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1 solved by a hybrid solution and solid-state NMR method.
2 16-mer consensus DNA using multidimensional NMR method.
3 the rotational echo double resonance (REDOR) NMR method.
4 coordinate accuracy within the limits of the NMR method.
5 asured with the (1) H-observed/(13) C-edited NMR method.
6 ent vineyards were determined using the SNIF-NMR method.
7 ned from the pulse gradient spin echo (PGSE) NMR method.
8 pplied advanced multidimensional solid-state NMR methods.
9 o hours and allows their characterization by NMR methods.
10 sparsely populated to observe by traditional NMR methods.
11 lide structures were determined by 1D and 2D NMR methods.
12 rough analysis of the signals with 1D and 2D NMR methods.
13 multiprotein complexes using solution-state NMR methods.
14 l (1)H-(1)H correlated and (1)H-(13)C-edited NMR methods.
15 nalysis as well as directly through multiple NMR methods.
16 domain of FIP2 in the absence of Rab11 using NMR methods.
17 rystallography and of a larger M2 peptide by NMR methods.
18 ermined by both x-ray crystallography and by NMR methods.
19 s with quinuclidine bases were determined by NMR methods.
20 , fluorescence, and high-resolution solution NMR methods.
21 nd joining (NHEJ), has been determined using NMR methods.
22 s well as two-dimensional 13C-1H correlative NMR methods.
23 respectively, which can be characterized by NMR methods.
24 active site of ARD' inaccessible to standard NMR methods.
25 ture of apo NosL has been solved by solution NMR methods.
26 d the backbone dynamics by multi-dimensional NMR methods.
27 o BIV TAR RNA determined using heteronuclear NMR methods.
28 blished using mass spectrometry and multiple NMR methods.
29 DDFT)-electronic circular dichroism, and DFT-NMR methods.
30 axation optimized spectroscopy (TROSY)-based NMR methods.
31 to enhance aqueous solubility) with SecA by NMR methods.
32 ligomers was confirmed via 1D and 2D (NOESY) NMR methods.
33 design of (1)H, (15)N, or (13)C solid-state NMR methods.
34 the engineered protein with multidimensional NMR methods.
35 ss were determined through conventional (1)H NMR methods.
36 rain 385-99 (WN-rED3) has been determined by NMR methods.
37 structure of human SWI1 ARID using solution NMR methods.
38 have been investigated with high-resolution NMR methods.
39 and determined high-resolution structures by NMR methods.
40 lts along with two-dimensional heteronuclear NMR methods.
41 guests in a cylindrical host was studied by NMR methods.
42 means of conventional and new field-cycling NMR methods.
43 een determined in solution though the use of NMR methods.
44 phospholipid bicelles using high-resolution NMR methods.
45 hia coli under resting conditions by in-cell NMR methods.
46 otein, Rd-apocyt b(562), by multidimensional NMR methods.
47 mined in solution at pH 5.0 by heteronuclear NMR methods.
48 turally characterized using multidimensional NMR methods.
49 e II TGFbeta receptor determined by solution NMR methods.
50 sample, can readily be measured by solution NMR methods.
51 was determined by standard 3-D heteronuclear NMR methods.
52 n assigned using COSY, NOESY, HSQC, and HMBC NMR methods.
53 V-1 reverse transcriptase (RT) determined by NMR methods.
54 0-tetrahydrobenzo[a]pyrene was studied by 2D NMR methods.
55 solution structure of NuiA was determined by NMR methods.
56 urified, and analyzed using multidimensional NMR methods.
57 with intact vinyl substituents was solved by NMR methods.
58 ants for the formation of pseudorotaxanes by NMR methods.
59 atch site in bold), as determined by 2D (1)H NMR methods.
60 ng heteronuclear, (1)H,(15)N-high-resolution NMR methods.
61 and rotational echo double-resonance (REDOR) NMR methods.
62 (1)H NMR signals on the basis of standard 2D NMR methods.
63 analysis of the protein by multidimensional NMR methods.
64 iology when measured and analyzed by in vivo NMR methods.
65 ar-weight proteins, using modern solid state NMR methods.
66 -observe and (15)N,(1)H-HSQC protein-observe NMR methods.
67 ctral data deduced by UHPLC-DAD-ESI-HRMS and NMR methods.
68 ex, as characterized by crystallographic and NMR methods.
69 mum), using volumetric, gravimetric, and PFG-NMR methods.
70 ion and structure determination by classical NMR methods.
71 s and congeners are determined using dynamic NMR methods.
72 ly characterised using HPLC-MS/MS, 1D and 2D NMR methods.
73 gned as a pyrano[3,2-b]pyran on the basis of NMR methods.
74 ly amenable to drug screening by traditional NMR methods.
75 as first determined through modern RDC-based NMR methods.
76 multidimensional nuclear magnetic resonance (NMR) methods.
77 D using solution nuclear magnetic resonance (NMR) methods.
78 stallography and nuclear magnetic resonance (NMR) methods.
79 with solid-state nuclear magnetic resonance (NMR) methods.
80 al heteronuclear nuclear magnetic resonance (NMR) methods.
81 al heteronuclear nuclear magnetic resonance (NMR) methods.
82 GLC, and HPLC) and spectral (UV, MS, and 1H NMR) methods.
83 one- and two-dimensional Time-domain NMR (TD-NMR) methods.
85 ation of solute hydrogen bond acidities, the NMR method allows the determination of A values for indi
86 pplication of the (1)H off-resonance R(1rho) NMR method and low temperature (185-175 K) to resolve in
90 determined by detailed two-dimensional (2D) NMR methods and confirmed by X-ray crystallographic anal
91 e dsRNA binding surface of NS1A-(1-73) using NMR methods and describe the 2.1-A x-ray crystal structu
92 ntally measure the pKa of O2' by kinetic and NMR methods and find it to be lower in the presence of d
93 Recent developments that have accelerated 2D NMR methods and improved quantitation have made these me
94 ose integration of solution- and solid-state NMR methods and is generally applicable to shed light on
100 structure of the isolated CBP TAZ1 domain by NMR methods and show that it has the same structure in t
101 has been elucidated by crystallographic and NMR methods and shows a high degree of structural conser
104 its dynamic properties were investigated by NMR methods and with the aid of a model compound lacking
106 ducts has been defined by X-ray analyses and NMR methods, and both chelating and monodentate binding
107 ted mutants, dynamic motion information from NMR methods, and correlated motions from MD simulations
108 y structure have recently been determined by NMR methods, and does not have precedent among known DNA
109 oil and humin, by both CP-MAS and DP-MAS 13C NMR methods, and that the problem is more serious for CP
110 ar quadruplex has been previously studied by NMR methods, and the present X-ray structure is in accor
112 improvements in sensitivity and resolution, NMR methods are becoming more amenable to dissecting the
113 ucleotide exchange, high-resolution solution NMR methods are being applied in studying signaling of t
114 ge protein complexes by traditional solution NMR methods are difficult due to a priori requirement of
117 ted sensitivity, nuclear magnetic resonance (NMR) methods are attractive because of their simplicity,
118 We have used complementary chemical and NMR methods as an approach to improving our understandin
122 ystem, the methodology used demonstrates how NMR methods can provide important insights into the stru
123 more easily measured, certain PET and (13)C NMR methods can quantify total regional signal activity
125 was solved in aqueous buffer using 1D and 2D NMR methods combined with restrained molecular dynamics.
126 ng into a third dimension via fast-hybrid 3D NMR methods combining the speed of ultrafast 2D NMR with
127 ties of phospholipid bilayers, using several NMR methods, demonstrates that the two peptides insert t
128 ve been investigated by variable-temperature NMR methods, demonstrating that the intramolecular racem
129 , by using a combination of multidimensional NMR methods, density functional theory calculations and
131 ed by broad lines which make direct study by NMR methods difficult; this broadening arises from confo
132 entional imaging techniques, in- and on-cell NMR methods do not provide spatial information on cellul
133 or XAG region of duplexes elude discovery by NMR methods (especially because of the flexible nature o
134 ese NOE effects demonstrate a solution (19)F NMR method for analysis of tertiary contacts in high mol
135 In previous works, we developed a (13)C NMR method for analyzing triacylglycerols in olive oil u
136 saturation transfer (DEST), a novel solution NMR method for characterizing, at atomic resolution, the
137 atly extends the range of application of the NMR method for determination of residue-specific, side-c
139 co-workers disclosed a straightforward (19)F-NMR method for determining the log P values of fluorocar
141 this work, we develop a simple and practical NMR method for extracting both energetic and dynamic inf
142 n transfer difference (STD) is a widely used NMR method for ligand screening, the selection of specif
145 l and obtain an unbiased and high-throughput NMR method for the analysis of nucleobase preference in
148 to the influence of hydrogen bonding and to NMR methods for chemical kinetics, including 2D-EXSY spe
151 h uniquely supplements X-ray diffraction and NMR methods for investigating solution conformations of
152 l benefit of the combination of SABRE and 2D NMR methods for rapid characterization of low-concentrat
155 ive to traditional X-ray crystallography and NMR methods for structure-based drug design is described
156 r may help in the development of solid-state NMR methods for studying interhelical contacts in membra
159 y, there is great interest in development of NMR methods for the study of multicomponent systems in t
160 l solution-state nuclear magnetic resonance (NMR) methods for structure determination of Dsy0195, a h
161 ructural characterization of biomolecules by NMR methods frequently requires the enrichment of magnet
162 orated diffusion ordered spectroscopy (DOSY) NMR method hand-in-hand with theoretical calculations.
163 discriminator by LC-MS, further LC, MS, and NMR methods have been applied in a coordinated effort to
167 Isothermal titration calorimetry (ITC) and NMR methods have been used to independently investigate
171 dimensional (2D) nuclear magnetic resonance (NMR) methods have shown to be an excellent analytical to
172 ein structures determined by either x-ray or NMR methods, if the observed (13)C(alpha) chemical shift
174 able to isolate, we could characterize it by NMR methods in DMF-d7, a solvent in which it is stable a
177 advantage of combining X-ray scattering and NMR methods in structural studies of dynamic, multidomai
178 onstrates the proof of concept for 1D and 2D NMR methods in the targeted and untargeted analysis of p
180 -optimized spectroscopy (methyl-TROSY)-based NMR methods, in concert with robust strategies for incor
183 ormone and retinoid receptors using multiple NMR methods including methyl chemical shifts, coupling c
184 ion (XRD) and in solution using multinuclear NMR methods (including DOSY, EXSY, and COSY), electrospr
185 In the study presented here, isotope-edited NMR methods, including (15)N and (13)C relaxation measur
190 d for structure determination by traditional NMR methods is currently long, but improved hardware, au
191 Rh of alphaB-crystallin as derived from both NMR methods is found to be fully consistent with this re
192 inetic, and in one case variable-temperature NMR methods is the process of mu-phosphide bridge format
194 cture has been determined by two-dimensional NMR methods, molecular modeling, and molecular dynamics
197 s probed by X-ray crystallography and by the NMR method of isotopic perturbation in water, in two apr
203 port two in situ nuclear magnetic resonance (NMR) methods of studying redox flow batteries, which are
204 nals assigned by multidimensional Pure Shift NMR methods, P(A) can be easily and accurately determine
207 nctions in health and numerous diseases, the NMR method presented here potentially opens a new chapte
209 ructures of multidomain proteins by solution NMR methods presents a number of unique challenges relat
210 fluorescence and nuclear magnetic resonance (NMR) methods, proflavine has been identified, through a
211 lication of these ultrafast multidimensional NMR methods provides the opportunity to determine the st
213 increases in the Stokes radius determined by NMR methods result from replacement of five isoleucine/v
214 analysis of measurement uncertainty for the NMR method resulted in combined standard uncertainties t
215 rmediate peptide concentrations, solid-state NMR methods reveal that chrysophsin-1 is aligned paralle
216 using X-ray crystallography and (19)F-based NMR methods, revealing the nature of the catalytically r
220 estigations of the structure and dynamics by NMR methods show that G37A retains the average WT struct
221 ith respect to the bilayer, established with NMR methods, shows that the N-terminal helix of EF-1 is
222 determination of this symmetric oligomer by NMR methods, specifically in sorting ambiguous interatom
223 n contrast to more conventional quantitative NMR methods, stem coaxial inserts are placed into the sa
224 A, we applied a combination of heteronuclear NMR methods, such as heteronuclear single quantum cohere
225 Here, we highlight recent progress in the NMR methods tailored to investigate allostery with the g
226 icability of a simple one-dimensional proton NMR method that exploits enhanced spin diffusion among p
228 1 order of magnitude lower than established NMR methods that employ direct protein detection for Kd
229 es in micelles was determined using solution NMR methods that rely on the measurement of backbone (1)
230 ) RNA is presented using recently introduced NMR methods that rely on the measurement of residual dip
231 se relaxation optimized spectroscopy (TROSY) NMR methods that Rev1-BRCT domain directly interacts wit
232 has a significant sensitivity advantage over NMR methods that utilize direct detection of (13)C.
234 ted RNA structures in the PDB were solved by NMR methods, the usefulness of NMR is still limited by t
245 e determined by chemical and high resolution NMR methods to define the features of each serotype.
251 we use multidimensional (1)H/(15)N solution NMR methods to establish the structural and dynamics bas
252 ogues) and high resolution field cycling 31P NMR methods to estimate internal correlation times (tauc
256 ructure of human cterRAP74, and we have used NMR methods to map the cterFCP-binding sites for both ct
263 ent study, we present previously undescribed NMR methods to study the interactions of proteins with t
264 will increase the applicability of solution NMR methods to the characterization of nanomaterials.
266 e observed and characterized by conventional NMR methods under conditions in which the interaction wo
270 ted by Fru-2,6-P2 in intact animals, a novel NMR method was developed using [U-13C]glucose and 2H2O a
273 e-quantum methyl-based relaxation dispersion NMR methods we identify critical residues for DNAJB6b ol
274 ere, using the power of nonuniformly sampled NMR methods we investigate the folding pathway of amyloi
276 imensional and three-dimensional solid-state NMR methods, we find that Delta113-120 PrP23-144 fibrils
279 Using analytical ultracentrifugation and NMR methods, we show here that a membrane-soluble peptid
282 ification, and quantification of the drug by NMR methods were surveyed, as well as the use of NMR-bas
296 spectrometry and nuclear magnetic resonance (NMR) methods were thus used to directly characterize the
297 In this study, nuclear magnetic resonance (NMR) methods were used to investigate the transit of sin
299 resolution two-dimensional pure-shift zCOSY NMR method with homonuclear band-selective decoupling in
300 inor groove adduct structure was observed by NMR methods with all Watson-Crick base pairs intact, and