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1  NH(2)C(O)P, which was generated through the photolytic (193 nm) dehydrogenation of phosphinecarboxam
2 ion to the N-acylhydrazones under thermal or photolytic (300 nm) conditions.
3 terface of the recording chamber after their photolytic activation in a diffraction-limited volume.
4                     On the other hand, under photolytic activation, the reaction with 1,5-cyclooctadi
5 ium sulfate with methylglyoxal changes under photolytic aging by UVA radiation in the aqueous phase.
6                                              Photolytic aging induced significant changes in the ligh
7                                              Photolytic and biological events were distinguished by c
8 (i)Pr)]}(2)(mu-eta(1):eta(1)-N(2)) (9) under photolytic and dark conditions, respectively, to produce
9 Exploiting this synergy and orthogonality of photolytic and hydrolytic degradation, we designed conce
10  system interacting with the c-helix enabled photolytic and metabolic stability improvements.
11 f dediazoniation in the IL (both thermal and photolytic) and the evolution of the products were direc
12 n IP3 receptor antagonist, and reproduced by photolytic application of IP3.
13  the Marcus inverted region for a variety of photolytic applications.
14 e explored further for the identification of photolytic aromatic dechlorination reactions.
15                               Interestingly, photolytic back-transformation to SMX was observed for 4
16                  By reducing the size of the photolytic beam, glutamate was released at several diffe
17                We describe the synthesis and photolytic behavior of cobalamin conjugates comprised of
18 for photolysis, DECM-caged glutamate and its photolytic byproducts were found to be biologically iner
19  a convenient cyclobutadiene precursor and a photolytic C-H carboxylation reaction, respectively.
20                  Neurons undergoing targeted photolytic cell death degenerate by apoptosis.
21 the O3 + hnu --> O((3)P) + O2(X(3)Sigmag(-)) photolytic channel at the interface, leads to an enhance
22                                   The pulsed photolytic chlorine-initiated oxidation of methyl-tert-b
23 uent polysulfur abundances comparable to the photolytic cis-OSSO mechanism through a more plausible p
24 e extent of isotope fractionation during SMX photolytic cleavage is pH-dependent.
25                                    This easy photolytic cleavage makes the NHC-boryl sulfides good ty
26 n advanced oxidation process which relies on photolytic cleavage of free available chlorine (i.e., hy
27                                           In photolytic cleavage those forces act through control of
28 lytic cycle with thiophenol (PhSH) by way of photolytic cleaveage of the disulfide bond.
29  borylene that can be liberated by selective photolytic CO extrusion and that, although highly reacti
30 d structurally stable across all hydrous and photolytic conditions investigated in this study.
31 ue decomposed to inactive products under the photolytic conditions of the catalysis.
32 ith C60 in toluene solution under thermal or photolytic conditions produces C60{eta(1)-Ru(CO)2(eta(5)
33                                 Third, under photolytic conditions with hexamethylditin, primary radi
34                                Under similar photolytic conditions, H/D exchange reactions between D2
35 xygen trapping products did not change under photolytic conditions, where dediazoniation occurs at ro
36 alogen atom transfer agents under thermal or photolytic conditions.
37 ion was achieved under both the tin-free and photolytic conditions; in this case, the adduct bears al
38 e-dependent paired-pulse facilitation of the photolytic currents, indicating that a change in the sub
39               Acetylenes undergo thermal and photolytic cycloaddition/1,5-sigmatropic rearrangement r
40 ally mimicking the effect of locomotion, and photolytic damage of VIP neurons abolished the enhanceme
41                                              Photolytic decarbonylation of 1 results in the incorpora
42            In this work, we investigated the photolytic dechlorination of 2-Cl- and 3-Cl-aniline to a
43 r current and previous work illustrates that photolytic dechlorinations of 2-Cl-, 3-Cl-, and 4-Cl-ani
44 h a yield of ca. 30-35% after correction for photolytic decomposition of 3b.
45 In addition, product studies confirmed clean photolytic decomposition to the expected alcohol, 2-hydr
46 oduct ArF is also formed in both thermal and photolytic dediazoniation, depending on the substituent(
47  These syntheses also feature stereospecific photolytic deformylation of beta,gamma-unsaturated aldeh
48                                      Because photolytic degeneration simulates some mechanisms underl
49                                              Photolytic degradation half-lives of TDBDPB ranged from
50 cabromodiphenyl ether (BDE-209), that formed photolytic degradation products in tetrahydrofuran (THF)
51 , which may be linked to a TDBDPB source via photolytic degradation to more bioavailable and persiste
52 osing iPPO to UVA light (365 nm) resulted in photolytic degradation.
53 o wind-assisted transport and fracturing via photolytic degradation.
54 tive depolymerization of gels produced under photolytic deliganding of CO hemoglobin S.
55                                              Photolytic delivery of nitric oxide and nitroxide has su
56 ch utilized a microphotochemical reactor for photolytic denitrosation.
57 '-OH group by a thioacetyl unit, followed by photolytic deoxygenation or radical-based 2'-deoxygenati
58 the methane abundance was maintained against photolytic depletion throughout Titan's history, either
59 in the form of cyanuric acid, preventing the photolytic destruction of residual chlorine by sunlight.
60 n isotopic fractionation mechanism, based on photolytic destruction, to explain the 15N/14N and 18O/1
61 involve vinylcarbene intermediates formed by photolytic dinitrogen extrusion.
62             Here, we show that the selective photolytic disruption of auditory cortical commissural c
63 bles a single Cr catalyst to facilitate both photolytic dissociation and aldehyde addition.
64                                        After photolytic dissociation of CO, the majority, but not all
65 ficance of HOON as a key intermediate in the photolytic dissociation-association cycle of HONO at low
66 denine dinucleotide phosphate induced by the photolytic event.
67 e) have been investigated by thermolytic and photolytic experiments to investigate the chemical react
68          The same ratios were reproduced via photolytic experiments, which suggested that the condens
69 d to solutions with SRN, indicating that the photolytic fate of select antibiotics varies for agricul
70                      This study examined the photolytic fate of the chlortetracycline (CTC), ciproflo
71          Finally, the ability to analyze the photolytic fate of trace chemicals at natural abundance
72 ng carbons on the PAH framework, followed by photolytic formation and ejection of H(2).
73 ansition-metal-carbene chemistry, catalysis, photolytic formation of carbohydrates, and possibly even
74 nance (EPR) spectroscopy to characterize the photolytic formation of ROS in aqueous extracts of SOA f
75 we propose an alternative SMB proxy based on photolytic fractionation of nitrogen isotopes in nitrate
76              Under MALDI conditions, partial photolytic fragmentation of the MBB-peptide bound occurr
77 haracterized as the radical 5b, based on its photolytic generation in the less polar CH(3)CN and on i
78             The principle of the strategy is photolytic generation of nitrogen ylides from N-heteroar
79 the appearance of vinylcyclopropyl following photolytic generation of pentadienyl is more likely the
80                                              Photolytic H(+) uncaging from 2-nitrobenzaldehyde also r
81 le protocols are far behind the conventional photolytic halogenation process which uses hazardous hal
82 with a turnover number (TON) of 266 300, and photolytic HER for two days with a TON of 15 000 in pH 7
83 th a tetrapyridylamine ligand that catalyzes photolytic HER with turnover number up to 218 000 in pur
84               Neither N2 fixation nor direct photolytic hydrogenogenesis was significant to this H2 e
85 adiance, enhancing both oxidative and direct photolytic inhibition mechanisms.
86 dary C(sp(3) )-H bonds, by either thermal or photolytic initiation, is supported by NMR and UV/Vis da
87 3- completely suppresses the yield of 3b The photolytic intermediate is identified as the aryloxenium
88                                        Prior photolytic labeling with agonist analogues of the neighb
89 -metal carbonyl complexes is demonstrated by photolytic liberation of CO and subsequent intramolecula
90                                          The photolytic lifetime of IMD at a solar zenith angle of 35
91                                              Photolytic ligand displacement and salt metathesis route
92                       This strategy, using a photolytic ligation auxiliary and a desulphurization rea
93                                          The photolytic link between O3 and N2O is identified as the
94 ned experimental and modeling approach, that photolytic loss of SOA mass significantly alters SOA bud
95 nts of SOA photolysis, which limits how well photolytic losses can be modeled.
96 vity of predicted SOA mass concentrations to photolytic losses.
97                                          The photolytic mechanism described here is based on electron
98 5]- and [5.6.6.5]tetracyclic systems via the photolytic method of Livinghouse.
99                          We have developed a photolytic method to determine the concentration of reac
100 ubility of the assembly was measured using a photolytic micromethod over a temperature range of 17-31
101 gth single photon method for a wide array of photolytic molecules via triplet-triplet annihilation ph
102 light partners (the photosensitizers and the photolytic molecules) can be energetically matched to ad
103 shes this strategy as the foundation for the photolytic multicomponent reaction.
104  and the trans,trans-isomer is also inert to photolytic N(2) cleavage.
105 uctive formation of a bridging N(2) complex, photolytic N(2) splitting, and proton-coupled electron t
106                Key steps include a 'one-pot' photolytic N-N bond cleavage of a Group 6 dinuclear dini
107 r environments, thus, limiting the extent of photolytic OH sources.
108  transporter currents (GTCs) were induced by photolytic or synaptic glutamate release and isolated ph
109 d cis-fused gamma-lactones efficiently under photolytic or thermolytic conditions.
110 ibuted significantly to improve electro- and photolytic organic transformations in terms of energy ef
111 ent, the possibility of OH formation through photolytic pathways indoors has been ignored up to now.
112                         Thermo-oxidative and photolytic pathways represent the most relevant degradat
113 ed BPs can be used as markers to distinguish photolytic PBDE transformation products from naturally p
114     However, under comparable conditions, no photolytic pH(2)/oH(2) interconversion was observed for
115 ne of the reasons why the quantum yields for photolytic polymer degradation (and long-chain molecules
116 spectrometry measurements confirmed that the photolytic process did not produce dye radicals.
117 trum and calculate the rate constant for the photolytic process HNO(3) + hnu -> NO(2) + OH, leading t
118 trum and calculate the rate constant for the photolytic process HNO(3) + hv NO(2) + OH, leading to 2
119 The C10-C11 trans-alkene was isomerized by a photolytic process; control experiments suggest that thi
120 most suitable model to explore environmental photolytic processes in situ.
121                               However, these photolytic processes remain poorly constrained.
122 (2)O(2) presence indicates active radiolytic/photolytic processing of the water ice-rich surface by s
123 material escaping from Pluto, as well as the photolytic processing of this material into more complex
124 at it is possible to adjust and modulate the photolytic product distribution by varying the parameter
125  concentrations, with desulfinyl fipronil (a photolytic product) contributing about 25%.
126 can therefore serve as a stable reactant for photolytic production of [5,6]-C(60)O.
127                    Ca2+ release triggered by photolytic production of cADPr was initially slow, with
128 ccelerating growth may result from increased photolytic production of condensable organic species in
129 that Fe(III)-binding ligands can enhance the photolytic production of reactive iron species in the eu
130 lausible mechanism of formation of different photolytic products is suggested.
131 ng gulls are exposed (e.g., via the diet) to photolytic products of TeDB-DiPhOBz, OH-PB-DiPhOBz and o
132                            Pairs of short 2P photolytic pulses (1 ms, 810 nm) were applied with diffe
133  external stimuli such as chemical, thermal, photolytic, radiolytic, electronic, and mechanical facto
134 d visible light spectroscopic signatures and photolytic rate constant in the troposphere.
135 kcal/mol) and, as a result, the (laser flash photolytic) rate constants for fragmentation were essent
136 ds and the formation of the O-O bond in this photolytic reaction involve low-energy triplet states an
137 e major component (approximately 86%) of the photolytic reaction is 45 microseconds, while that of th
138               Legrand et al. reported on the photolytic reaction of an alpha-pyrone confined in a cry
139 ions, cloud formation, and heterogeneous and photolytic reaction rates, with potentially important im
140                      Product analysis of the photolytic reaction showed clean conversion of NPE-caged
141 by 71% within 50 ms of the initiation of the photolytic reaction when the concentration of released D
142           Preparation and varied thermal and photolytic reactions of 2-diazo-5,6-(disubstituted)acena
143               Over the past two decades, the photolytic reactions of dibenzyl ketones sorbed on zeoli
144 -bi-1,2,3-triazolyl) undergoes unprecedented photolytic reactivity to liberate free btz (Phi363 appro
145                                    Recently, photolytic reductive elimination (re) of the E(4)(4H) hy
146 age and release based on a unique example of photolytic reductive elimination of the tetrahedral P(4)
147  photolysis of Plutonian methane generates a photolytic refractory distribution on Charon that increa
148                   In cerebellar slices rapid photolytic release (t (1/2) < 0.7 ms) of 7--70 microM L-
149  of the probe angle change and tension after photolytic release [Ca2+] by laser photolysis of NP-EGTA
150                      In control experiments, photolytic release from photolabile precursors of carbam
151                              The response to photolytic release of ADP showed that the rate of NADH d
152 ned at 0.09 ML s-1 immediately following the photolytic release of ATP and at 0.04 ML s-1 prior to th
153 ontractions were elicited at 12 degrees C by photolytic release of ATP from the P3 -1-(2-nitrophenyl)
154 rse of isometric force development following photolytic release of ATP in the presence of Ca(2+) was
155 bserved during brief activations elicited by photolytic release of ATP.
156 ured on activation from the relaxed state by photolytic release of Ca2+ from a caged Ca2+ compound, n
157 ulture, including puffer pipet spritzing and photolytic release of caged effectors, each is limited i
158      We used electrophysiological recording, photolytic release of caged glutamate and a newly develo
159  and Cl(-) currents following the controlled photolytic release of caged-InsP(3) or caged-Ca(2+).
160                                              Photolytic release of free alanine results in the genera
161                                          The photolytic release of free kainate from the caged kainat
162 ors of glutamate clearance after synaptic or photolytic release of glutamate in striatal slices.
163  current evoked by uncaging Ca(2+) or by the photolytic release of higher concentrations of InsP(3).
164                                              Photolytic release of InsP(3) elicited a transient outwa
165 the role of InsP3 in the induction of LTD by photolytic release of InsP3 from its biologically inacti
166                                              Photolytic release of IP(3) elicited a transient Ca(2+)
167 trypanosomes or isolated acidocalcisomes and photolytic release of IP(3) in intact trypanosomes loade
168 rlying the sEPSP was investigated with rapid photolytic release of L-glutamate from nitroindolinyl (N
169 ooth muscle, but rigor force decreased after photolytic release of Mg(2+) in the presence of ADP.
170                                              Photolytic release of MgADP (25-300 microM) from caged A
171 s, in the microsecond time scale through the photolytic release of substrates from caged compounds.
172                                          The photolytic release of substrates from caged substrates h
173                   Current decay initiated by photolytic release of the D2 antagonist sulpiride from C
174  was invariably induced, even with low-level photolytic release of threshold amounts of InsP(3).
175 mixed-valence CO complex with (18)O(2) after photolytic removal of CO.
176 etic toolkit of MOFs, we report a controlled photolytic removal of linkers to create mesopores within
177                              Potentiation of photolytic responses developed rapidly in a stepwise man
178                                          The photolytic ROS formation serves as the driving force for
179        Also, neither this caged urea nor its photolytic side products inhibit hydrolysis of free urea
180            The catalyst, operating through a photolytic single-electron transfer, was utilized for ph
181 on resonance mass spectrometry of N(2)/CH(4) photolytic solid products at 60 and 82.5 nm indicates th
182 s acid (HONO), a species known to be a major photolytic source of the highly reactive hydroxyl radica
183 of unexpected acyl intermediates of variable photolytic stability.
184 cordingly, the rate limitation in the second photolytic step originates from a slow calcium-induced d
185 2 Mn atoms are involved in the rate-limiting photolytic step under steady-state conditions.
186                        (4) Prior to the next photolytic step, one Ca2+ ion must bind at its effector
187             Responses to strong synaptic and photolytic stimulation were selectively prolonged by sma
188          Time-resolved infrared (TRIR) flash photolytic techniques have been employed to initiate and
189               Steady-state and time-resolved photolytic techniques show that an efficient transductio
190                                          The photolytic transformation of decabromodiphenyl ethane-a
191  oil biodegradation, but in the photic zone, photolytic transformation of PACs may play an important
192                  Applying LC/MS/MS, multiple photolytic transformation products of IPAs were observed
193                                              Photolytic uncaging and release of free glutamate occur
194 , we addressed this question by applying the photolytic uncaging approach to induce focal increases i
195                                    Localized photolytic uncaging of Ca(2+) from o-nitrophenyl-EGTA in
196                                              Photolytic uncaging of p-hydroxyphenacyl (pHP) GABA demo
197 -activation of presynaptic GABA receptors by photolytic uncaging of RuBi-GABA has a biphasic effect o
198 ination of patch clamp electrophysiology and photolytic uncaging of RuBi-GABA we show that GABA(B) re
199 m using whole-cell patch-clamp recording and photolytic uncaging of RuBi-GABA.
200 2)) and ozone (O(3)) suggest that unmeasured photolytic VOCs were emitted during cooking events.

 
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