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1 biomolecule-solvent interactions affect the structure-function relationship.
2 re formed, is critical to understanding this structure-function relationship.
3 nfections, but little is known about the CPB structure-function relationship.
4 ent valuable probes to better understand its structure-function relationship.
5 rogress toward complete understanding of the structure-function relationship.
6 processes, and may help in understanding the structure-function relationship.
7 The mammalian X chromosome exemplifies this structure-function relationship.
8 a general strategy in studies of riboswitch structure-function relationship.
9 domain proteins and summarize the underlying structure-function relationships.
10 I field from the perspective of the enzyme's structure-function relationships.
11 s, permitting the characterization of robust structure-function relationships.
12 cs that can advance our understanding of OPV structure-function relationships.
13 to generate a global view of their sequence-structure-function relationships.
14 evolutionary change as a tool to understand structure-function relationships.
15 interactions and the unique features of MTIV structure-function relationships.
16 Q5LIW1 may be a suitable system to study API structure-function relationships.
17 system for the study of cardiac contractile structure-function relationships.
18 regions play distinct roles in terms of Fur structure-function relationships.
19 sed SiaDW-135 as a model system to delineate structure-function relationships.
20 xanthine that remain unknown with respect to structure-function relationships.
21 ation and for research on bio-nanomechanical structure-function relationships.
22 ntal and computational studies to understand structure-function relationships.
23 etation of attempts to directly dissect Rap1 structure-function relationships.
24 to provide a unique perspective on sequence-structure-function relationships.
25 g development or providing new insights into structure-function relationships.
26 brane oxygenation type did not influence the structure-function relationships.
27 sed drug discovery and understanding protein structure-function relationships.
28 ing remodeling can be used to understand ECM structure-function relationships.
29 , providing some insight into the underlying structure-function relationships.
30 a given protein and plays critical roles in structure/function relationships.
31 directing peptides that control nanoparticle structure/function relationships.
32 ablok regression was used to investigate the structure/function relationships.
33 in dynamics to develop insight into protein structure/function relationships.
34 nal NMR structure and thus gain insight into structure-function relationships, a prerequisite to unde
35 dimensions and for the formation of rigorous structure-function relationships across multiple size re
37 te neurons, their local computations, or the structure-function relationship among corticogeniculate
38 abolism will facilitate the establishment of structure-function relationships among a large group of
42 ic activity is critical in understanding the structure-function relationship and enzymatic reaction d
43 tion X-ray data will connect dynamics to the structure-function relationship and help drive new desig
44 amental neuroscience questions including the structure-function relationship and neuronal cell-type c
45 rd a more comprehensive understanding of the structure-function relationship and physiology of aaNATs
46 lays important roles in the study of protein structure-function relationship and protein evolution.
47 eby provide fundamental insights into AT(1)R structure-function relationship and structure-based drug
48 benefit from the establishment of synthesis-structure-function relationships and a deeper understand
49 ds are incorporated into proteins to explore structure-function relationships and create novel protei
50 molecular motors can provide direct tests of structure-function relationships and customized componen
51 ed hydrophobic tunnel, shedding new light on structure-function relationships and inhibition mechanis
53 tor function provide direct tests of protein structure-function relationships and potential tools for
54 ins offers a powerful approach for exploring structure-function relationships and potentially uncover
55 these molecules requires characterization of structure-function relationships and subsequent improvem
56 anding of viral RNA-dependent RNA polymerase structure-function relationships and suggest that positi
57 n will facilitate the understanding of novel structure-function relationships and the development and
58 itional avenues for understanding unexplored structure-function relationships and the development of
59 omposition and turnover contribute to tendon structure-function relationships and the effects of agei
61 for future investigations of the gray-matter structure/function relationship and its breakdown in pat
65 the IFM is poorly defined, therefore tendon structure-function relationships are incompletely unders
68 d several subdomains to establish a detailed structure-function relationship at the lipid/water inter
70 the importance of understanding fundamental structure-function relationships at the ESCRT-HIV-1 inte
72 eft ventricular ejection fraction suggests a structure-function relationship between altered ECV and
73 These modularity findings corroborate the structure-function relationship between amygdala anatomi
74 gonists (PA), into the cell to determine the structure-function relationship between IP(3) and its re
75 basis of its mode of action, we analyzed the structure-function relationship between Lipid II, the im
76 we comprehensively investigated the sequence-structure-function relationship between RHOGAPs and RHO
77 studies have not only provided insights into structure-function relationships but have also identifie
78 Importantly, we provide a direct test of structure-function relationships by correlating strain h
79 Thus, Lti30 conforms to the general theme of structure-function relationships by folding upon binding
81 ailed description of Arabidopsis leaf waxes, structure-function relationships can now be established
82 rther research and steps needed to implement structure-function relationships clinically are explored
83 itory core will facilitate investigations of structure-function relationships, comparative neuroanato
84 rogress has been made in understanding their structure-function relationship, diversity and applicati
88 anti-agglomerants from the point of view of structure-function relationships, focussing on recent re
89 of viral capsids as an approach to defining structure function relationships for viral capsid protei
90 the CCS-mass 2D spectrum, suggesting a tight structure-function relationship for each class of drugs
91 initial understanding of a critical sequence-structure-function relationship for the ovodefensin fami
92 applications, offering a previously missing structure-function relationship for the rational design
93 addition, an initial characterization of the structure-function relationship for these desaturases re
94 ermodynamic model that predicts the sequence-structure-function relationship for translation-regulati
95 y curated classification resource describing structure-function relationships for functionally divers
96 y curated classification resource describing structure-function relationships for functionally divers
97 ASS offers a compelling avenue for exploring structure-function relationships for large numbers of ap
98 ctuations to demonstrate sequence-dependent, structure-function relationships for metal and metal oxi
101 ononitrile, were investigated to probe their structure-function relationships for solar cell applicat
103 n cells will expand our understanding of the structure/function relationships for functionalized nano
105 ain proteins complicate the protein sequence-structure-function relationship further as new combinati
106 ew, to our knowledge, insights to understand structure-function relationships governing processivity
108 re is a great interest for understanding the structure/function relationship governing recognition of
110 mically significant sites and therefore, its structure-functions relationships have yet to be establi
111 died with respect to transport mechanism and structure-function relationships; however, the three-dim
112 diseased cells, maladaptation alters protein structure-function relationships, impacts protein foldin
113 ical framework to systematically explore the structure-function relationship in biological, social, a
115 nically relevant changes to BRCA1 affect its structure-function relationship in hereditary breast can
117 h high spectral precision to investigate the structure-function relationship in nano-phase separated
118 In addition to gaining insight into the structure-function relationship in PSMs, our study ident
119 both arms and legs, and reflected a specific structure-function relationship in the human spinal cord
120 identified genes, known structures, and the structure-function relationship in the underlying biolog
121 r study shows that comprehensive analysis of structure-function relationships in a newly characterize
122 DAR2 and established a new tool for defining structure-function relationships in ADAR reactions.
125 akes PsChR important for further research on structure-function relationships in ChRs and potentially
126 od will see application in future studies of structure-function relationships in collagen gels as wel
127 migration pathways is critical to unraveling structure-function relationships in enzymes that process
128 historical perspective is used to understand structure-function relationships in glaucoma and their a
129 on (Tat) transgenic mouse model and examined structure-function relationships in hippocampal pyramida
130 , thereby opening new avenues to explore RNA structure-function relationships in living organisms.
132 ments have advanced our understanding of the structure-function relationships in molecular junctions,
133 al models can provide valuable insights into structure-function relationships in ncRNAs and can aid i
134 thods have successfully been used to explore structure-function relationships in nervous systems, to
135 , which is consistent with the literature on structure-function relationships in NMDA receptors, and
136 ions represent a significant step forward in structure-function relationships in organic semiconducto
137 ion by AgrA and provides novel insights into structure-function relationships in S. aureus AgrA.
138 imaging (dMRI) has opened new doors to study structure-function relationships in the human brain.
140 provides a comprehensive picture of sequence-structure-function relationships in the RNHL superfamily
142 rt limited by an incomplete understanding of structure-function relationships in these load-bearing t
143 ned with the knowledge-based analysis of the structure-function relationships in these proteins and t
144 on analysis for gaining insight into protein structure-function relationships in vivo and point to po
145 ography hinder the ability to understand the structure/function relationship in chemical reactions.
147 The results clarify uncertainties regarding structure/function relationships in Dbr1 enzymes, and th
148 election can result in significantly altered structure/function relationships in homologous cortical
150 e multiscale approach we used to interrogate structure/function relationships in the long disordered
154 A(syn):dATP, T:dCTP, and T:dGTP to study the structure-function relationships involved with aberrant
159 acilitate study of phosphorylation-dependent structure-function relationships, kinase signalling netw
160 basis for the molecular dissection of GAPDH1 structure-function relationships Knockdown of GAPDH1 exp
161 two families of channels suggest that their structure-function relationships may have common feature
164 require a genuine understanding of catalyst structure-function relationships, not only with respect
165 ermination is the basis of understanding the structure-function relationship of a multidomain protein
167 general design principles that describe the structure-function relationship of alternative sigma fac
169 ells, but may also provide insights into the structure-function relationship of caspase 8 homodimers
171 -particle, optical spectroscopy to study the structure-function relationship of chlorosomes each of w
172 Duchenne/Becker muscular dystrophy, but the structure-function relationship of dystrophin is poorly
173 ss of natural variation in understanding the structure-function relationship of enzymes involved in s
175 Understanding how these mutations affect the structure-function relationship of IDPs is a formidable
176 he role of hydration layers in governing the structure-function relationship of intrinsically disorde
177 ICANCE: These findings provide insights into structure-function relationship of ion channels and cont
181 idated, many questions remained, such as the structure-function relationship of monomeric unprocessed
182 y has not only deepened our understanding of structure-function relationship of PB1, but also promote
189 vide a minimalistic environment to study the structure-function relationship of the brain circuitry.
191 l characterization to elucidate the sequence-structure-function relationship of the GNAT superfamily
194 p1, revealing remarkable conservation of the structure-function relationship of these residues across
195 the protein and may provide insight into the structure-function relationship of this enzyme, which is
196 e helpful in defining several aspects of the structure-function relationship of this important cotran
197 release; however, little is known about the structure-function relationship of this ligand-receptor
201 been studied for decades, exploration of the structure-function relationship of VRAC has become possi
203 DE6 represents an effective tool for probing structure-function relationships of AIPL1 and reliably e
207 esolution imaging approaches for elucidating structure-function relationships of dendritic spines.
208 entification parameter and the assessment of structure-function relationships of drugs using IM-MS.
209 This study provides novel insights into the structure-function relationships of glucansucrase enzyme
210 y provides clear and novel insights into the structure-function relationships of glucansucrase enzyme
212 vitro models that recapitulate the essential structure-function relationships of healthy and diseased
214 To provide a framework for investigating structure-function relationships of Hsp21 and understand
216 protein in brown adipose tissues as well as structure-function relationships of other mammalian UCPs
218 ic stabilities are pivotal for understanding structure-function relationships of proteins, and yet su
222 d further elucidate electrostatic and steric structure-function relationships of the light-gated pore
223 c data are discussed and compared with known structure-function relationships of the mammalian peroxi
224 or to identifying and exploring the specific structure-function relationships of the multitude of low
225 responding proteins has been used to explore structure-function relationships of the NO-responsive tr
226 viruses will be useful in further studies on structure-function relationships of the orthobunyavirus
228 establish a framework for understanding the structure-function relationships of the XPC complex in t
229 s, an essential milestone in the analysis of structure-function relationships of these carbohydrates.
230 abidopsis is essential for insights into the structure-function relationships of these molecules and
231 g of the molecular design, self-assembly and structure-function relationships of these natural amyloi
233 rted structural and biophysical studies, the structure-function relationships of this protein remain
240 ukaryotic model systems, we investigated the structure/function relationships of a naturally minimize
241 n planta This study offers new insights into structure/function relationships of oomycete RXLR effect
243 r protonema, it will allow dissection of the structure/function relationships of the different domain
244 understanding of the effects of nanoparticle structure-function relationships on intratracheal delive
245 ates that experimental approaches can reveal structure-function relationships out of reach of current
246 duced enhancements are critically related to structure-function relationships, particularly those aff
247 re still many unanswered questions regarding structure-function relationships, perm-selectivity, and
248 have yielded critical insights into saponin structure-function relationships, provided practical syn
249 electron transport to electrodes and reveal structure-function relationships relevant to developing
250 rmation processing they perform, yet network structure-function relationships remain poorly understoo
251 and electrophysiological properties of KCC2, structure-function relationships remain poorly understoo
252 pertaining to mammalian cardiac contractile structure-function relationships remains to be resolved.
255 ormed both in vivo and in vitro to study RNA structure-function relationships, RNA regulation of gene
257 fide structure information should facilitate structure-function relationship studies on this new clas
260 olution NMR can provide insights into enzyme structure-function relationships that are difficult to o
261 uit design, information processing, and gene-structure-function relationships that are not apparent f
263 mide (1) is disclosed along with fundamental structure-function relationships that delineate the role
265 ols and to elucidate the underlying sequence-structure-function relationships that empower rational d
267 ies are still required to elucidate critical structure-function relationships that govern microporosi
269 nto the roles of CLC Bateman domains and the structure-function relationships that govern the regulat
270 trix (ECM) is crucial for the elucidation of structure-function relationships that will aid the devel
271 gnaling mechanisms and for understanding the structure/function relationships that mediate intraprote
274 Important future questions will focus on structure-function relationships, their roles in signali
275 endows higher-order functionality through a structure-function relationship, though the organization
276 inophil-derived granule proteins in terms of structure-function relationships to advance understandin
277 ustrates opportunities for the resolution of structure-function relationships to aid in the developme
278 her our mechanistic understanding of polymer structure-function relationships to allow the rational d
279 ose that use cross-sectional data to explore structure-function relationships to improve glaucoma dia
281 a powerful tool for future investigation of structure-function relationships underlying physiologica
282 lexes provides new mechanistic insights into structure-function relationships underlying telomere mai
283 use of its ability to reveal dynamics in the structure-function relationships underlying the heteroge
284 studies that attempt to create a map of the structure-function relationship using fundus photography
285 inst pathogenic microorganisms, and assessed structure-function relationships using alanine analogues
286 a new platform for studying genome dynamics, structure-function relationships, virus-host interaction
293 nction in the face of mutation, and to probe structure/function relationships, we created a library o
294 m these nanostructures was defined through a structure-function relationship, whereby the half-life o
295 other organs, elucidating their differential structure-function relationships with Gs and Golf might
296 gs open up new avenues for investigating the structure-function relationship within the MPC complex.
299 rovide a framework to better investigate the structure-function relationships within the GH62 family.
300 t biological role, little is known about the structure/function relationship within ACKR2, which regu
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