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1                                              pKa values are noticeably different for both amino acids
2 racy of these predictions is approximately 1 pKa unit and allows for a comparison of the acidity betw
3 lated from the two-proton P(+)-Fe(III)(OH2)2 pKa(obs) and the porphyrin oxidation potentials, despite
4 r reactants with higher basic pK(a) > ca. 2 (pKa of conjugate acid).
5 mate of pKa) of 35 and spanning more than 30 pKa units, has been compiled.
6 xation to CB[7] increased the pKa for 4H(+) (pKa = 6.9) and changed its photochemical reactivity.
7 n of A1 toward neutrality by approximately 5 pKa units.
8                                            A pKa of 15.83 +/- 0.11 in acetonitrile was determined.
9          The activation step is enabled by a pKa > 8.6 deprotonation, which is assigned to Mn(II)-bou
10 peratively on two Mn(II) and is enabled by a pKa 7.6 double deprotonation.
11 is demonstrated that this residue exhibits a pKa of 10.5 +/- 0.1 that is insensitive to the presence
12  the protonation event (Hred/HredH(+)) has a pKa approximately 7.2.
13    NMR measurements indicated that D46 has a pKa of 5.6, approximately 2 units above the expected pKa
14                    These nucleophiles have a pKa of >/=50, more than 25 orders of magnitude more basi
15  neutral forms of kyotorphin, resulting in a pKa value that is similar to the one obtained in water.
16 aring with the correlation, this indicated a pKa of about -2 units.
17  Raman spectroscopy tentatively assigns it a pKa of 7.4.
18 ion state of residue D198, which possesses a pKa above 8 and functions as a general acid to initiate
19                       By NMR spectroscopy, a pKa value of 5.1 was determined for a (13) C2-labeled ad
20 l when G40 has an elevated pKa rather than a pKa shifted toward neutrality, although a balance among
21 e pKa of DLNPs, indicating that DLNPs with a pKa close to 6.3 could generally produce more protein in
22                 This species is basic with a pKa of 24.3.2 is competent for concerted proton-electron
23 linear free energy relationship between acid pKa and second-order rate constants is observed for weak
24 are similar or more acidic than acetic acid (pKa = 13.5 (3(1)), 9.5 (3(2)), 7.3 (3(3)) vs 12.6 (HOAc)
25  most acidic (pKa(LAC) -18) to least acidic (pKa(LAC) 50).
26 e and dihydrogen complexes from most acidic (pKa(LAC) -18) to least acidic (pKa(LAC) 50).
27 t that factors other than the Lewis acidity (pKa) of the boronic acid are at play.
28                                In agreement, pKa values for the buried histidines bridging internal A
29 es for biophysical studies, as their altered pKa values, relative to histidine, allow for studies of
30 optimization focused on reducing the amidine pKa while optimizing interactions in the BACE1 active si
31  to observed trends in proton affinities and pKa values of 2,6-diarylanilines.
32 eptors), topological polar surface area, and pKa.
33 do ligand, together with the Sterimol B5 and pKa of HX, representing the X ligand.
34 nd its dependence upon the concentration and pKa of the external Bronsted acid proton source (water,
35 free-energy relationship between log kon and pKa, which provides information on the free-energy lands
36         There are links between pKa(LAC) and pKa(THF), pKa(DCM), pKa(MeCN) for neutral and cationic a
37 ods for calculating reduction potentials and pKa's for molecular electrocatalysts, as well as insight
38 hemical properties including log D, PSA, and pKa.
39 cular mechanical free energy simulations and pKa calculations, as well as experimental measurements o
40 e parameters such as metabolic stability and pKa.
41 s (determined through cyclic voltammetry and pKa measurements) rule out a stepwise mechanism, and kin
42 lated through use of a weak acid (anilinium, pKa = 10.6 in CH3CN) to avert protonation of the singly
43 c, whereas at pH7.4, MAA chains are anionic (pKa approximately 5.2).
44 s as a steep function of pH with an apparent pKa of 7.4.
45  important, ionizable group with an apparent pKa of 7.5, which corresponds to the general base in cat
46 t variation of pH of the medium and apparent pKa values of the ionisable groups of curcuminoids.
47  pH units within the dynamic range (apparent pKa 7.23 +/- 1.0) of the nanosensors.
48                         Second, the apparent pKa for the insertion transition (State I --> State III)
49 alt buffer solutions, a drop of the apparent pKa from 7.6 to 5.6 was observed, whereas intrinsic pKa
50  is coupled to protein folding; the apparent pKa of aspartic acid in the folded protein is 6.4.
51 within the H-cluster increasing the apparent pKa of its one electron reduced state.
52 conformational changes to raise the apparent pKa of protonated nucleobases to values above physiologi
53 or the main changes observed in the apparent pKa.
54 tive and active configurations with apparent pKa values of 5.5-5.8.
55  using the pH(abs)(H(2)O) values and aqueous pKa values than by using the alternative means of expres
56 n free MD simulations and predicted an Arg52 pKa upshift with respect to PYP in solution.
57 of using simple reference equilibria such as pKa values as measures of leaving group ability.
58 e inactivation, could be related to the base pKa by means of a Bronsted relationship.
59 ar compounds and seven weak acids and bases (pKa = 3-5.2) selected from among industrial chemicals an
60 , pH-jump spectrophotometry revealed a basic pKa of 10.0 for the Fe(IV)-O-H of APO-II, indicating tha
61                      There are links between pKa(LAC) and pKa(THF), pKa(DCM), pKa(MeCN) for neutral a
62 hts further explain the relationship between pKa and chloride anion affinity of these receptors that
63 nstrate the influence of acid choice, beyond pKa, on the kinetics of hydride formation.
64 to deprotonate very weakly acidic C-H bonds (pKa > 40), generating carbon-centred nucleophiles that r
65 onated imidazolium state, but its calculated pKa is too low for this to provide the means to create a
66 olecule at particular pH based on calculated pKa values and provides the downloadable file in PQR for
67                     Unconjugated Ch and CDC (pKa values of approximately 5.0) showed pronounced diffe
68 le of Fis1 Glu-78, whose elevated side chain pKa suggests participation in protein interactions.
69 with a perturbed pKa suggest that side chain pKa values inferred from routine NMR sample pH optimizat
70 ors contribute to the rise of the side-chain pKa (> 6) and to reduced polarity around the TM3 C termi
71                     The polycation chitosan (pKa 6.4) has been used to efficiently purify DNA by bind
72 ially open beta-barrel where the chromophore pKa of 6.8 is shifted by over 20 units from that of the
73  bonds (CAHB) with solutes having comparable pKa.
74 , whereas we used the theoretically computed pKa values for the isomerization steps.
75 within the range reported for the conducting pKa value of the His37 tetrad, we believe that this inte
76 ule can productively influence conformation, pKa, intrinsic potency, membrane permeability, metabolic
77  the mcb compounds) provided self-consistent pKa* values.
78 indicate aqueous acid dissociation constant (pKa) values of 1.5 +/- 1 for NH3Cl(+), 0.8 +/- 1 for NH3
79  two resolved proton dissociation constants (pKa's) of 7.1 and 5.4, which differ from the TM result b
80 groups with low acid dissociation constants (pKa) as the main contributors to zeta-potentials and thu
81    These results support a mechanism of D198 pKa elevation through the unexpected sharing of a proton
82 n dA* is flanked by dA, the increased dA(*+) pKa results in DNA damage arising from hole transfer.
83 nks between pKa(LAC) and pKa(THF), pKa(DCM), pKa(MeCN) for neutral and cationic acids.
84                PUFA analogs with a decreased pKa value, to preserve their negative charge at neutral
85                      Computationally derived pKa values, NICS aromaticity calculations, and electrost
86     The selection of calculated descriptors (pKa, EHOMO, and Eox) was based on validation with experi
87 two self-assembling DBS-acids have different pKa values, and as such, their self-assembly is triggere
88                                The different pKa of the pyridine nitrogen in the closed spiropyran (4
89  (95%) was achieved based on their different pKa values.
90 nt cation solvation, resulting in diminished pKa(MeCN) values.
91                                Measured DMSO pKa values for a series of rigid tricyclic adamantane-li
92 with the catalytic activity better than DMSO pKa values and appear to be a better measure of aciditie
93 found to increase with their basicity (i.e., pKa of their conjugated acids, BH(+)), consistent with t
94 H unit), probably due to its wider effective pKa distribution.
95 atalysis is optimal when G40 has an elevated pKa rather than a pKa shifted toward neutrality, althoug
96 termination of the hydricities and estimated pKa's of the Rh(I) hydride complexes using the appropria
97 for BPS and BPAF, which have lower estimated pKa values than those for BPA.
98 .6, approximately 2 units above the expected pKa of aspartate, due to a hydrogen-bond between protona
99              The differences in experimental pKa values between the isomers was found to arise from s
100 2 X, and a direct correlation with the first pKa of H2 X.
101  potential and pH plot occurred at the first pKa of succinic acid (pH 4.2), indicating succinate as t
102           The variability of the abiotic FnY pKa's (6.4 to 7.8) and reduction potentials (-30 to +130
103 ith the decrease in water concentration from pKa values of 3.8 in water to approximately 4.8 in water
104  spanning a wide range of base strength from pKa 9.64 to 5.24.
105 e-associated glycine-conjugated GC and GCDC (pKa values of approximately 3.9), no differences in the
106 hways gradually reduces as the leaving group pKa increases and creates mechanistic ambiguity for reac
107 plore the effect of modulating leaving group pKa on the competition between solvent- and substrate-as
108 turing gel electrophoresis and surface group pKa measurement.
109             Since prediction of buried group pKas is computationally intensive, solvent accessibility
110 NMR spectra allow the extraction of four H37 pKas and show that the pKas are more clustered in the mu
111                Amino-acid residues with high pKa are seldom considered as active transport elements i
112 ts are able to activate substrates with high pKa values, but background reactions are often unavoidab
113 m concentrations in case of thiols with high pKa values.
114 ccess to experimentally supported very high (pKa > 40) basicities in acetonitrile, which cannot be di
115                       This suggests how high-pKa residues within a proton wire can act as a 'tunnel d
116 amino ozonides, consistent with their higher pKa and lower log D7.4 values.
117                     We attribute this higher pKa to direct and indirect effects of the cytoplasmic do
118 hat the His-27 tetrad protonates with higher pKa values than His-19, indicating that the solvent-acce
119   Surprisingly the yield went down at higher pKas.
120  We show that it is 9.14, one of the highest pKa values ever reported for this amino group, providing
121                            The average His37 pKa is higher for M2(21-97) than for the shorter constru
122 reduction substantially increases the His378 pKa Consistent with coupling between ASQ formation and H
123 H2(+) + X(-)) and allows very weak acids HX (pKa >/= 7.0) that cannot normally be detected by SCAC to
124 discussed a role for an elevated compound II pKa in diminishing the compound I reduction potential.
125 n selectivity through differential change in pKa of the peptides.
126 tronger acids, however, further increases in pKa do not correlate to increases in rate constants.
127 ximum (lambdamax) at pHs above the indicator pKa (the negative logarithm of the acid dissociation con
128 act angle titrations demonstrate interfacial pKa shifts for the lipid phosphate but not for the amine
129 tainty regarding the densities and intrinsic pKa values of edge functional groups.
130 oblem in light of new knowledge on intrinsic pKa values obtained over the past decade using ab initio
131 m 7.6 to 5.6 was observed, whereas intrinsic pKa modeled with surface pH calculated from Gouy-Chapman
132 -tRNA cleavage revealed a single ionization (pKa approximately 8.7) important for catalysis, consiste
133 al microenvironment around D97 to affect its pKa, as corroborated with observations of changes in pro
134 r residues in the moiety would influence its pKa, but how the surrounding environment in which the TM
135 Tyr(71) , which should potentially lower its pKa.
136 in a specific binding pocket that raises its pKa toward neutrality, juxtaposes its N3 with the O5' to
137 elationship was discovered between the known pKa's of strong acids and the computed numbers of micros
138         This event is accompanied by a large pKa change of the imine similar to the pKa changes obser
139  on known analyte properties (lipophilicity, pKa, and polar surface area) using one preliminary exper
140 differed with regard to their lipophilicity, pKa values, and the size of their hydrophilic moiety.
141 quilibration of CO2 with carbonic acid-a low pKa acid.
142                    Due to its relatively low pKa value, N-Cl-DCAM tends to deprotonate under typical
143 NPs that contained ionizable lipids with low pKa and unsaturated hydrocarbon chains showed the highes
144      The strong influence of thiols with low pKa values emphasizes the relevance of the protonation s
145  revealed that Lys79 has an abnormally lower pKa compared with other Lys residues, implying that the
146  larger acid-dissociation constants or lower pKa's.
147 tallography revealed a significantly lowered pKa of Tyr7 and how pH and Tyr proximity to Zn affect hy
148 tant (k(2)) increased at pH above the lowest pKa value of naringenin, indicating deprotonated naringe
149   We showed that NAC and acetic acid at pH < pKa can penetrate the matrix and eventually kill 100% of
150 bound Mg(2+)(H2O)5 complex lowers the lysine pKa and engages the NAD(+) alpha phosphate, but the beta
151              Spectrophotometrically measured pKa values are in excellent agreement with calculated va
152                                 The measured pKa was determined to be 23.8, in good agreement with th
153 nvironment causes a shift of the microscopic pKa at the N3 position of A1 toward neutrality by approx
154                              The microscopic pKa values of titratable residues in BACE-1 including it
155                                        A new pKa prediction web server is released, which implements
156 ulfoglucosamine is explored through (1)H NMR pKa measurements but is not supported by the experimenta
157          The use of stabilized nucleophiles (pKa < 25, where Ka is the acid dissociation constant) in
158 RNA and DNA, which extends the capability of pKa calculations beyond proteins.
159                    Conversely, the effect of pKa on the rate of dark recovery is markedly reduced in
160 ases in THF, reaching a pKalpha (estimate of pKa) of 35 and spanning more than 30 pKa units, has been
161                                Estimation of pKa values of the acidic residues in the transport sites
162             A combination of measurements of pKa values, structural analyses of 2,6-diarylanilinium c
163 structures vary smoothly across the range of pKas studied and that the pathways remain discrete mecha
164 ervation indicated that Tyr7 has a perturbed pKa compared with free tyrosine.
165 ained by mutating a residue with a perturbed pKa suggest that side chain pKa values inferred from rou
166  are present in sufficient proportions (pH = pKa +/- 1.6): (i) self-/autocatalysis and (ii) sequentia
167 one to assess the ionized form of phenytoin (pKa~8.2) that corresponds to a negatively monocharged io
168 in the presence of a base, and the potential-pKa method considers stepwise transfer of a proton and t
169 , probing their 1 e(-) reduction potentials, pKa values, and 2 e(-)/2 H(+) reduction potentials.
170 MMS simulations with implicit sites produced pKas of all 9 ionizable groups and the results agree qua
171        In combination with pH-rate profiles, pKa and DeltaS() values, kinetic isotope effects ((2)H,
172                                      Protein pKa calculations of the transport site residues and stru
173                         We performed protein pKa calculations and molecular dynamics (MD) simulations
174 c method for the deuteration of pseudoacids (pKa,DMSO = 14-19) with chloroform-d1.
175 ing to an enhanced basicity of the pyridine (pKa* approximately 12) and enhanced acidity of pyrrole (
176 imately 12) and enhanced acidity of pyrrole (pKa* approximately 8-9) enabling excited-state proton tr
177 I values based on the sum of protein residue pKa values.
178                                   Reversible pKa values in the range of 4-6.3 have been measured for
179 hat causes the large deviation in lysine66's pKa.
180                   "(DMA)C" exhibits the same pKa and base pairing characteristics as native cytosine
181 with different steric profiles, but the same pKa.
182 , from which the user can iteratively select pKa calculation centers.
183           In nanospheres, this pH-sensitive (pKa = 7.3), photochemically stable dye fluoresces in the
184 PrP/RaPrP, exhibited a markedly down shifted pKa 5 for both proteins.
185 purpose [Hammett sigma constants (sigma(-)), pKas of the amines, and energies of the highest occupied
186 afluorophenylboronic acids but has a similar pKa.
187 ith a series of carboxylate bases of similar pKa but varying size.
188 ructed showing metal acids above the solvent pKa scales and organic acids below to summarize a large
189 roxide complex transitions to a new species (pKa = 13.1) with Mossbauer parameters that are indicativ
190                             Residue-specific pKa values of D31, D33, D25, and D14 were determined to
191  mcb compounds had very similar ground state pKa's of 2.31 +/- 0.07, and their characterization enabl
192 ity of these compounds in the excited state (pKa* < 0).
193                                   Subsequent pKa studies demonstrated a remarkable electronic effect
194  contributed to suppression of the substrate pKa The same residues were critical for enzymatic cataly
195 c C-H bonds of ketone and alkyne substrates (pKa from 18.7 to 28.8) was found at room temperature.
196 y self-sorted nanostructures based on subtle pKa differences, whereas HCl addition leads to a rapid f
197                          The results suggest pKa values of less than 3 for His(12) and about 3-5 for
198                                      Surface pKa prediction based on bond valence analysis suggests t
199 t hydrophilicity and hydrophobicity, surface pKa of the sorbent, and chemical structure of the parent
200 s triggers due to their approximate textbook pKa value of 6.1 for their side chains.
201                                          The pKa determined for RA was 4.31.
202                                          The pKa for the protonation of the pyridine nitrogen in 2-4
203                                          The pKa of amine conjugate acid and electronics of alcohol w
204                                          The pKa of D97 was compared between PR reconstituted in lipo
205                                          The pKa of His-305 is raised to 9.0, indicating the salt bri
206                                          The pKa of histidines in these domains are determined from t
207                                          The pKa of lysine side chains is around 10.5 and hence E3 li
208                                          The pKa of the nucleophilic cysteine, as well as the redox a
209                                          The pKa values calculated for acids that have bulky or large
210                                          The pKa values determined in acetonitrile range from 9.3 to
211                                          The pKa values of His residues in the studied oligopeptides
212 low and N atom oxidation processes above the pKa value of the substituted aniline's conjugate acid.
213                            Additionally, the pKa of KP1212 was measured to be 7.0, meaning a substant
214 ronment in which the TMP resides affects the pKa of these residues is unclear.
215 ard neutrality, although a balance among the pKa's of A-1, G40, and the nonbridging oxygen is essenti
216  form of the imidazole compounds (B) and the pKa of their conjugated acids (BH(+)).
217 e H-bonding properties of the anions and the pKa values of the conjugate acids.
218                                       As the pKa of ionizable residues depends on their environment,
219 a-1H-pyrrolo[3,2-b]pyridine increased as the pKa of the amine buffer decreased.
220 vated Ascaris eggs when the pH was below the pKa for the acids, causing them to exist primarily in th
221                              Tuning both the pKa and steric properties of an acid-additive is critica
222 ugar on either side of the membrane, but the pKa (the affinity for H(+)) decreases markedly.
223 threshold for protonation, determined by the pKa of the lipid head groups.
224 ynamic standard potential as dictated by the pKa of the proton donor.
225                Ligand binding can change the pKa of protein residues and influence enzyme catalysis.
226 LHCII sensitivity to DeltapH by changing the pKa values of interacting LHCII residues.
227                             In contrast, the pKa of N-terminal alpha-amino groups of proteins can var
228 udy we use NMR spectroscopy to determine the pKa for the N-terminal alpha-amino group of methionine1
229  independently varied by changing either the pKa of the base or the reduction potential (E degrees )
230 g the electronic mechanism, we estimated the pKa of surface-bound carboxylic groups and the relative
231                    Finally, we evaluated the pKa of the substrate N5 position in closed and disordere
232  predictions found an opposite trend for the pKa change, suggesting that surface pH does not account
233                       This difference in the pKa of D97 observed from PR reconstituted in oppositely
234  as reflected in a prominent decrease in the pKa of the primary proton acceptor residue (D97) and slo
235    However, reduction of 3.5 pH units in the pKa of Y21 increases the rate of dark state recovery by
236 reviously been attributed to a change in the pKa value of surface immobilized groups from that of sol
237  partially offset by opposite changes in the pKa, leading to modest differences in BDE among the thre
238        His-143 and His-189 also increase the pKa of the pyridine nitrogen but, more significantly, in
239          Complexation to CB[7] increased the pKa for 4H(+) (pKa = 6.9) and changed its photochemical
240 led to the pyridinyl nitrogen, increases the pKa of the pyridine nitrogen and stabilizes the pyridini
241 e different upon changing, for instance, the pKa of the acid HA versus the concentration or partial p
242                      At pH 2.0, which is the pKa of the gum Arabic, the dissociation of precipitate o
243 red for proofreading; one helps to lower the pKa of the attacking water molecule, and the other helps
244       Its catalytic function is to lower the pKa of the hydroxyl group, making it a highly effective
245 p by Ca(2+) in the active site, lowering the pKa of the 3'-OH group.
246  rate of enzyme inactivation by lowering the pKa of their alpha-protons.
247               The catalytic metal lowers the pKa of O3' of the growing primer terminus, and the nucle
248 lytic" metal coordination complex lowers the pKa of the lysine nucleophile and stabilizes the transit
249 Mg(2+)(H2O)5 coordination complex lowers the pKa of the lysine nucleophile and stabilizes the transit
250  network in human serine racemase lowers the pKa of the Ser(84)re-face base.
251          In this manuscript, we measured the pKa values of histidines within the propeptides of furin
252 yrosine (F-Tyr) analogues that modulated the pKa and reduction potential of Y21 by 3.5 pH units and 2
253 have developed an approach that monitors the pKa variations of ionizable residues over the course of
254                            Comparison of the pKa values of 3-fluoro- and 3,3-difluoro-GABA with that
255                            Estimation of the pKa values of all the ionizable groups in GLP-1 suggest
256 tivity for Na(+) Theoretical analysis of the pKa values of ion-coordinating acidic amino acid residue
257  the pH and ionic strength of the BGE on the pKa and actual mobility of each constituent in the syste
258 (P113S) appear to result from optimizing the pKa of Tyr-111, which acts as the catalytic acid during
259 chemical methods are employed to predict the pKa's of several families of dual hydrogen-bonding organ
260                         To further probe the pKa of this residue, NMR spectroscopic measurements of [
261 e ternary redox switch enables us to set the pKa to three different values, encompassing more than se
262 ly produced oxidants or through shifting the pKa values of His residues.
263                             We show that the pKa of an ammonium site located on the axle component of
264                        We also find that the pKa of the catalytic His substantially increases in CmpI
265             Finally, we demonstrate that the pKa of the conserved histidine in proprotein convertase
266                 Further, we predict that the pKa of the water molecule bridging two Mg cations is aro
267 large pKa change of the imine similar to the pKa changes observed in bacteriorhodopsin and visual ops
268 ich is significantly shifted compared to the pKa of the same adenine in the substrate alone.
269  externally accessible factors that tune the pKa of its embedded charged residue, specifically its pr
270 ssisted by a bridging Na+ ion that tunes the pKa and facilitates in-line fitness.
271 xternally controllable factors in tuning the pKa of TMP-embedded charged residues is important for bi
272                                     When the pKa of the ammonium group is lower than that of the phen
273  expression in the liver correlated with the pKa of DLNPs, indicating that DLNPs with a pKa close to
274 e of 3 ionizable residues, we calculated the pKas of those residues both with all explicit states and
275 xtraction of four H37 pKas and show that the pKas are more clustered in the mutant channel compared t
276 lectronic features, were prepared, and their pKa values were determined using the bracketing indicato
277 O) values is possible if the change of their pKa values with solvent composition change is taken into
278 s indicate that the amine groups shift their pKa values due to the confined environment upon adsorpti
279                             Given that their pKa's generally lie between those of typical hydrogen bo
280 n(3+) -bound water protons even though their pKa 's are much higher than the observed CEST or T2ex ef
281 ere are links between pKa(LAC) and pKa(THF), pKa(DCM), pKa(MeCN) for neutral and cationic acids.
282                                        Thiol pKa values are key indicators of thiol reactivity and fu
283 ation between intrinsic reactivity and thiol pKa, and the absence of deuterium solvent kinetic isotop
284 d therefore have broad application for thiol pKa determinations and verification.
285 hat enables reliable quantification of thiol pKa values for both mono- and dithiols in water.
286 or the first time the first and second thiol pKa values for 1,2-benzenedithiol in water.
287                                    The thiol pKa values and Raman activity relative to its internal r
288 rmined by UV-vis and fluorescence titration (pKa = 5.5 for 4).
289 n the crossover frequencies corresponding to pKa differences in the phenylboronic acid derivatives di
290 on enabled accurate determination of the two pKa values for the commonly utilized dcb ligand, pKa1 =
291 relation with hydrophobicity (log P values), pKa, and the inverse calculated surface tension was sign
292 induced desorption mechanism associated with pKa of the functionalized ligand as responsible for the
293 en fiber and water of anionic compounds with pKa approximately 5 (i.e., alkyl carboxylates) was domin
294 S-nitrosylation show little correlation with pKa values predicted from structures, although flanking
295 ized S = 9/2 forms as a function of pH, with pKa values in the range 8.3-9.0, because of protonation
296                     Anionic surfactants with pKa </= 2 (i.e., alkyl sulfates and alkyl sulfonates) sh
297 hotoreaction was observed, the change in Y21 pKa led to a 4000-fold increase in the rate of dark-stat
298 e, we directly explore the effect of the Y21 pKa on dark state recovery by replacing Y21 with fluorot
299              In particular, a decrease in Y8 pKa by 2 or more pH units prevents formation of a stable
300 rast to AppABLUF, modulation in the Tyr (Y8) pKa has a profound impact on the forward photoreaction.

 
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