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Probes fluorescent

Grazing incidence excitation of a fluorescent probe in a phospholipid monolayer can also be used to indicate order. The collective tilt of the molecules in a domain inferred from such measurements is indicative of long-range orientational order [222]. [Pg.136]

Three- and four-photon absorption of a multiphoton absorbing fluorescent probe. Appl. Opt., 43. 5394-5398. [Pg.152]

R. P. Haughland. Handbook of Fluorescent Probes and Research Chemicals, 5th ed.. Molecular Probes, Eugene, Oregon, 1994. [Pg.404]

Zn-complexes with heterocyclic ligands as fluorescent probes for biological investigations 98CSR179. [Pg.218]

D Shalon, SJ Smith, PO Brown. A DNA microairay system for analyzing complex DNA samples using two-color fluorescent probe hybridization. Genome Res 6 639-645, 1996. MB Eisen, PT Spellman, PO Brown, D Botstem. Cluster analysis and display of genomewide expression patterns. Proc Natl Acad Sci USA 95 14863-14868, 1998. [Pg.348]

Figure 4.7 Changes in intraceiiuiar calcium in cultured rat ventricular myocytes exposed to oxidant stress. Calcium was measured using the fluorescent probe Fura>2. The ratio of the Fura-2 fluorescence measured at 340 and 380 nm excitation is shown and this is proportional to the intracellular calcium concentration. The fast-speed traces shown (note the 3.5 s time-scale) were recorded after various durations of oxidant stress. Myocytes under control conditions (before t = 0) show spontaneous calcium transients. These transients decreased in frequency with oxidant stress until cells failed to show spontaneous activity but continued to maintain a low intracellular calcium. Figure 4.7 Changes in intraceiiuiar calcium in cultured rat <a href="/info/ventricular_myocytes">ventricular myocytes</a> exposed to <a href="/info/oxidative_stress">oxidant stress</a>. Calcium was measured using the fluorescent probe Fura>2. The ratio of the Fura-2 <a href="/info/fluorescence_measurements">fluorescence measured</a> at 340 and 380 nm excitation is shown and this is proportional to the <a href="/info/calcium_intracellular_concentrations">intracellular calcium concentration</a>. The fast-speed traces shown (note the 3.5 s <a href="/info/time_scales">time-scale</a>) were recorded after various durations of <a href="/info/oxidative_stress">oxidant stress</a>. Myocytes under <a href="/info/controlled_conditions">control conditions</a> (before t = 0) show spontaneous <a href="/info/calcium_transients">calcium transients</a>. These transients decreased in frequency <a href="/info/fe_mn_al_oxide_with">with oxidant</a> stress until <a href="/info/failed_cells">cells failed</a> to show <a href="/info/spontaneous_activity">spontaneous activity</a> but continued to maintain a low intracellular calcium.
P. J. Robinson, J. T. Walker, C. W. Keevil, and J. Cole, Reporter genes and fluorescent-probes for studying the colonisation of biofilms in a drinking-water supply line by enteric bacteria. FEMS Microbiol. 729 183 (1995). [Pg.409]

Dendritic hosts can be used in aqueous solution to encapsulate water-soluble fluorescent probes. Changes in the photophysical properties of these encapsulated probes are useful to understand the properties of the microenvironment created by the dendritic interior. For example, adamantyl-terminated poly(pro-pylene amine) dendrimers from the first to the fifth generation (36 represents the third generation) can be dissolved in water at pH<7 in the presence of -cyclodextrin because of encapsulation of the hydrophobic adamantyl residue inside the /1-cyclodextrin cavity and the presence of protonated tertiary amine units inside the dendrimer [72]. Under these experimental conditions, 8-anifi- [Pg.184]

The formation of a microphase structure can be sensitively detected by using hydrophobic fluorescent probes. Hydrophobic microdomains tend to solubilize hydrophobic small molecules present together in aqueous solution. For example, diphenylhexatriene (DHT) is hydrophobically bound to the St aggregates in ASt-x in aqueous solution and, as a result, the fluorescence intensity is greatly enhanced. Figure 9 shows the fluorescence intensity of DHT in the presence of ASt-x relative to the intensity in its absence (I/I0) as a function of the ASt-x concentration [29], [Pg.67]

Dendrimers containing a polar surface and an apolar interior can work as hosts of hydrophobic fluorescent probes in aqueous environment. In particular. [Pg.185]

Approximately a minimum of 1 to 5,000 is required before complexation is no longer dependent on molecular weight for small anions such as KI and l-ariiLinonaphthaLine-8-sulfonate (ANS) (86,87). The latter anion is a fluorescent probe that, when bound in hydrophobic environments, will display increased fluorescence and, as expected, shows this effect in the presence of aqueous PVP. PVP, when complexed with Hl, shrinks in si2e as it loses hydrodynamic volume, possibly because of interchain complexation. ANS, on the other hand, causes the polymer to swell by charge repulsion because it behaves like a typical polyelectrolyte (88). [Pg.531]

Shaw, C.F. Ill, Schaeffer, N.A., Elder, R.C., Eidsness, M.K., Trooster, J.M. and Calls, G.H.M. (1984) Bovine serum albumin-gold thiomalate complex gold-197 Moessbauer, EXAFS and XANES, electrophoresis, sulfur-35 radiotracer, and fluorescent probe competition studies. Journal of the American Chemical Society, 106, 3511-3521. [Pg.311]

Conformational changes within or near the ATP-binding site of H,K-ATPase have also been demonstrated with the reversible fluorescent probes TNP-ATP [97,98] and [Pg.35]

The sample cells for molecular fluorescence are similar to those for optical molecular absorption. Remote sensing with fiber-optic probes (see Figure 10.30) also can be adapted for use with either a fluorometer or spectrofluorometer. An analyte that is fluorescent can be monitored directly. For analytes that are not fluorescent, a suitable fluorescent probe molecule can be incorporated into the tip of the fiber-optic probe. The analyte s reaction with the probe molecule leads to an increase or decrease in fluorescence. [Pg.428]

Hasegawa M, Sugimura T, Shindo Y and Kitahara A 1996 Structure and properties of AOT reversed micelles as studied by the fluorescence probe technique Colloids Surf. A 109 305-18 [Pg.2605]

Experiments on transport, injection, electroluminescence, and fluorescence probe the spatial correlation within the film, therefore we expect that their response will be sensitive to the self-affinity of the film. This approach, which we proved useful in the analysis of AFM data of conjugated molecular thin films grown in high vacuum, has never been applied to optical and electrical techniques on these systems and might be an interesting route to explore. We have started to assess the influence of different spatial correlations in thin films on the optical and the electro-optical properties, as it will be described in the next section. [Pg.100]

Baumgard, T, Hunt, G., Farkas, E. R., Webb, W. W. and Feigenson, G. W. (2007) Fluorescence probe partitioning between Lo/Ld phases in lipid membranes. Biochim. Biophys. Acta, [Pg.238]


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2-aminopurine fluorescent probe

Amine reactive fluorescent probe

Amine-Reactive Fluorescent Probes to Diamine-Modified DNA

Analytical probes, fiber optic fluorescent

Analytical probes, fiber optic fluorescent sensors

BODIPY fluorescent probes

Bead probes fluorescence emission

Bulk polymerization, fluorescent probe

Caged fluorescent probes

Caged fluorescent probes microscopy

Calcium alkarylsulfonates fluorescence probes

Calcium fluorescent probes

Carbohydrates fluorescent probes

Carboxyfluorescein fluorescent probe

Cationic fluorescent probes

Chemical probes fluorescence yields

Complexation constants by fluorescence-probed methods

Conjugation of Amine-Reactive Fluorescent Probes to Diamine-Modified DNA

Containing pyrene-labeled probes fluorescence

Contents Fluorescent Probes Fluorescein Derivatives

Cytoskeleton fluorescent probes

DNA microarray imaging of fluorescent probes

Decay rate constants, fluorescent probes

Dye probes, fluorescent organic

Em, measurement fluorescent probes

Ethidium bromide, as a fluorescence probe

Excimer Fluorescence as a Probe of Mobility in Polymer Melts

Extrinsic fluorescent probes

Extrinsic fluorescent probes selecting

Fluorescence ON” probe

Fluorescence fluorescent probes

Fluorescence in situ hybridization probe detection

Fluorescence in situ hybridization with DNA probes

Fluorescence intensity ANS probe in aqueous single

Fluorescence intensity at probe sites

Fluorescence lifetime-sensitive pH probe

Fluorescence methods, in probing DNA structure

Fluorescence microscopy caged fluorescent probes

Fluorescence microscopy of probe DNA

Fluorescence molecular probes

Fluorescence polarization anisotropy probes

Fluorescence probe

Fluorescence probe 1-pyrene carboxaldehyde

Fluorescence probe characterization tool

Fluorescence probe limits of application

Fluorescence probe method

Fluorescence probe studies, poly

Fluorescence probe, gold ion

Fluorescence probe, polarity-dependent

Fluorescence probes BODIPY

Fluorescence probes Ca-selective

Fluorescence probes Cd-selective

Fluorescence probes interface

Fluorescence probes of network solvation

Fluorescence probes, microscopy studies

Fluorescence probes, solvation dynamics

Fluorescence probing

Fluorescence probing

Fluorescence probing surfactant assemblies

Fluorescence recovery after photobleaching , probe diffusion technique

Fluorescence spectroscopy reporter probes

Fluorescent Probes and Tags

Fluorescent Probes for Lifetime and Anisotropy Studies

Fluorescent Sensors and Probes

Fluorescent biological probe

Fluorescent confocal microscopy probe

Fluorescent equilibrium probes

Fluorescent in situ hybridization probe DNA

Fluorescent probe medium, preparation

Fluorescent probe molecule

Fluorescent probe studies

Fluorescent probe technique

Fluorescent probe, definition

Fluorescent probes DNA labeling with

Fluorescent probes active

Fluorescent probes antibody labeling with

Fluorescent probes energy transfer

Fluorescent probes for small molecules

Fluorescent probes for small molecules probe design

Fluorescent probes hydrazide derivatives

Fluorescent probes in protease studies

Fluorescent probes in proteins and membranes

Fluorescent probes passive

Fluorescent probes photoactivatable

Fluorescent probes polarity-sensitive

Fluorescent probes quenching

Fluorescent probes quenching effects

Fluorescent probes, characteristics

Fluorescent probes, proposed

Fluorescent probes, proposed experiments

Fluorescent probes, to detect

Fluorescent probes, to detect redistribution

Fluorescent probes, use for in situ monitoring

Fluorescent responsive molecular probes

Fluorescent, dye for DNA probe immobilization

Fluorescently labeled probes

Fluorescing molecular probes

Functional Fluorescent Sensors and Probes

High throughput technique fluorescence probes

Indo-1, as fluorescent probe

Intrinsic fluorescence probes

Ion fluorescent probe molecule

Labeling, caged fluorescent probes

Laser-induced fluorescence fluorescent molecular probes

Membrane potential-sensitive fluorescent probes

Membranes fluorescent probes

Metallic nanoparticles signal-amplified fluorescent probing

Microviscosity, fluidity, molecular mobility. Estimation by means of fluorescent probes

Nitric oxide, fluorescent probes

Oligonucleotide probe fluorescent-labeled

Optical imaging with fluorescence probes

PH-sensitive fluorescent probes

Phospholipid vesicles fluorescent probes

Polymerization, bulk, fluorescence probes

Probe Validation by Fluorescence Measurement

Proteins fluorescent probes

Pyrene fluorescent probe, incorporation into

Pyrene use as fluorescent probe for

Reactive oxygen species fluorescent probes

Signal-amplified fluorescent probing

Singlet oxygen fluorescent probes

Solvating probe molecule fluorescence

Solvating probe molecule fluorescence Stokes shift

Spectroscopic probes fluorescence quenching

Surface probing via fluorescence

Tags and Probes Fluorescent Labels

The Need for Development of New Fluorescence Probes

Two-photon fluorescence fluorescent probes

X-ray probes transmission and fluorescence

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