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Electron interfaces

Instrumentation is rapidly becoming more electronic. However, many users prefer pneumatic, and computer compatibility is available with either although electronic interface with computers is generally preferred. One coal gasification company prefers pneumatic because they feel the inherent corrosive atmosphere around such plants is not kind to electronic equipment. [Pg.221]

Even if many fundamental questions remain still open in molecular electronics, the answers to these issues are today the central topics in this field, and much of the driving force for understanding and developing molecular junctions derives from the original promise of possible applications in different fields, such as microelectronics, chemical and biological sensing, and in the realm of photonics and the photonic/electronic interface. [Pg.111]

ARUPS results have identified unique electronic interface states for the Cu/Ru(0001) system. These states are not present in either metal separately but exist because of the abrupt change in properties at the interface. [Pg.164]

When applied to coated metals, the fluctuations observed in the current noise signal are generally low in magnitude with the baseline of detection essentially being limited by the sensitivity of the electronic interface. For the studies cited, the lower limit of the current noise signal is some 10 pico-amps. [Pg.37]

A further advantage of this system is that it can easily he integrated with a commercial ICP-AES or ICP MS instrument without software or electronic interface modifications. It will operate rehably for a wide range of viscosities and has apphcations not only in the oil industry but also for highly concentrated samples from other areas. It uses standard autoanalyser principles similar to the Technicon Auto Analyzers. [Pg.159]

The complexity of die flow injection manifold required by the three approaches was very similar. All of them necessitated electronic interfaces to control the propulsion and injection systems through the microcomputer in approaches I and II, and the injection and switching valves in manifold III. A passive electronic interface was also required in all three manifolds in order to acquire data fi om the biosensor/detection system. [Pg.95]

Clearly the situation of acetylene adsorption on Si(100) is a complex problem, presumably related to the higher potential reactivity and capacity for bonding of the C=C species. Fortunately, the situation for ethylene appears to be more straightforward, and it seems to be the interaction of Si(100) with C=C species that underpins most of the potential applications in creating suitable inorganic/organic electronic interfaces [126]. [Pg.37]

R 18] Instead of developing a new electronic interface, the micro electro mechanical concept of the Match-X initiative, represented in the consortium by the Fraunhofer Institute, mechanical reliability and automation were integrated. The Match-X inter-... [Pg.590]

Rufer A, Barrade P, Hotellier D. Power-electronic interface for a supercapacitor-based energy-storage substation in dc-transportation networks. EPE Journal 2004 14(4) 43-49. [Pg.467]

The chemical behavior of monolayer coverages of one metal on the surface of another, i.e., Cu/Ru, Ni/Ru, Ni/W, Fe/W, Pd/W, has recently been shown to be dramatically different from that seen for either of the metallic components separately. These chemical alterations, which modify the chemisorption and catalytic properties of the overlayers, have been correlated with changes in the structural and electronic properties of the bimetallic system. The films are found to grow in a manner which causes them to be strained with respect to their bulk lattice configuration. In addition, unique electronic interface states have been identified with these overlayers. These studies, which include the adsorption of CO and H2 on these overlayers as well as the measurement of the elevated pressure kinetics of the methanation, ethane hydrogenolysis, cyclohexane dehydrogenation reactions, are reviewed. [Pg.195]

Reconciliation of adverse event data from the clinical trial database, and other sources, with the pharmacovigilance database throngh electronic interfaces... [Pg.549]

An electronic interface between the user, the inventory system, QA, and purchasing to support a paperless purchase order. [Pg.2892]

Hardware interface Determining the true performance of an electronic interface of a chromatography data system requires special instrumentation that is not generally found in a chromatographic laboratory. Testing procedure is similar to that of calibrating any electronic instrument. [Pg.1695]

Computers and computer telecommunications are integral components of the entire analytical and reporting process and control the data input, operation, monitoring, and data reporting functions in automated analyzers. Also, workstations have been used to integrate the operation of one or more laboratory analyzers. Individual analyzers and/or their workstations are electronically interfaced with large central data repositories on laboratory information systems (LIS) and/or laboratory automation systems (LAS) (see Chapter 18). [Pg.279]

Automatic specimen introduction requires the development of mechanical interfaces between each laboratory analyzer and devices such as conveyor belts, mobile robots, or robot arms. Enhancements to electronic interfaces for laboratory instruments are necessary to allow remote computer control of front-panel functions, notification of instrument status information, and coordination of the distribution of specimens between instruments. Most existing LIS interfaces with laboratory analyzers provide only the ability to download accession numbers and the tests requested on each specimen, and to upload the results generated by the analyzer. [Pg.291]

Most analytical devices used in clinical laboratories are directly linked or connected via an electronic interface to a laboratory information system (LIS). In this progression, many different informatic functions (see Chapter 18) are used, including the electronic transfer of data from the analyzers to the LIS and ultimately into a patient s electronic medical record. This provides healthcare professionals with quick, accurate, and appropriate access to the patient s medical history and information. [Pg.308]

A Common electronic interface. Will a single program interface with all benefit providers Will it interface with all retail pharmacy providers ... [Pg.747]

The management of the optical bench and the acquisition of the data is controlled by a specific electronic interface. During the displacement of the mirror, an ADC converter, linked to the detector, samples the interferogram in the form of... [Pg.217]

Microelectronics Electrochemical phenomena are essential in the manufacture of electronic and photonic systems as well as responsible for the quality and reliability of such systems. Applications and research are outlined in areas that include manufacture of microcircuits, interconnecting networks, lightwave communication devices, parallel processors, content-addressable memories, and nerve-electronic interfaces. [Pg.58]


See other pages where Electron interfaces is mentioned: [Pg.62]    [Pg.267]    [Pg.114]    [Pg.635]    [Pg.154]    [Pg.170]    [Pg.100]    [Pg.238]    [Pg.103]    [Pg.412]    [Pg.228]    [Pg.151]    [Pg.7]    [Pg.60]    [Pg.622]    [Pg.207]    [Pg.267]    [Pg.479]    [Pg.148]    [Pg.263]    [Pg.192]    [Pg.1093]    [Pg.253]    [Pg.101]    [Pg.94]    [Pg.565]    [Pg.59]    [Pg.348]    [Pg.909]    [Pg.30]   
See also in sourсe #XX -- [ Pg.58 , Pg.59 , Pg.60 ]




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Electron Transfer at Electrodes and Interfaces

Electron Transfer at the Interface of Two Immiscible Liquids

Electron at interfaces

Electron ionization interfaces

Electron ionization interfaces using

Electron metal/polymer interfaces

Electron spin resonance interface structure

Electron spin resonance interface, dependence

Electron transfer at interfaces

Electron transfer at the semiconductor-electrolyte interface

Electron transfer mineral-water interface

Electron transfer reaction, at interfaces

Electron-transfer reactions across interfaces

Electronic Properties of Interfaces

Electronic States at the Interface

Electronic Structure of Surfaces and Interfaces in Conjugated Polymers

Electronic charges, transport across interface

Electronic data interface

Electronic metal/polymer interfaces

Electronic surfaces/interfaces

Electrons in the interface

Electrons, flow across interfaces

Experimental Electronic Spectroscopy at Liquid Interfaces

Interface electron transfer reaction

Interface electronic properties

Interface states in electron-transfer processes

Interface structure, electron microscopy

Interface texture, electron microscopy

Interfaces Auger electron spectroscopy

Interfaces electron microscopes

Kinetics of Electron Transfer at the Metal-Liquid Interface

Metal-electrolyte interface electron transfer

Scanning electron microscopy interface structures

Semiconductor-electrolyte interfaces, electron

Semiconductor-electrolyte interfaces, electron transfer

Simulations of Electronic Transitions at Interfaces

Solutes at Interfaces Electronic Spectroscopy

The Continuous Flow of Electrons across an Interface Electrochemical Reactions

Transmission electron microscopy interface imaging

Transmission electron microscopy interfacing

Two-Way Electron Transfer Across an Interface

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