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1 d transmission electron microscopy and X-ray small angle scattering.
2 ficant neutron scattering techniques, namely small angle scattering.
3 ic and dynamic light scattering, and neutron small angle scattering.
4 ormidable challenge, particularly when using small-angle scattering.
5 polar couplings (RDCs), chemical shifts, and small-angle scattering.
6 ns, combined with X-ray crystallographic and small-angle scattering analyses, indicate that pH affect
7 es were determined by numerical inversion of small angle scattering and isothermal magnetisation data
8  as isochoric heating, inelastic scattering, small angle scattering and X-ray diffraction.
9                                      Through small-angle scattering and molecular modeling, we have p
10 assembly mechanisms by the X-ray scattering (small-angle scattering and total scattering) of solution
11          The model incorporates the improved small-angle scattering approximation (SAA) to radiative
12         Despite the ever-increasing usage of small-angle scattering as a valuable complementary metho
13 ains-determined by X-ray crystallography and small angle scattering-as well as kinetics experiments d
14  diffusion of electron momenta is enabled by small-angle scattering at the surfaces instead of the ro
15 v.wwpdb.org), small angle scattering data by Small Angle Scattering Biological Data Bank SASBDB (sasb
16                                          The small-angle scattering curve analysis, which is also an
17 d structures by PDB-Dev (pdb-dev.wwpdb.org), small angle scattering data by Small Angle Scattering Bi
18                                              Small angle scattering data from bovine lung type Ialpha
19 rr complex is experimentally determined from small angle scattering data to present the first structu
20 idual amino acid side chains, implied by the small angle scattering data, could have significant effe
21  activated DctD receiver domain derived from small angle scattering data.
22                                              Small-angle scattering data are collected from solutions
23  a generally useful tool for the analysis of small-angle scattering data from concentrated macromolec
24 lar assemblies by analyzing x-ray or neutron small-angle scattering data is presented.
25 uantitatively simulated previously published small-angle scattering data of hydrated Nafion.
26 ir ligands; SASBDB, a primary repository for small-angle scattering data of various macromolecular co
27  the VEGF-E/VEGFR-2 ECD complex derived from small-angle scattering data provided evidence for homoty
28 structure at room temperature to explain the small-angle scattering data, as it is consistent with a
29 estoration of soluble protein structure from small-angle scattering data, we construct a general mult
30  nuclear magnetic resonance spectroscopy and small-angle scattering data.
31                                 In addition, small-angle scattering experiments show that LLhP is mor
32                                              Small-angle scattering experiments with X-rays and neutr
33   Three examples are given of application to small-angle scattering from pressure-induced unfolding o
34 flectivity (XRR) and grazing incidence X-ray small-angle scattering (GISAXS) reveal that unfunctional
35 g the dark-field signal, which is related to small-angle scattering in the sample.
36  14 A using a synchrotron X-ray source and a small-angle scattering instrument adapted for single cry
37                                   We compute small-angle scattering intensities, pore size distributi
38                                              Small-angle scattering intensity profiles measured or ca
39                                The resulting small-angle scattering intensity profiles were best fit
40                 Speckle contrast analysis of small-angle scattering measurements from nanoparticles r
41 can reconstruct the assembled structure from small-angle scattering measurements using the computatio
42 ng-sought recovery of phase information from small-angle scattering measurements.
43 .5 angstrom, comparable to the resolution of small-angle scattering methods.
44 24I, derived using electron microscopy (EM), small-angle scattering (neutron and X-ray), and detailed
45 n vitro and in cellulo FRET measurements and small-angle scattering of x rays (SAXS).
46  this respect, experimental information from small-angle scattering of X-ray radiation in solution (S
47                                              Small-angle scattering of x-rays (SAXS) and neutrons (SA
48  of probing ultrastructure ordering, such as small-angle scattering of X-rays or neutrons, can be app
49 een developed that allows observation of the small angle scattering profile of an integral membrane p
50 X-ray photon correlation spectroscopy in the small-angle scattering range.
51   However, to date the quantification in the small angle scattering regime is severely limited by the
52                    A feature observed in the small angle scattering region suggests the formation of
53 eat spacings (5.0 nm at 55 degrees C) in the small-angle scattering region which first appears at app
54 ting from X-ray attenuation, refraction, and small-angle scattering, respectively.
55                                       Modern small-angle scattering (SAS) experiments with X-rays or
56                                              Small-angle scattering (SAS) has a proven ability to det
57                                              Small-angle scattering (SAS) is widely applied to nanosc
58                                              Small-angle scattering (SAS) measurements are a popular
59                                          The small-angle scattering (SAS) profile of a dense protein
60 revious modeling of its trimeric nature from small angle scattering (SAXS) data.
61 atial beam modulation, allows for mapping of small-angle scattering signals and hence addressing micr
62           The dark-field signal measures the small-angle scattering strength and provides complementa
63                                              Small-angle scattering studies generally indicate that t
64 idopsis thaliana; AtCESA1CatD) determined by small-angle scattering techniques and provides the first
65 s, such as nuclear magnetic resonance (NMR), small-angle scattering techniques, and single-molecule F
66                                              Small-angle scattering tensor tomography is applicable t
67                                        Using small-angle scattering, the protein was found to be stru
68                                      We used small-angle scattering to measure the effects of macromo
69                                       We use small-angle scattering to provide information on the fib
70                                 We have used small-angle scattering to study the calcium dependence o
71  with statistical coil ensemble modeling and small-angle scattering, to analyze the conformational be
72 er solution, the micelle contribution to the small angle scattering vanishes, and the molecular weigh
73                        X-ray diffraction and small-angle scattering verified the incorporation of RS
74                                              Small angle scattering with contrast variation has revea
75 turated, ternary cardiac troponin complex by small-angle scattering with contrast variation.
76 we introduce an imaging method that combines small-angle scattering with tensor tomography to probe n
77                                     Combined small-angle scattering with X-rays and neutrons coupled