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1 o the lack of homology to other proteins and high-resolution structure.
2 er mechanisms - has not been observed in any high-resolution structure.
3  myoglobin was the only protein with a known high-resolution structure.
4 f PDE6, and each domain was readily fit with high resolution structures.
5 ny years was characterized by the paucity of high-resolution structures.
6 is and other biological processes, many lack high-resolution structures.
7 fall within the footprints identified by our high-resolution structures.
8 ive KOW domains in Spt5, and a lack of their high-resolution structures.
9 roscopy (cryo-EM) as a technique to generate high-resolution structures.
10 ine receptors has been hindered by a lack of high-resolution structures.
11 d structures are in very good agreement with high-resolution structures.
12 m of ZnT8 remains unclear due to the lack of high-resolution structures.
13 e protein backbone rather than of individual high-resolution structures.
14                            We present here a high resolution structure (1.55 A) of ZIKV NS5 methyltra
15                    Here, we report the first high-resolution structure (1.92A) of UP1 bound to a 5'-A
16                                          The high-resolution structure allowed us to identify putativ
17 his map, combined with previously determined high resolution structures and molecular dynamics simula
18                                         This high-resolution structure and accompanying functional an
19                                        Ultra-high-resolution structure and composition analysis via s
20                                 We present a high-resolution structure and dynamics of Ixolaris and d
21 ther facilitate its use by the community for high-resolution structure and function prediction.
22 es cerevisiae (yeast) and humans, aided with high-resolution structures and biochemical characterizat
23 ns in disease-related variants, knowledge of high-resolution structures and dynamics of C domains is
24 mportant HRD motif deviates from ideality in high-resolution structures and the strained geometry res
25                  Outcomes reconcile low- and high-resolution structures and yield a partial sequentia
26                                              High resolution structures are available for individual
27 st of the prokaryotic transporters for which high-resolution structures are available.
28  DEBS, as well as a set of domains for which high-resolution structures are available.
29 e find that the constructs upon which extant high-resolution structures are based predominantly occup
30                                              High-resolution structures are essential for rational dr
31                                All available high-resolution structures are of homopentameric recepto
32  Their flexibility limits both the number of high-resolution structures available, leaving only a sma
33 ected by yeast surface display combined with high-resolution structure-based predictions, and validat
34                       The former can produce high-resolution structures but is limited to highly puri
35 ing the smallest protein crystals to yield a high-resolution structure by X-ray crystallography to da
36 ty of pure RNAs makes it difficult to obtain high-resolution structures by cryo-EM.
37             Complete data sets and resulting high-resolution structures can be obtained from a single
38 aled that with this supramolecular approach, high-resolution structures can be written that show unpr
39 these fusion protein TMDs have so far eluded high-resolution structure characterization because of th
40  intact SARS-CoV-2 virions and determine the high-resolution structure, conformational flexibility an
41 complexes recently revealed that all current high-resolution structures correspond to downstream stat
42  exemplified in homomeric structures, but no high-resolution structure currently exists of heteromeri
43             Thereby, the comparison of their high-resolution structures defines the mechanistic and s
44                                          Our high-resolution structures delineated the altered PAM re
45 sting technical difficulties associated with high resolution structure determination of transmembrane
46  spectroscopy and outline a strategy for the high-resolution structure determination and positioning
47 m in their native conformation and allow for high-resolution structure determination by cryo-electron
48 evelopments that led to this breakthrough in high-resolution structure determination by cryo-EM and p
49 r nanocrystals can provide a simple path for high-resolution structure determination by the cryoEM me
50                                              High-resolution structure determination crucially depend
51 ces in cryo-electron microscopy have enabled high-resolution structure determination of AAA+ proteins
52  "developing cryoelectron microscopy for the high-resolution structure determination of biomolecules
53 P) crystallization has proven successful for high-resolution structure determination of challenging m
54                     The characterization and high-resolution structure determination of this enzyme s
55  imaging, improves image quality, and allows high-resolution structure determination with a minimum o
56 thologies that render them inappropriate for high-resolution structure determination.
57 tly celebrate the maturation of cryo-EM as a high-resolution structure-determination tool, I believe
58                                The resulting high-resolution structure displays metrical parameters c
59 plicity of biological sample preparation for high-resolution structure elucidation by cryo-EM.
60                                              High-resolution structure elucidation has been challengi
61 graphy to medicine was evident, as the first high-resolution structures emerged in the 50s and 60s.
62                                     Although high-resolution structures exist for AcrB, its conformat
63 ational rearrangements during translocation, high-resolution structures exist for essentially only on
64                    No structural homologs or high-resolution structure exists for the TP domain.
65                                Currently, no high-resolution structure exists for this region, limiti
66 espite its importance, there is currently no high resolution structure for subunit a of the V-ATPase.
67 nts in experimental techniques are revealing high resolution structures for an increasing number of m
68                                   This first high-resolution structure for a kobuvirus is intermediat
69                          In the absence of a high-resolution structure for either PfENT1 or a homolog
70 y, the solid state NMR data lead to a unique high-resolution structure for the dimerization interface
71                         We have determined a high-resolution structure for the rotavirus VP1 RdRp in
72                           Herein, we provide high-resolution structures for an EAL enzyme Bd1971, fro
73                                 There are no high-resolution structures for any of the ToxB homologs,
74                               Despite having high-resolution structures for eukaryotic large ribosoma
75               We recently reported the first high-resolution structures for heterochiral coiled-coil
76  The transmembrane surfaces of all available high-resolution structures for K(+) channels were swept
77                                              High-resolution structures for tetramers of two blades,
78                                         This high-resolution structure guided targeted mutagenesis at
79 nsitive to these modulators, and for which a high resolution structure has been solved.
80 ionality and plasticity, but for decades its high-resolution structure has remained elusive.
81            Isolating virions for determining high-resolution structures has been hindered by latency-
82                 In recent years, a number of high resolution structures have supported this general f
83  their isolation from infected tissue and no high resolution structures have yet been reported.
84                                              High-resolution structures have been solved for an allos
85                                              High-resolution structures have not been reported for re
86 resented a number of challenges, but several high-resolution structures have now become available.
87                                     Although high-resolution structures have provided atomic details
88                               While previous high-resolution structures have provided insights into t
89                                              High-resolution structures have revealed intricate detai
90             X-ray crystallography can reveal high resolution structures; however, one perceived limit
91                                              High-resolution structured illumination microscopy (SIM)
92                                              High-resolution structured illumination microscopy sugge
93 rast to G proteins, for which there are many high-resolution structures in complex with GPCRs, the mo
94                            By probing recent high-resolution structures in the context of functional
95  sequence-dependent features of DNA found in high-resolution structures introduce irregularities in t
96           Despite their importance, only one high-resolution structure is available for SPs within pr
97 structure of cpSRP43 has been determined, no high-resolution structure is yet available for cpSRP54.
98 ance (NMR) spectroscopy, the availability of high-resolution structures is limited owing to the frequ
99                                          The high-resolution structures made possible the identificat
100                                  Regardless, high-resolution structures obtained from XFEL data mostl
101 dely investigated as potential therapeutics, high-resolution structures obtained under biologically r
102              Unfortunately, efforts toward a high resolution structure of full-length apoA-I have not
103                                  There is no high resolution structure of human P-gp, but homology mo
104 utations was analyzed by comparison with the high resolution structure of Sphingomonas sp. A1-III alg
105                                              High resolution structure of synthetic alpha-pheromone f
106                                          The high resolution structure of the metal-bound variant ill
107                     We recently reported the high resolution structure of the N-terminal domain of Tb
108                                            A high resolution structure of the NTD of TbBILBO1 showed
109                                              High resolution structures of all the individual BAM sub
110 embly pathways for viruses are inferred from high resolution structures of purified stable intermedia
111 ndent enzyme, we have determined a series of high resolution structures of QueG from Bacillus subtili
112                                      Despite high resolution structures of the HCN1 channel in the cA
113                          Here, we report the high resolution structures of the major pilin subunit, P
114    These x-ray structures are also the first high resolution structures of the Pierisin subgroup of t
115 CRBP1 in a ligand-free form as well as ultra-high resolution structures of this protein bound to eith
116                                     Based on high resolution structures of TRPV1, we discuss T406 bei
117                           Despite efforts, a high-resolution structure of a channel for this family o
118 sue of Cell, Gong et al. (2019) describe the high-resolution structure of a critical component of the
119                                  We report a high-resolution structure of a designed MPER trimer asse
120                  Here, we describe the first high-resolution structure of a full-length PLC-gamma iso
121                                            A high-resolution structure of a holotoxin embedded in mem
122                          We solved the first high-resolution structure of a peptide docking motif (PI
123 al information; currently, there is only one high-resolution structure of a plant sHsp published, tha
124 vious structure of bacterial ELIC (the first high-resolution structure of a pLGIC) as a "locally clos
125                           Here, we present a high-resolution structure of a proteorhodopsin from a pe
126                     Here we report the first high-resolution structure of a SctK protein family membe
127                        Our study reveals the high-resolution structure of a small molecule bound to F
128                           We report here the high-resolution structure of a ternary complex of SARS-C
129 -tube crystal structure represents the first high-resolution structure of a virally encoded DNA-trans
130   We present functional characterization and high-resolution structure of an Organic Lake Phycodnavir
131  FliD from Pseudomonas aeruginosa, the first high-resolution structure of any FliD protein from any b
132                           Determination of a high-resolution structure of APETx2 combined with scanni
133                                          The high-resolution structure of authentic infectious prions
134       We have determined and report here the high-resolution structure of B19 virus-like particles (V
135               Homology models based upon the high-resolution structure of bacterial NaV channels pred
136                      However, by solving the high-resolution structure of both the wild-type and muta
137 elling activity is hindered by the lack of a high-resolution structure of complexes from this family.
138                           Here we solved the high-resolution structure of DISC1 C-terminal tail in co
139                                 Although the high-resolution structure of EF-G bound to the posttrans
140 r monomeric actin (G-actin) are available, a high-resolution structure of F-actin is still missing, h
141                   Here, we present the first high-resolution structure of hGMPK in the apo form, dete
142                                          The high-resolution structure of holo-PS1 is in sub-A agreem
143                                    While the high-resolution structure of human PHPT1 (hPHPT1) is ava
144                To date, however, there is no high-resolution structure of iC3b, and some aspects of i
145 cked a library of 600,000 fragments into the high-resolution structure of KDM4A.
146                             Here we show the high-resolution structure of melon (Cucumis melo) eIF4E
147                         Here, we present the high-resolution structure of netrin-4, which shows uniqu
148                         We report a complete high-resolution structure of the 200 kDa alpha-actinin-2
149 due with leucine (p.P72L) that, based on the high-resolution structure of the 28S ribosome, is predic
150                       We have determined the high-resolution structure of the BPV capsid assembled fr
151 this issue of Blood, Zhou et al reported the high-resolution structure of the collagen-activated oste
152                    Here we present the first high-resolution structure of the complex between an intr
153                             We now present a high-resolution structure of the Ctf3c bound to the Cnn1
154     Now, Fernandez-Martinez et al. present a high-resolution structure of the cytoplasmic nuclear por
155                               We present the high-resolution structure of the entire AFP particle in
156                             We report here a high-resolution structure of the Est3 telomerase subunit
157                                          The high-resolution structure of the eukaryotic ribosome fro
158                          Here, we describe a high-resolution structure of the export apparatus of the
159                                            A high-resolution structure of the hC3Nb3-C345c complex ex
160  identified a sodium ion binding pocket in a high-resolution structure of the human adenosine A2A rec
161 t sequencing approaches to generate a global high-resolution structure of the IAV genome.
162 infectious scrapie form known as PrP(Sc) The high-resolution structure of the infectious PrP(Sc) stat
163                        Here, we determined a high-resolution structure of the LT, an outer membrane l
164                                          The high-resolution structure of the mammalian ribosome-Sec6
165                             According to the high-resolution structure of the mature virion, VI and V
166                              Since the first high-resolution structure of the nucleosome was reported
167                                   Although a high-resolution structure of the protein is still lackin
168  crystal scanning approach, we determine the high-resolution structure of the radiation sensitive mol
169                    Here we present the first high-resolution structure of the receptor type found in
170                          Here, we report the high-resolution structure of the tail adaptor protein gp
171                           Here we report the high-resolution structure of the unbound IKKbeta-binding
172                            Understanding the high-resolution structure of the Z-band will help us und
173 cture of the IL-1alpha/aptamer, we provide a high-resolution structure of this critical cytokine and
174 allow for further efforts toward obtaining a high-resolution structure of this important signaling co
175 s TPP1 at telomeres, setting the stage for a high-resolution structure of this interface.
176   Here, we determined the first 1.3 angstrom high-resolution structure of this life-extending protein
177                           We reconstructed a high-resolution structure of WHAMM's MT-binding motif (M
178                              Here, we report high-resolution structures of 4 states on the pathway of
179         However, despite the availability of high-resolution structures of a mouse 5-HT(3) receptor,
180 made possible the determination of the first high-resolution structures of a peptide and a protein in
181 pening, and activation-gate closure based on high-resolution structures of a single sodium channel pr
182 utiny of the myosin superfamily, the lack of high-resolution structures of actin-bound states has pre
183                                        While high-resolution structures of all three proteins have be
184 -EM) has emerged as a method for determining high-resolution structures of biological macromolecules
185                                  Determining high-resolution structures of biological macromolecules
186                                    Recently, high-resolution structures of both open- and closed-pore
187      Altogether, our database consists of 37 high-resolution structures of caspase-3 variants, and we
188                             Here, we present high-resolution structures of catalytic domain 2 from Da
189             Therefore, we used the available high-resolution structures of DEBS domains to model the
190                                   We present high-resolution structures of Deinococcus radiodurans (D
191  document molecular features consistent with high-resolution structures of engineered soluble and det
192 n isoforms and modeling muscle diseases, but high-resolution structures of fruit fly contractile prot
193                                     However, high-resolution structures of full-length monomeric M1 a
194                         Here, we present two high-resolution structures of Helicobacter pylori XerH w
195  are not known, due, in part, to the lack of high-resolution structures of highly tension-sensitive m
196                                              High-resolution structures of HIV-1 intasomes are requir
197  program, CATM, predicts ab initio the known high-resolution structures of homodimeric GASright motif
198                                We determined high-resolution structures of human GCH1-GFRP complexes
199                          Here we present the high-resolution structures of human GPR52 in three state
200                              Here we present high-resolution structures of human Sirt2 in complex wit
201           To address this problem, we solved high-resolution structures of human TDG bound to DNA wit
202                             Although several high-resolution structures of individual NOS domains hav
203                                Making use of high-resolution structures of individual VSG domains, we
204 bly by a momentous increase in the number of high-resolution structures of ion channels, which are pu
205                               By determining high-resolution structures of key components of this mot
206  is entering an exciting time where many new high-resolution structures of large complexes and membra
207                         However, the lack of high-resolution structures of Lmod nucleators in action
208 yo-electron microscopy (cryo-EM) to generate high-resolution structures of macromolecular complexes h
209                              Here, we report high-resolution structures of Magnetospirillum gryphiswa
210 on microscopy is currently poised to produce high-resolution structures of many biological assemblies
211 escribed in budding yeast, and there are now high-resolution structures of many components of the yea
212                           Our study provides high-resolution structures of medically relevant FluPol(
213                                              High-resolution structures of metalloamyloids are needed
214                           Here we report the high-resolution structures of MvINS, an Insig homolog fr
215                           Here, we determine high-resolution structures of Myo7a and Myo7b C-terminal
216                               The absence of high-resolution structures of oligomers formed by alpha-
217                                              High-resolution structures of oligomers formed by the be
218 hts into receptor-ligand interactions, while high-resolution structures of other members of the penta
219 ivity, is poorly understood, largely because high-resolution structures of PfAct1 filaments were miss
220                                We determined high-resolution structures of Phactr1/PP1 bound to the d
221                           We have determined high-resolution structures of PhnZ bound to its substrat
222             Despite the existence of several high-resolution structures of pLGICs, their dynamical pr
223                                          Our high-resolution structures of pro-activin A share featur
224 tal during the past two decades in providing high-resolution structures of protein complexes.
225                                    We report high-resolution structures of retrovirus-like capsids fo
226                               The absence of high-resolution structures of RyR1 has limited our under
227 d groups of clan CD peptidases, there are no high-resolution structures of separases and the details
228                              Here we present high-resolution structures of several DHBV capsid-like p
229 al crystallography and the ability to obtain high-resolution structures of small crystals without the
230 yo-EM methodologies can be used to determine high-resolution structures of specimens amassing less th
231                                       Recent high-resolution structures of TAR-protein complexes have
232                                           No high-resolution structures of tau filaments are availabl
233                          We report the first high-resolution structures of TDG in an enzyme-substrate
234                                 We generated high-resolution structures of the 1E6 TCR bound to 7 alt
235                                  A number of high-resolution structures of the 20S proteasome with an
236 on-competent state is unclear due to lack of high-resolution structures of the activated state.
237 in information on ANK folding, we solved two high-resolution structures of the ANK repeat-containing
238                                Complementary high-resolution structures of the apo- and Cx-SAM bound
239     Here, I review the extensive ensemble of high-resolution structures of the building blocks of the
240                        Here we determine the high-resolution structures of the catalytic domain compr
241                              Here we present high-resolution structures of the complete EphA4 ectodom
242                          Here, we determined high-resolution structures of the complex of neurexophil
243                                      Several high-resolution structures of the CTD-CTD dimerization i
244                                              High-resolution structures of the curved assembly, or in
245                                              High-resolution structures of the designed proteins CA01
246                               Here we report high-resolution structures of the DH and PH domains and
247                                    Here, the high-resolution structures of the homologous 22-residue
248                                      Because high-resolution structures of the human LRRK2 kinase dom
249                                 There are no high-resolution structures of the human transporters ava
250 nisms of which remain unclear due to lack of high-resolution structures of the ligand/co-receptor/rec
251  change remains unresolved and in most cases high-resolution structures of the non-specific complexes
252                                              High-resolution structures of the protein from Gloeobact
253 ng their predicted folding pathways based on high-resolution structures of the proteins in their nati
254                           We also determined high-resolution structures of the trimeric MERS-CoV S ec
255               In this paper, we describe the high-resolution structures of the two main astrovirus ca
256 y Cramer and Ben-Shem and colleagues present high-resolution structures of the yeast SAGA transcripti
257 es, NMR has recently provided the first-ever high-resolution structures of their complexes with unfol
258 -crystallin (ABC) and HSP27; here we present high-resolution structures of their core domains (cABC,
259                                         With high-resolution structures of these engineered NaK chann
260                                              High-resolution structures of these proteins while they
261 y of L is largely unknown due to the lack of high-resolution structures of this complex in this viral
262                                              High-resolution structures of this protein and its assoc
263                This study obtained the first high-resolution structures of three human bocaparvovirus
264         In this issue, Alushin et al. report high-resolution structures of three states of the microt
265                              Here we present high-resolution structures of toluene 4-monooxygenase hy
266                          Here, we determined high-resolution structures of wild-type Escherichia coli
267                               Here we report high-resolution structures of yeast Rev1 with three BP-N
268                                          The high-resolution structures of yeast RNase for mitochondr
269                                      Because high-resolution structures of zfV2 and mammalian V1 have
270                                              High-resolution structures often fail to capture the cou
271 ometer spatial resolution cell that opens up high resolution structure-(photo)activity measurements.
272 ructurally largely uncharacterized and their high-resolution structure prediction is currently hinder
273                                              High-resolution structures provide new insights into how
274                                          The high-resolution structure provides detailed insight into
275 Env constructs and ligand complexes used for high-resolution structures recently revealed that they c
276  Owing to their large size (nearly 2.2 MDa), high-resolution structures remained elusive until the ad
277                                 Furthermore, high-resolution structures representative of nearly ever
278           Enabled by the growing database of high-resolution structures, required deposition of diffr
279 ing protein secondary structure content from high-resolution structures requires definitions and thre
280                                        These high resolution structures reveal a conserved positively
281                                        These high resolution structures revealed a hydrophobic groove
282                                              High-resolution structures revealed that in a two-antibo
283                                            A high-resolution structure reveals how the ribonucleoprot
284                                          The high-resolution structure reveals unambiguously the heli
285                                              High-resolution structures show common patterns of stero
286          The data, together with a survey of high resolution structures, show that the vast majority
287                                          The high resolution structures showed that removal of the ar
288                              However, unlike high-resolution structures stored in PDB, methods for co
289                         Furthermore, despite high resolution structures the transported substrate in
290 haracterizing RNA-protein interactions, from high resolution structures to transcriptome-wide profili
291          This work emphasizes the need for a high-resolution structure to guide mutational analysis a
292 rial femtosecond crystallography has allowed high-resolution structures to be determined from micro-m
293 ically realistic atomistic models from known high-resolution structures to determine joint x-ray and
294 mrE, efforts are now underway to determine a high-resolution structure using the S64V mutant identifi
295  isotopic labeling have enabled us to obtain high-resolution structures using fusion proteins, unifor
296 er technique offers the possibility to solve high-resolution structures using submicron crystals.
297                                            A high-resolution structure was solved for a (full-length
298  its solution behavior and compare it to the high-resolution structure we previously published on ver
299                         Prior to achieving a high-resolution structure, we are investigating whether
300                                              High-resolution structures were determined for four of t

 
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