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Designer cells

Measurement of the conductivity can be carried out to high precision with specially designed cells. In practice, tiiese cells are calibrated by first measuring the conductance of an accurately known standard, and then introducing the sample under study. Conductances are usually measured at about 1 kHz AC rather than with DC voltages in order to avoid complications arismg from electrolysis at anode and cathode [8]. [Pg.571]

Most sensor volumes, whether in LC (e.g., a UV absorption cell) or in GC (e.g., a katharometer cell), are cylindrical in shape, are relatively short in length and have a small length-to-diameter ratio. The small length-to-diameter ratio is in conflict with the premises adopted in the development of the Golay equation for dispersion in an open tube and, consequently, its conclusions are not pertinent to detector sensors. Atwood and Golay [12] extended the theory of dispersion in open tubes to tubes of small length-to-diameter ratio. The theory developed is not pertinent here as it will be seen that, with correctly designed cells, that dispersion from viscous sources can be... [Pg.305]

A single water molecule is identified by a different color, but it has the same states and trajectory rules as that of the other water molecules. In this ways, its behavior can be singled out for separate recording. This is the procedure necessary to evaluate aproperty such as self-diffusion. In this study, evaluate the average distance of movement of the designated cells after a common number of iterations. [Pg.52]

The samples were ground and pressed (2 ton.cm 2, for 15 s) in the form of 13 mm diameter wafers, weighing between 3 to 5 mg. They were placed in a specially designed cell, that allowed the heating of the sample under vacuum or controlled atmosphere. IR spectra could be taken through NaCl windows. [Pg.100]

Figure 7.10 Reduction of acetophenones with designer cells ... Figure 7.10 Reduction of acetophenones with designer cells ...
Groeger, H., Chamouleau, F., Orologas, N. et al. (2006) Enantioselective reduction of ketones with designer cells at high substrate concentrations highly efficient access to functionalized optically active alcohols. Angewandte Chemie-Intemational Edition, 45 (34), 5677-5681. [Pg.162]

Berkessel, A., Rollmann, C., Chamouleau, F. et al. (2007) Practical two-step synthesis of an enantiopure aliphatic terminal (S)-epoxide based on reduction of haloalkanones with designer cells . Advanced Synthesis and Catalysis, 349 (17-18), 2697-2704. [Pg.162]

May, O. and Groeger, H. (2005) Designer cells produce enantiomerically pure compounds. PharmaChem, 4 (9), 6-8. [Pg.335]

Most of the work in our laboratory has been done using specially designed cells that are incorporated in a rather simple cooling device. In working with polycrystalline metal foils, a cell design as pictured in Fig.l has been used. Metal... [Pg.276]

Properly designed cells can recover metals from solutions as dilute as 1 mg/1, or as concentrated as 200 g/1. In this context see also Ref. [13,133,234 et al].The following scheme shows 3 classes of cell types developed for various metal concentrations... [Pg.187]

Moshe Weiss [25] developed an extension of CAGO-CFAR to get better performance in multiple target situations and designed cell averaging CFAR with smallest of (CASO-CFAR) procedures and analysed the performance especially in multiple target situations. [Pg.316]

Woods V.L. Jr, Hamuro Y High resolution, high-throughput amide deuterium exchange-mas spectrometry (DXMS) determination of protein binding site structure and dynamics utility in pharmaceutical design./. Cell. Biochem. 2001, S37, 89-98. [Pg.397]

Scheme 6.4 Two-step synthesis of an (S)-epoxide with designer cells. Scheme 6.4 Two-step synthesis of an (S)-epoxide with designer cells.
The widest range of pressures has been achieved with opposed-anvU designs. Cells for single-crystal diffraction smdies have been based on the DAC and have... [Pg.76]


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See also in sourсe #XX -- [ Pg.347 ]

See also in sourсe #XX -- [ Pg.124 , Pg.222 ]




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Amperometric detectors flow cell designs

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Anodes cell design using

Attenuated total reflection cell design

Biocatalytic fuel cells design

Biofuel cell design

Biofuel cell design electrodes

Biological fuel cell design

Cell Design and Assembly

Cell Design for Helium Mixtures

Cell Designs (Symmetric versus Asymmetric)

Cell and Battery Designs

Cell and Stack Designs

Cell block techniques design

Cell design

Cell design

Cell design and electrodes

Cell design capital costs

Cell design connections

Cell design parallel plates

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Cell house design

Cell medium design

Cell room systems design

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Cell room systems design temperature

Cell-Stack Designs

Cell-based design

Cell-to-edge design

Cell-to-frame design

Cells case design

Cells, photoelectrochemical design

Conceptual Design of Internal Reforming in High-Temperature Fuel Cells

Confocal cell design

Controlled-potential coulometry cell design

Conventional Three-Electrode Cell Design and Fabrication

Coplanar Fuel Cell Design Strip Cells

Design Aspects of Silicon Thin Film Solar Cells

Design Principles of Fuel Cells

Design equations for the fuel cell stack

Design of Hydrogen Fuel Cell Systems for Road Vehicles

Design of Primary Lithium Cells

Design of Single-Cell EFC Compartment

Design of the In-Situ, Variable-Temperature EPR Spectroelectrochemical Cell

Detectors cell design

Detectors flow cell designs

Dielectric constant detector cell design

Diffusion cell design

ECL Cell Design

Electrocatalyst Design in Proton Exchange Membrane Fuel Cells for Automotive Application

Electrochemical Engineering and Cell Design

Electrochemical cells flow-cell design

Electrochemical flow cell design

Electrode-supported cell designs

Electrodes cell design using DSAs

Electron capture detector cell design

Eloflux Cell Design

Enzymatic Fuel Cell Design, Operation, and Application

Enzymatic fuel cells design

Flow cell designs

Flow-cell designs porous

Flow-cell designs thin-layer

Fuel Cell System Designs

Fuel cell design

Fuel cell design problem

Fuel cell design, conducting polymers

Fuel cell designs, basic principle

Fuel cell power plants design analysis

Fuel cell power plants design specifications

Fuel cell stack design

Fuel cell vehicle design

Fuel cells design principles

Fuel cells planar stack design

General Cell Designs

Human Designer Cell Lines

IR cell design

Knudsen cells design

Kumar 1 Fuel Cell Design

Lead-acid cell design

Library design cell based

Mammalian cell culture systems bioreactor design

Materials, Electrodes, and Cell Designs

Membrane cells bipolar design

Membrane cells monopolar design

Micro fuel cells design

Micro fuel cells flow-field design

Microbial fuel cell design

Microscale fuel cell designs

Microtubular Cells Design

Mixed Macro and Standard Cell Designs

Module, photovoltaic cell design

Nanoprotonic Fuel Cells A New Design Paradigm

Neutron reflectivity, cell designs

Nonconventional Design Principles for Fuel Cells

Optical cells design

Optimized Design of Direct Gap Photovoltaic Cells

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Other Reported Cell Designs

Our Proprietary Cell Design

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Planar fuel cell design

Poly cell design

Polymer electrolyte fuel cells design

Polymer electrolyte fuel cells electrode design using

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Principal Design of a Fuel Cell

Principles of cell design

Product design automotive fuel cell

Pure Standard Cell Designs

Pushing Expression Levels - Impact of Vector Design and Cell Clone Selection

Radioactivity detector flow cell design

SOFC Cell Designs

Scanning electrochemical cell design

Segmented-cell-in-series design

Simulation Model for Analysis and Design of Fuel Cells

Single-Cell Design

Small fuel cells design

Solid oxide fuel cells cell design

Solid oxide fuel cells planar design

Solid oxide fuel cells stack design

Solid oxide fuel cells tubular design

Stacked Cell Design

TECHNIQUE 48 Work Cell Design

The Influence of Cell Design

Translating Designs with Black-Box Cells

Tubular Cell Design (Seal-Less)

Tubular fuel cell design

Typical cell designs

Unique Performance Parameters and Design Aspects of Solid Electrolyte Cells

Unit cell design

Unit cell design cross section

Variable-temperature studies cell design

Whole-cell catalysts design / construction

Worked cell culture reactor design

Worked cell culture reactor design example

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