ライフサイエンスコーパス: chemical shift of

1 -j, a highly shielded signal with an average chemical shift of 0.05 ppm was observed.

2 values correlate well with the alpha-carbon chemical shift of 1, but polarity measures such as E(N)(

3 The (13)C NMR chemical shifts of 1 and 2 were calculated by the GIAO-C

4 t is frequently discussed in connection with chemical shifts of (1)H nuclear magnetic resonance spect

5 by continuous changes in the (15)N and/or NH chemical shifts of 12 residues, revealed fast exchange,

6 Here we exploit the solubility and chemical shift of (129)Xe, the magnetic resonance signal

7 The (13)C chemical shifts of (13)C, (15)N-labeled residues in the

8 Measured at 2 degrees C in water, NMR chemical shifts of (13)C=O labeled central alanine resid

9 Mutation of Lys 153 to Met results in a 13C chemical shift of 150.8 ppm, which is 0.9 ppm downfield

10 ured by the nuclear magnetic resonance (NMR) chemical shifts of 158 protons.

11 The NMR chemical shifts of 15N-labeled histidine show that His21

12 The NMR chemical shifts of 15N-labeled tryptophan are consistent

13 A downfield chemical shift of 19.45 ppm (Deltadelta(H) = 7.43 ppm) o

14 and BHandHLYP/6-311+G(d,p) computed (1)H NMR chemical shifts of 1a and three other low-lying isomers

15 forward mode, SPARIA is used to predict the chemical shifts of 1H and 13C on aromatic moieties conta

16 isolated molecule to plane changes in the 1H chemical shift of 2.0 and 2.2 ppm are determined for the

17 Upfield chemical shifts of 2.4 ppm for T16 N3H, 1.1 ppm for T17

18 te of the caged compound exhibits an altered chemical shift of -2.6 ppm as compared with 2.3 ppm dete

19 Phosphate-dependent changes in the chemical shifts of 22 amide groups were observed in (1)H

20 we resolved and assigned the (13)C and (15)N chemical shifts of 29 residues of the TM domain, which y

21 We show that the chemical shifts of 4- and 3-trifluoromethylbenzoate and

22 The calculated (13)C NMR chemical shifts of 5 agree rather well with the experime

23 utT induces changes in backbone (15)N and NH chemical shifts of 62 residues widely distributed throug

24 Changes in the chemical shifts of (7)Li NMR signals as functions of [Li

25 that the lowest predicted (13)C and/or (1)H chemical shift of a heterocycle correlates qualitatively

26 m for a hydrogen is known to perturb the NMR chemical shift of a neighboring hydrogen atom.

27 t is shown that the difference in the 1H NMR chemical shift of a protic hydrogen in DMSO and CDCl3 so

28 s at 15.9 ppm, an unusually large N-H proton chemical shift, of a magnitude previously observed only

29 lts in small changes in the amide 1H and 15N chemical shifts of a few residues from helices B and C,

30 at of the wild type, although changes in the chemical shifts of a number of resonances indicate local

31 nances from much of helix 4 vanish while the chemical shifts of a possibly nascent helical segment im

32 proposed to account for decreased downfield chemical shifts of a proton bound by noncovalent interac

33 This protocol can calculate the NMR chemical shifts of a set of molecules using any availabl

34 ouplet (due to the two Trp residues) and the chemical shifts of a Trp Hepsilon3 site (shifted upfield

35 Only the (15)N chemical shift of A280 (the first residue of SP1) change

36 ssibility to base-catalyzed exchange nor the chemical shifts of active site residues are affected by

37 Additionally, we observed no change in the chemical shift of AFCA-encapsulated (129)Xe after beta-C

38 related with the N epsilon(2) and N delta(1) chemical shifts of all 13 surface histidines per alpha b

39 The chemical shifts of all of the Arg Nepsilon resonances in

40 The Nzeta and Hzeta chemical shifts of all six lysines are similar and are n

41 ructural motif(s), first, the (1)H and (13)C chemical shifts of all the individual spin systems are e

42 s based on a cooperative transition of (15)N chemical shifts of amide protons as a function of urea c

43 The (15)N- and (1)H-chemical shifts of amide signals from (15)N-containing a

44 The relative (1)H NMR chemical shift of an exchangeable proton was used to ver

45 The difference in the chemical shifts of an OH or NH group in these two solven

46 The amide 1H and 15N chemical shifts of an uniformly 15N-labeled sample of p5

47 nterpreted using the known dependence of the chemical shifts of anomeric carbon on the conformation a

48 e effects of many common substituents on the chemical shifts of aromatic carbon and hydrogen are well

49 corresponds to changes in the calculated 1H chemical shifts of at most 0.1 ppm.

50 Changes in the NMR chemical shift of backbone amide nuclei (1H and 15N) hav

51 Phospholipid binding led to changes in chemical shifts of backbone atoms in residues Arg233 and

52 ased on interproton NOE's and differences in chemical shifts of backbone H alpha, C alpha, C beta, an

53 Changes in the chemical shifts of backbone signals provided evidence of

54 ly the expected crosscorrelation between the chemical shifts of bonded amide(1)H and (15)N spins but

55 Upfield chemical shifts of both (31)P and H-2' (1)H resonances i

56 The close statistical match of the (13)C chemical shifts of both polymorphic forms with those cal

57 d with cholesterol-containing membranes, the chemical shifts of both residues correlated with beta st

58 its carboxylate exposed at the surface: the chemical shift of bound [18-13C]-stearate; dicarboxylic/

59 ting the mechanism we postulate; and (c) the chemical shift of bound [N4'-(15)N]ThDP provides plausib

60 In both cases, the (15)N chemical shift of bound cyanide was reminiscent of that

61 r the pH range of 5-11, and from the (3)(1)P chemical shift of bound P(i).

62 In addition, on the basis of the chemical shift of C-1 carbon on the amylose backbone, it

63 gh expected to lead to a small change of the chemical shift of C15, in addition to changes of the C4-

64 The (13)C chemical shifts of C3' and C5', considered to be key rep

65 The base and sugar (H6,C6, H1',C1') chemical shifts of C43 for the dominant conformer are si

66 Chemical shifts of CaM bound to a peptide (smMLCKp) corr

67 49 structures by matching the changes in the chemical shifts of CaM upon Ng13-49 binding from nuclear

68 l shifts of the boron nuclei also govern the chemical shifts of carbon nuclei of these hypercoordinat

69 l shifts of the boron nuclei also govern the chemical shifts of carbon nuclei of these hypercoordinat

70 generated by these ring currents affects the chemical shift of carbons on the far side of the fullere

71 conformation substantially, but perturbs the chemical shift of certain backbone and side-chain proton

72 monofunctional binding step from changes of chemical shifts of certain CH(2) linker protons as well

73 ua monochloro species (2) and changes in the chemical shifts of certain DNA (1)H resonances are consi

74 f the relative redox potential and (31)P NMR chemical shifts of corresponding carbene-phosphinidene a

75 The calculated values of (31)P NMR chemical shifts of corresponding phosphinidene adducts o

76 8)O-induced isotope effects on the (13)C NMR chemical shifts of cyclohexene-1,2-dicarboxylate monoani

77 n order to rationalize the peculiar (1)H NMR chemical shifts of cyclopropane (delta 0.22) and cyclobu

78 Chemical shifts of cyt b(5) backbone resonances and side

79 3), are statistically identical, the carbide chemical shift of delta 501 ppm is much larger than the

80 and are resolved according to the isotropic chemical shifts of different sites in the direct dimensi

81 noanion in chloroform-d and on the (19)F NMR chemical shifts of difluoromaleate monoanion in D(2)O ha

82 Upfield chemical shifts of duplex imino protons and the disrupti

83 alue was also calculated from the CD-induced chemical shifts of each RA proton in order to collect in

84 e analysis also provides the limiting proton chemical shifts of EB in each complex which have been us

85 The 13C NMR chemical shifts of enzyme-bound product demonstrate that

86 Chemical shifts of equivalent carbons from 1-4 show that

87 The chemical shifts of exchangeable and non-exchangeable pro

88 d on the basis of the tertiary structure and chemical shifts of folded resonances.

89 ully compared the (1)H, (15)N, and (13)C NMR chemical shifts of four A beta peptides that had the Met

90 onoclonal antibodies (mAbs) by comparing NMR chemical shifts of free OspA and those in Fab complexes.

91 Both (77)Se and (125)Te NMR chemical shifts of given chalcogenide ligands were ident

92 uclear magnetic resonance technique that the chemical shifts of glucose H-6 and alpha-carbon protons

93 We deduce a relationship between the chemical shift of H(-) and the distance from the H(-) io

94 e the link between geometrical structure and chemical shift of H(-) ions in an oxide host, mayenite,

95 was experimentally probed by monitoring the chemical shift of H-bonded Ru-(H2) complexes using NMR s

96 CD spectra without concentration dependence, chemical shifts of H(alpha) that are close to the random

97 plexes were identified by changes in the NMR chemical shifts of H8, H1, H4, 15N7, and 15N4.

98 Comparison with the 15N chemical shifts of halide salts of protonated Schiff bas

99 bition constants (Ki 170-1.2 microM) and the chemical shifts of His 57-Hdelta1 (delta2, 2-dimethylsil

100 omplexes, measurements also were made of the chemical shifts of His 57-Hepsilon1 (delta2,2-dimethylsi

101 tion, we have measured the imidazole (1)H(N) chemical shifts of His37 at different temperatures and p

102 We report here (13)C and (15)N chemical shifts of His37 in the cytoplasmic-containing M

103 Isotropic and anisotropic (31)P chemical shifts of hydrated whole cells indicate the coe

104 euterium isotope effects on the geometry and chemical shifts of hydrogen-bonded protons to probe the

105 nly the measurement of the pH-sensitive (1)H chemical shifts of indicator molecules and do not requir

106 We also measured (13)C(alpha) chemical shifts of individual residues as a function of

107 ization magic-angle spinning NMR showed that chemical shifts of inhibitors (13)C-labeled in the sugar

108 In addition, the 1H NMR chemical shifts of isolated zinc knuckle peptides are ve

109 Deviations of the chemical shift of key protons in each isomer relative to

110 ter; significant changes are observed in the chemical shifts of key residues in the filter as the pot

111 AR MSMMDB, was derived from experimental NMR chemical shifts of known metabolites taken from the COLM

112 experiments on Abeta(1-42) oligomers reveal chemical shifts of labeled residues that are indicative

113 celerated strategy for the estimation of NMR chemical-shifts of large macromolecular complexes based

114 The chemical shift of Li polysulfides in (7) Li NMR spectros

115 The 1H NMR chemical shifts of lipid signals were identical to conve

116 However, the C alpha chemical shifts of M60-G73, A83-A90, and other residues

117 r MSMMDB, pNMR MSMMDB, is based on predicted chemical shifts of metabolites of several existing large

118 The carbon chemical shifts of methyl groups are particularly sensit

119 g, each diastereomer exhibits characteristic chemical shifts of methyl resonances in its (1)H and (13

120 clear magnetic resonance measurements of the chemical shift of methylcyclohexane in solution showed f

121 of H(+) absorbed is determined from the (1)H chemical shift of methylphosphonic acid.

122 Moreover, H(N) chemical shifts of micelle-bound BM2 lack the periodic t

123 ent alpha1(V) THP subtly perturbed amide NMR chemical shifts of MMP-12 not only in the active site cl

124 The chemical shifts of most resonances were very close to th

125 (1)H, (15)N, and (13)C chemical shifts of MUP-I were assigned using triple reso

126 Comparison of chemical shifts of mutant and WT proteins reveals that t

127 In contrast, the (1)H and (15)N chemical shifts of N-1H in the PNP.Hx complex are shifte

128 Though the (1)H and (15)N NMR chemical shifts of N-acetyl- and N-sulfoglucosamine resi

129 NMR spectroscopy was used to investigate the chemical shift of nanotube carbons on m- and s-SWNTs (me

130 and completely assign the nonaromatic (15)N chemical shifts of natural abundance bleomycin in the tw

131 derable increases in the nucleus-independent chemical shift of nearby species, in agreement with our

132 troscopy the effects of ring currents on the chemical shifts of nearby protons are relatively well un

133 e is no marked correlation between the (31)P chemical shifts of neighboring phosphate tetrahedra.

134 The 13C chemical shifts of nicotinamide C4 of NAD+ in these epim

135 Deviation in Shifts (BIRDS), which utilizes chemical shifts of non-exchangeable protons from macrocy

136 The heme substituent 1H NMR chemical shifts of NP2-D1A and those of its imidazole, N

137 od requires only the measurement of the (1)H chemical shifts of our reporter ligands, glycolate and s

138 A single Mosher ester is made, and the chemical shifts of pairs of resonances related by local

139 Based on the chemical shift of peaks in the (31)PMRS spectrum, intrac

140 Chemical shifts of perdeuterated [U-15N]CYP101 backbone

141 ent of all (1)H, (13)C and (15)N random coil chemical shifts of pGlu in short reference peptides led

142 ) has been developed to predict (13)C(alpha) chemical shifts of protein structures.

143 faces can be mapped out by comparison of the chemical shifts of proteins within solid-state complexes

144 ion, and the significant perturbation of the chemical shifts of protons at C-11, H2C, and H20 of U466

145 The chemical shifts of protons in the thiolane 1-oxide ring

146 its native structure was found to revert the chemical shifts of R249S back towards the wild-type valu

147 Perturbations of chemical shifts of residues coordinating the methionine

148 and E44D mutants with dGTP showed changes in chemical shifts of residues lining the active site cleft

149 Binding of specific DNA caused significant chemical shifts of residues on the DNA-binding interface

150 FTY720-ceramide binding resulted in chemical shifts of residues residing at the N terminus o

151 enzymes with dGTP show changes in 15N and NH chemicals shifts of residues in a cleft formed by beta-s

152 ike organic molecule leads to changes in the chemical shift of resonances from multiple residues in t

153 using sequence-dependent differences in the chemical shifts of resonances for the backbone CalphaH p

154 (13)C and (15)N anisotropic chemical shifts of RTD-1 in oriented PC bilayers indicat

155 tubular CA assemblies, (15)N and (13)C ssNMR chemical shifts of segmentally labeled VLPs with and wit

156 in the spectra of the denatured protein with chemical shifts of sequenced peptides derived from the p

157 a showed both line broadening and changes in chemical shifts of several peptide amide proton resonanc

158 Signal intensity characteristics and chemical shifts of silicone in the two locations were id

159 The sulfamate group (1)H and (15)N chemical shifts of six GAG microenvironments were assign

160 The (13)C chemical shifts of six tertiary amines of unambiguous co

161 MR spectroscopy to assign all (1)H and (13)C chemical shifts of Snn and isoAsp and found characterist

162 Comparison of the chemical shifts of sNRE and b2NRE in complex with nucleo

163 ure, anomalous temperature dependence of the chemical shifts of some resonances, and exchange contrib

164 The chemical shifts of specific (13)C and (15)N labels distr

165 The NMR chemical shift of spin 1/2 nuclei in a polyprotic molecu

166 r coupling turns out to be a function of the chemical shift of spin S.

167 d has been utilized to predict the beryllium chemical shifts of structurally characterized complexes

168 The (13)C NMR chemical shifts of synthetic 3 matched closely those cor

169 ning of the 13CO NMR resonance; however, the chemical shift of the 13CO resonance is unchanged, indic

170 Fortuitously, the 1H chemical shift of the acetate methyl resonance depends o

171 The (13)C NMR chemical shift of the alkylidyne carbon increases with i

172 ,gamma-unsaturated alpha-keto esters and the chemical shift of the alpha-proton in starting nucleophi

173 The chemical shift of the amino nitrogen was deshielded by N

174 The (129)Xe NMR chemical shift of the aqueous Xe@[2](6+) species (308 pp

175 s are sensitive to protonation, and the (1)H chemical shift of the Bronsted site itself reflects hydr

176 In addition, the (1)H chemical shift of the C3-H is also shifted upfield by 1.

177 s also shifted upfield by 1.31 ppm while the chemical shift of the C4 HD-CoA carbon is unchanged upon

178 sented here permit extraction of the precise chemical shift of the carbonyl environment for each (13)

179 3 labeling studies showed that the (13)C NMR chemical shift of the carbonyl resonance increases with

180 The (13)C chemical shift of the central carbon atom of carbenes in

181 ed" xenon to avidin leads to a change in the chemical shift of the encapsulated xenon in addition to

182 The (15)N NMR chemical shift of the essentially planar nitrogen atom o

183 oop turns of the GCA, AAA and GAG types, the chemical shift of the H4' proton of the loop deoxyribose

184 In addition, the chemical shift of the H8 proton (7.51 ppm) of dA(6) appe

185 ed [(1)H,(1)H]-NOESY experiments, adding the chemical shift of the heavy atom attached to the hydroge

186 Using the chemical shift of the histidine H2 proton in cells incub

187 Changes in the chemical shift of the inner NH protons as well as the or

188 ed (LBHB) diad His 57-Asp 102 and the 1H NMR chemical shift of the LBHB proton in tetrahedral, hemike

189 surprisingly asymmetric changes in the (13)C chemical shift of the ligand methyl groups indicate that

190 annopyranosides is discussed in terms of the chemical shift of the mannose H5 resonance and the (1)J(

191 bstituents as to significantly influence the chemical shift of the methyl group.

192 The chemical shift of the micropore peak is observed to evol

193 binding affinity of a receptor and the (15)N chemical shift of the nitrogen atoms of its binding cent

194 change in the J coupling with respect to the chemical shift of the observed (F(2)) and neighboring (F

195 copic differentiation based on the (13)C NMR chemical shift of the parent and protonated derivatives

196 (31)P-MRS measurements of the chemical shift of the pH probe, 3-aminopropylphosphonate

197 onance spectroscopy experiments by the (31)P chemical shift of the pH(e) marker 3-aminopropylphosphon

198 itution, a large upfield change in (31)P NMR chemical shift of the phosphorothioate peak (Delta appro

199 ter), intracellular pH (pHi, measured by the chemical shift of the Pi resonance) and extracellular pH

200 The (15)N chemical shift of the Schiff base in K indicates that co

201 trans retinylidene chromophore and the (15)N chemical shift of the Schiff base nitrogen in the active

202 The (29)Si chemical shift of the silylium cation indicates that it

203 free and tricoordinate, whereas the (119)Sn chemical shift of the stannylium cation indicates that i

204 basic conditions, it is noteworthy that the chemical shift of the Y45 C epsilonH resonance is invari

205 The chemical shifts of the (1)H nuclei in CH(3) and NH(3) re

206 n the pH 4 state, indicated by the secondary chemical shifts of the (13)C(alpha), (13)CO, (1)H(alpha)

207 Chemical shifts of the (19)F resonances exhibited differ

208 emperature dependence of the line widths and chemical shifts of the 19F resonances were used to estim

209 Since (13)C(alpha) chemical shifts of the 20 amino acids, which span a wide

210 The pH dependence of the chemical shifts of the 31P resonances of enzyme-bound su

211 ote a correlation between (1)H and (13)C NMR chemical shifts of the acrylamide with GSH reaction rate

212 nges to both CaM lobes as indicated by amide chemical shifts of the amino acids of CaM in (1)H-(15)N

213 N), (15)N, (13)Calpha, (13)Cbeta, and (13)C' chemical shifts of the ankyrin repeat protein IkappaBalp

214 Varying the donor group does not change the chemical shifts of the aromatic hydrogen and carbon atom

215 rying the acceptor group does not change the chemical shifts of the atoms in the donor-substituted ph

216 Chemical shifts of the backbone (15)N, (1)H, and (13)C r

217 The chemical shifts of the backbone atoms indicate that the

218 We have assigned the chemical shifts of the backbone atoms of the 32 kDa liga

219 Major changes were observed in the chemical shifts of the backbone resonances and in the pa

220 the spectroscopy data by calculation of the chemical shifts of the beta-phosphate peak of ATP.

221 ing that the same factors that determine the chemical shifts of the boron nuclei also govern the chem

222 tes that the same factors that determine the chemical shifts of the boron nuclei also govern the chem

223 On the basis of chemical shifts of the BPP34C10, its internal p-hydroqui

224 The chemical shifts of the C(epsilon1) and C(delta2) protons

225 y, binding to enoyl-CoA hydratase causes the chemical shifts of the C1 and C3 HD carbons to move down

226 Upon binding to oxidized pMCAD, the chemical shifts of the C1, C2, and C3 HD carbons are shi

227 The (13)C NMR chemical shifts of the carbocations were calculated usin

228 (13)C, (17)O, and (33)S NMR chemical shifts of the cations and dications were calcul

229 The structures and (13)C NMR chemical shifts of the cations were calculated at the GI

230 The experimental (1)H chemical shifts of the CH and CH(2) protons are assigned

231 The (13)C' chemical shifts of the coiled-coil backbone carbonyl gro

232 (13)C and (11)B NMR chemical shifts of the compounds were also calculated us

233 on of a particular J coupling with the (31)P chemical shifts of the considered nucleus and the couple

234 esulting from functional groups matching the chemical shifts of the constituents making up myelin lip

235 ted hydriodo boron compounds and the 13C NMR chemical shifts of the corresponding isoelectronic and i

236 The (31)P NMR chemical shifts of the corresponding rNHC-phosphinidene

237 ations between the J couplings and the (31)P chemical shifts of the coupled nuclei that are much clea

238 Determination of the13C chemical shifts of the cytosine C6 and C5 and their one-

239 The isotropic 1H and 13C NMR chemical shifts of the DFT-optimized structures were cal

240 but rather to temperature dependence of the chemical shifts of the diastereotopic hydrogens, which a

241 dicated that a temperature dependence of the chemical shifts of the diastereotopic protons results in

242 The 31P chemical shifts of the diphosphate moiety of the protein

243 on and X-ray scattering profiles and the NMR chemical shifts of the disordered N terminal (SH4UD) of

244 The (13)C and (15)N chemical shifts of the DNA bases have above-average valu

245 Changes in chemical shifts of the DNA upon complex formation and in

246 A similar trend was noted for the UQ chemical shifts of the DsbA(C33S)-DsbB(WT) heterodimer,

247 (15)N chemical shifts of the EIS obtained from the RD-NMR anal

248 Chemical shifts of the F2 modules and the (1)F2(2)F2 pai

249 ImH ligand could be determined from the (1)H chemical shifts of the heme methyls, and the rate of int

250 ons were then derived using the experimental chemical shifts of the Htt peptide at low and neutral pH

251 Analysis of the H(alpha), H(N) and 15N chemical shifts of the human alpha-LA molten globule at

252 The 11B NMR chemical shifts of the hypercoordinated hydriodo boron c

253 investigation of the origins of the 13C NMR chemical shifts of the imidazole group in histidine-cont

254 The chemical shifts of the imidazole hydrogen atoms exhibite

255 n of Mg(2+) induced selective changes to the chemical shifts of the imino protons of a GCGA tetraloop

256 The range of the chemical shifts of the indole nitrogens suggests that al

257 The 13C NMR chemical shifts of the intriguing dication 14 were calcu

258 The 13C NMR chemical shifts of the isoelectronic analogue tert-butyl

259 ar the lesion site; away from this site, the chemical shifts of the major and minor conformer protons

260 The structure and 13C and 29Si NMR chemical shifts of the model trimethylsilylated carboxon

261 pairs that are distinct from the random coil chemical shifts of the natural amino-acid residues.

262 (13)C NMR chemical shifts of the nitrile carbon in cyclohexanecarb

263 Structures and (13)C and (11)B NMR chemical shifts of the onium-carbonium dications and the

264 It is shown that the (13)C chemical shifts of the phenolic residues of A...H...X(-)

265 The solid-state NMR chemical shifts of the PLP pyridine ring nitrogen and ad

266 ta((X)Y)n,s (n = (15)N) and the (13)C(alpha) chemical shifts of the preceding residue X.

267 The 13C chemical shifts of the primary visual photointermediate

268 The chemical shifts of the prochiral hydrogens of authentic

269 The (13)C chemical shifts of the protonated derivatives are solely

270 olecular mechanical calculations of (1)H NMR chemical shifts of the protons in the active site hydrog

271 The chemical shifts of the protons of the methyl group, whic

272 e assigned the imidazole ring (1)H and (15)N chemical shifts of the proximal and distal histidines in

273 The chemical shifts of the pyrenyl moiety were dispersed ove

274 The (31)P chemical shifts of the resting forms of the yeast and hu

275 can be accurately determined, while the (1)H chemical shifts of the Rh...H-C motif can be determined

276 which are defined by sets of (1)H and (13)C chemical shifts of the same spin system.

277 Because the nitrogen chemical shifts of the Schiff base indicate interaction

278 The (1)H NMR chemical shifts of the side-chain amide protons of Asn34

279 We present here the determination using NMR chemical shifts of the structure (PDB code 2K5X) of the

280 (13)C NMR chemical shifts of the structures were also calculated b

281 Significantly, we have shown that the chemical shifts of the substrate-binding domain and the

282 n illustrate the power of the (1)H and (15)N chemical shifts of the sulfamate NH groups for the struc

283 pH 5 and 8.5, as evidenced by the changes in chemical shifts of the three major reactive phosphate gr

284 The chemical shifts of the TnC-bound peptide resonances are

285 F3, but not F6, can significantly alter the chemical shifts of the tryptophan indole N-H protons nea

286 ants criteria, but a diagnostic based on the chemical shifts of the two olefinic protons located at t

287 d in the MGS-PGH complex on the basis of the chemical shifts of their Cdelta and C(epsilon) protons.

288 frequencies of their carboxylate groups, the chemical shifts of their protons, and their diffusion co

289 ing the denaturant concentration shifted the chemical shifts of these residues towards theory random

290 mples a single species was detected, but the chemical shifts of these two distinct species differed b

291 Additionally, the chemical shifts of these two residues changed almost ide

292 Change in the chemical shifts of thiophene -CH-protons during the cour

293 Chemical shifts of three C-terminal carbonyl carbons of

294 The chemical shifts of Trp C(gamma) in several proteins, hen

295 st likely that the misassignment of the (1)H chemical shifts of two methyl groups has led to the wron

296 rR and found similar, minor changes in (19)F chemical shifts of tyrosine residues in the free protein

297 The calculated (15)N and (13)CO chemical shifts of Val(16) in DLPC reveal that there are

298 The (13)CO and (15)N chemical shifts of Val-16 labeled PG-1 indicate that the

299 ffects have significant contributions to the chemical shift of Xe in the cage and enabled the replica

300 use the linear temperature dependence of the chemical shift of xenon dissolved in adipose tissue to d