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Field surface

FEM Field emission microscopy [62, 101, 102] Electrons are emitted from a tip in a high field Surface structure... [Pg.313]

Nie S and Emory S R 1997 Near-field surface-enhanced Raman spectroscopy on single silver nanoparticles Anal. Chem. 69 2631-5... [Pg.1228]

Zeisel D, Deckert V, Zenobi R and Vo-Dinh T 1998 Near-field surface-enhanced Raman spectroscopy of dye molecules adsorbed on silver island films Chem. Phys. Lett. 283 381... [Pg.1730]

The use of formulated material (generally suspended in water) allows the researcher to work with the form of the test material that will be the most commonly encountered under field conditions. The formulated material would be found under most circumstances on field surfaces and in the air after treatment of the field with the test product. The greatest problem with the use of formulated product in water as a field fortification suspension is the maintenance of the homogeneity of the field fortification suspension. To maintain the homogeneity of the active ingredient in the field fortification suspension, one should shake the field fortification suspension vigorously for at least one minute and immediately withdraw the aliquot for the field spike from the fortification suspension just prior to fortification of the sample. [Pg.1012]

Deckert V., Zeisel D., Zenobi R., Vo-Dinh T., Near-field surface enhanced Raman imaging of dye-labeled DNA with 100-nm resolution, Anal. Chem. 1998 70 2646-2650. [Pg.254]

Figure 7.2. A field surface with transect, a gridded section (grid in lower left) and different topographic features. If the whole field were to be sampled, the whole field would be gridded. FgB, SnA, and XeB are standard abbreviations for different types of soil. [Pg.155]

Binh, V. T., and Garcia, N. (1991). Atomic metallic ion emission, field surface melting, and scanning tunneling microscopy tips. J. Phys. I. 1, 605-612. [Pg.385]

Estimated electric field (surface) 2 x 1013 to 1015 V/m Estimated magnetic field (surface) 106 Tesla Electrostatic potential energy (for 1 mm size) 33 J... [Pg.637]

One simple explanation for these results was as follows The electric field at a metal vacuum interface can be >10 times larger than in free space when the conditions required for a surface plasma resonance are met (47). Since the Raman cross-section is proportional to the square of the field, surface plasmons could produce enhancements of >10. This enhancement is probably not large enough to explain the tunneling junction results by itself, but an enhancement in signal of a factor of 100 by the excitation of surface plasmons would increase the Raman intensity from near the limits of detectibility. [Pg.242]

This product may not be applied aerially or by ground within 66 ft of the points where field surface water runoff enters perennial or intermittent streams and rivers or within 200 ft around natural or impounded lakes and reservoirs. [Pg.574]

Saito, Y., Mizushima, R., Hata, K., (2002), Field ion microscopy of multiwall carbon nanotubes observation of pentagons and cap breakage under high electric field , Surface Science, 499, 119-123. [Pg.283]

Binh, V.T., and N. Garcia. 1992. On the electron and metallic ion emission from nanotips fabricated by field-surface-melting technique Experiments on W and Au tips. Ultramicroscopy 42-44 80-90. [Pg.172]

C is a function of the yield at harvest and is directly influenced by field operations that affect field surface cover throughout the year (i.e., tillage). To estimate the annual erosion and quantities of removable crop residues attributable to specific field operations and harvest yields, the C-factor must be determined in relation to these conditions. Equation 2 can be rewritten as... [Pg.18]

Templating by electric fields equipotential and tangential field surfaces... [Pg.339]

This correspondence between equipotential and tangential field surfaces leads to a simple construction for the likely diffusion trajectories of ions within fast-ion conductors, also called "solid electrolytes". These solids (typically binary salts) are electrically highly conducting (the electrical conductivity of... [Pg.340]


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Atomic structures field evaporated surfaces

Atomic structures of field evaporated solid surfaces

Back surface field

CHARMM force field potential energy surface

Director fields, surface alignment

Electric field equipotential surfaces

Field measurements with infrared surface

Field sohd surfaces

Field solid surfaces

Field-Induced Surface Phenomena

Field-dressed surface

Fields of Application in Trace, Ultratrace and Surface Analysis

Force field methods reactive energy surfaces

Future application of temperature-responsive cell culture surface to support and promote regenerative medicine field

Gate Dielectrics and Surface Passivation Layers for Organic Field Effect Transistors

Heterogeneous Surface Areas by Measurements of Field Strength

Localized surface plasmon resonance electromagnetic fields

Localized surface plasmon resonance fluorescence-enhanced local field

Localized surface plasmon resonance local-field enhancement, metallic

Magnetic field distance from surface

Magnetic fields: coatings 94 surface structures

Magnetic hyperfine field at surfaces

Methods in Surface Kinetics Flash Desorption, Field Emission Microscopy, and Ultrahigh Vacuum Techniques Gert Ehrlich

Potential energy surfaces force field methods

Surface Enhanced Raman electromagnetic field enhancement

Surface Enhanced Raman field enhancement

Surface Enhanced Raman field enhancement Theory

Surface Plasmon Field-Enhanced Diffraction

Surface Raman Spectroscopy without Field Enhancement

Surface Raman without field enhancement

Surface condensation forces electric field

Surface crystal field effect

Surface development for gas fields

Surface electric field

Surface field effect transistors

Surface fields, alignment

Surface magnetic fields

Surface morphology, magnetic field

Surface plasmon field-enhanced

Surface plasmon field-enhanced fluorescence

Surface plasmon field-enhanced fluorescence spectroscopy

Surface plasmon field-enhanced light

Surface plasmon field-enhanced light scattering

Surface plasmon resonance oscillating electric field

Surface reactions mean-field approximation

Surfaces thermodynamic fields

Tangential field surfaces

Templating by electric fields equipotential and tangential field surfaces

The distribution of ions in an electric field near a charged surface

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