly

Microfluidic Bioreactors

Microfluidic Cell Culture

Microfluidic Cell Electroporation

Microfluidic Cell Enumeration for Biomedical

Microfluidic Cell Enumeration for Biomedical Diagnostics

Microfluidic Chip-Based Electrochromatography

Microfluidic ChipShop

Microfluidic Circuits

Microfluidic Component Assembly

Microfluidic Devices and Microflow Systems

Microfluidic Devices for Combinatorial

Microfluidic Devices for Combinatorial Chemistry

Microfluidic Devices in Tissue Engineering

Microfluidic Droplet Detection

Microfluidic Electrochemical Biosensing Chips for Food Analysis

Microfluidic Flow

Microfluidic Flow Control

Microfluidic Flow Modeling Study

Microfluidic Flow Visualization

Microfluidic Functional Elements

Microfluidic Imaging

Microfluidic Integration

Microfluidic Logic Gates

Microfluidic MEFC

Microfluidic Mixer

Microfluidic Mixing

Microfluidic Optical Devices

Microfluidic Platform for Human Diseases

Microfluidic Reactor Types

Microfluidic Reactors with Immobilized Enzymes for Biocatalytic Transformations

Microfluidic Resistive Pulse Sensor

Microfluidic Rotary Pump

Microfluidic Same-Single-Cell Analysis

Microfluidic Sample Manipulation

Microfluidic Stem Cell Culture

Microfluidic System Control Modules

Microfluidic Systems Assembly

Microfluidic Systems Packaging

Microfluidic Systems Sensitivity, High Speed

Microfluidic Systems for Combinatorial

Microfluidic Systems for Combinatorial Chemistry

Microfluidic Systems for High-Throughput

Microfluidic Systems for High-Throughput Screening

Microfluidic Systems in Space Science

Microfluidic T-junction

Microfluidic Techniques for Oligosaccharide Synthesis

Microfluidic a-Sialylation

Microfluidic analysis devices fabrication, using

Microfluidic applications

Microfluidic applications electrodes

Microfluidic applications fundamental aspects

Microfluidic approach, advantages

Microfluidic assays

Microfluidic bends

Microfluidic bifurcation

Microfluidic biocatalytic transformations

Microfluidic biosensor arrays

Microfluidic channel

Microfluidic channel device, soft lithography

Microfluidic channel device, soft lithography materials

Microfluidic channel network

Microfluidic chemical sensors

Microfluidic chip

Microfluidic chips advantages

Microfluidic chips antibody immobilization

Microfluidic chips layout

Microfluidic chips platforms

Microfluidic chips polymeric materials

Microfluidic chips properties

Microfluidic combined

Microfluidic compact disc

Microfluidic components

Microfluidic dehydration

Microfluidic design

Microfluidic device

Microfluidic device dispersion

Microfluidic device fabrication methods

Microfluidic device micromixer

Microfluidic device micropore

Microfluidic device microreactor

Microfluidic device mixing

Microfluidic device mixing process

Microfluidic devices applications

Microfluidic devices background

Microfluidic devices circulating tumor cells

Microfluidic devices designes

Microfluidic devices electrophoretic separations

Microfluidic devices glass microchip fabrication

Microfluidic devices gradient switch

Microfluidic devices interfaces

Microfluidic devices interfacing

Microfluidic devices limitations

Microfluidic devices microchip-based electrophoresis

Microfluidic devices microenvironment

Microfluidic devices replica molding

Microfluidic devices sacrificial materials

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Microfluidic devices soft lithography

Microfluidic devices solid-phase extraction

Microfluidic devices synthesis

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Microfluidic devices, for electrophoretic separations fabrication and uses

Microfluidic devices, surface

Microfluidic devices, surface modification

Microfluidic differential resistive

Microfluidic differential resistive pulse sensor method

Microfluidic droplet generators

Microfluidic droplet reactors

Microfluidic electrochemical immunoassay

Microfluidic electrochemical immunoassay systems

Microfluidic electrospray ionization

Microfluidic electrospray ionization interfaces

Microfluidic emergence

Microfluidic emulsification

Microfluidic emulsification technique

Microfluidic enzymatic microreactors

Microfluidic enzymatic reactors

Microfluidic enzymatic reactors applications

Microfluidic enzymatic transformations

Microfluidic enzyme-sensors

Microfluidic flow chemistry

Microfluidic flow devices

Microfluidic flow focusing device

Microfluidic flow system

Microfluidic flow-over designs

Microfluidic fluid mechanics

Microfluidic fuel cell

Microfluidic fuel cell example

Microfluidic fuel cells fabrication

Microfluidic fuel types

Microfluidic fundamentals

Microfluidic genetic analysis

Microfluidic genetic analysis system

Microfluidic glass systems

Microfluidic heat/mass transfer

Microfluidic immobilized enzyme

Microfluidic immobilized enzyme reactor

Microfluidic immunosensors

Microfluidic integrated

Microfluidic interface

Microfluidic junctions

Microfluidic laboratory chips

Microfluidic large scale integration

Microfluidic lithography

Microfluidic manifolds

Microfluidic methods

Microfluidic microchannel

Microfluidic microchips

Microfluidic microreaction technology

Microfluidic microreaction technology advantages

Microfluidic modelling

Microfluidic monodisperse double emulsions

Microfluidic multi-injector

Microfluidic network

Microfluidic oxidant streams flow

Microfluidic oxidant types

Microfluidic parallel

Microfluidic parallel scaling

Microfluidic patterning

Microfluidic performance comparison

Microfluidic plate stack

Microfluidic platform

Microfluidic prediction methods

Microfluidic reactors for nanomaterial

Microfluidic reactors for nanomaterial synthesis

Microfluidic reactors with immobilized enzymes

Microfluidic reactors, for small molecule and

Microfluidic reactors, for small molecule and nanomaterial synthesis

Microfluidic sample preparation techniques using

Microfluidic sensor array

Microfluidic sheath-flow

Microfluidic spinning

Microfluidic structures fabrication

Microfluidic surface acoustic wave

Microfluidic synthesis

Microfluidic system

Microfluidic system automatic

Microfluidic system microelectromechanical

Microfluidic systems, beads

Microfluidic systems, integrated

Microfluidic technology

Microfluidic technology applications

Microfluidic technology platforms

Microfluidic technology sample preparation

Microfluidic tectonics

Microfluidic templation

Microfluidic thermal heating

Microfluidic three-dimensional

Microfluidic toolkit

Microfluidically driven actuators

Microfluidics

Microfluidics

Microfluidics advantages

Microfluidics and Lab-on-a-Chip

Microfluidics and Magnetism

Microfluidics and Nanofluidics

Microfluidics benefits

Microfluidics cards

Microfluidics definition

Microfluidics devices

Microfluidics fabrication

Microfluidics features

Microfluidics flow control

Microfluidics for Biochemical and Chemical

Microfluidics for Biochemical and Chemical Reactions

Microfluidics for Stem Cell Therapy

Microfluidics for Studies of Apoptosis

Microfluidics hybridizations

Microfluidics in Nature

Microfluidics intersection approach

Microfluidics probe-spotting

Microfluidics publications

Microfluidics pumping method

Microfluidics systems

Microfluidics technology

Microfluidics-Based Surface Patterning Tools

Microfluidics-based chromatography

Microfluidics-based chromatography columns

Microfluidics-based immunoassays

Microfluidics/chips/devices

Microfluidization

Microfluidization

Microfluidization treatment

Microfluidized emulsions

Microfluidizer advantages

Microfluidizer cationic liposomes

Microfluidizer disadvantages

Microfluidizer manufacturer

Microfluidizer processor

Microfluidizers

Microfluidizers

Microfluids

Microfluids

Microinjection Molding for Microfluidics

Microinjection Molding for Microfluidics Applications

Microreactor microfluidic chip

Microsystems microfluidics

Microwave in Microfluidics

Modeling of microfluidic devices

Modular microfluidic devices

Multidimensional microfluidic systems, for protein and

Multidimensional microfluidic systems, for protein and peptide separations

Multiphase microfluidics

Multiplexed microfluidic devices

Nanofluidic Fluidics Microfluidics

Nanostructured materials microfluidization

Non-Newtonian Fluids in Microfluidics

On-Chip Microfluidic Reservoirs

Optical Detection on Centrifugal Microfluidic

Optical properties microfluidic devices

Organ-Like Cell Cultures in Microfluidic Systems

PDMS microfluidic devices

PMMA microfluidic chip

Paper microfluidic devices

Paper microfluidic devices advantages

Paper microfluidic devices colorimetric detection

Paper-Based Sensors and Microfluidic Chips

Perfusion based microfluidic cell

Perfusion based microfluidic cell culture chip

Piezoelectric Actuation in Multiphase Microfluidics

Piezoelectric Materials for Microfluidics

Plates microfluidic well

Poly microfluidic devices

Polydimethylsiloxane microfluidic devices

Polydimethylsiloxane) microfluidic systems

Polymer Synthesis Within Microfluidic Reactor

Polymer microfluid devices

Polymer microfluidic chips

Polymerization in microfluidic reactors

Portable microfluidic instruments

Primary Screening Massively Parallel Microfluidic Reactor

Reactive mixing, microfluid

Reactor microfluidic

Sample processing, with integrated microfluidic

Sample processing, with integrated microfluidic detection

Segmented flow microfluidics

Sensors Microfluidic sensor

Silicon microfluidic flow focusing

Silicon microfluidic flow focusing device

Silicones for Microfluidic Systems

Single-Cell Analysis in Microfluidic Devices

Spiral Inertial Microfluidic Devices for Cell

Spiral Inertial Microfluidic Devices for Cell Separations

Stereoselective p-Mannosylation under the Integrated Microfluidic and Batch Conditions

Subject microfluidic

Sugar Synthesis by Microfluidic Techniques

Surface Modification of PDMS in Microfluidic Devices

Surface modifications, microfluidic

Surface-initiated polymerization, microfluidic

Surface-initiated polymerization, microfluidic devices

Synthesis of Particles in Microfluidics

Temperature Control in Microfluidic Systems

Theory of microfluidics

Tissue engineering microfluidic devices

Transport Phenomena in Microfluidic Systems, First Edition. Pradipta Kumar Panigrahi

Valves microfluidic

Y-shaped microfluidic channel

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