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1 tricular myocytes by using a light-sensitive caged compound.
2 tinuous irradiation of cells loaded with the caged compound.
3 ents and the loading with indicator dyes and caged compounds.
4 gh the photolytic release of substrates from caged compounds.
5 hange and a pulsed laser system for uncaging caged compounds.
6 rategy for spatially localized photolysis of caged compounds.
7 th sufficient sensitivity to 2PE for use in "caged" compounds.
8 m laser light, the glycine released from the caged compound activates glycine-mediated whole-cell cur
9 mooth muscle cells using local photolysis of caged compounds and Ca2+ imaging.
10                The increased availability of caged compounds and of the technologies required to expl
11  patch clamp technique was used to introduce caged compounds and to record the activity of a Ca(2+)-a
12 mit UV light locally, for photoactivation of caged compounds and, in particular, used for photo-contr
13                                              Caged compounds are light-sensitive probes that function
14                                              Caged compounds are molecules rendered functionally iner
15                     Since many nitroaromatic caged compounds are two-photon active at 720 nm, optical
16 or-channels on neurons equilibrated with the caged compound, as detected by whole-cell current record
17                                     Although caged compounds continue to be used primarily for mechan
18 photolysis of many widely used nitroaromatic caged compounds (e.g., 4-carboxymethoxy-5,7-dinitroindol
19 337 or 360 nm light, were performed with the caged compound equilibrated with HEK 293 cells transient
20 oscopy, showing that the 2'-phosphate of the caged compound exhibits an altered chemical shift of -2.
21        To test this hypothesis without using caged compounds, force responses and individual sarcomer
22                                          The caged compound has a major absorption band with a maximu
23                                          The caged compound has a major absorption band with a maximu
24                               Photosensitive caged compounds have enhanced our ability to address the
25 f formation of the photolysis product from a caged compound in the microsecond time scale.
26 zed excitation can be used for photolysis of caged compounds in femtoliter volumes and for diffusion
27 otic response induced by flash photolysis of caged compounds in isolated mast cells and chromaffin ce
28 sue through nonlinear scattering, or release caged compounds in sub-femtoliter volumes.
29 validate that the inhibitory activity of the caged compound is dependent on exposure to light.
30                                Photolysis of caged compounds is a powerful tool for studying subcellu
31 o probe the photolysis mechanism of one such caged compound, namely gamma-(alpha-carboxy-2-nitrobenzy
32                                         Such caged compounds play an important role in transient kine
33 have recently utilized a new ruthenium-based caged compound, ruthenium-bipyridine-triphenylphosphine-
34 ient than photolysis of the most widely used caged compounds (the quantum yield of photolysis is 0.7
35 I describe important examples of widely used caged compounds, their design features and synthesis, as
36                            The catalytically caged compound was synthesized in a two-step process, st
37 ed to striatal cholinergic interneurons, the caged compounds were photolyzed in an chromatically orth
38                                 Such cloaked caged compounds will enable the study of the signaling o
39              We combined local photolysis of caged compounds with fluorescence imaging to visualize m

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