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1 sulting series of NCs can provide insightful understanding of how a single atom affects the structure
3 These structural observations advance the understanding of how a single protein, CDTb, can mediate
5 intercellular levels in short timescales, an understanding of how Abeta fibrillization usually starts
8 cificity remain error prone due to a lack of understanding of how adjacent fingers influence each oth
10 en together, these findings provide in-depth understanding of how alkyl-PTE lesions are recognized by
11 as a maintenance strategy have enhanced our understanding of how and when to utilize this interventi
14 pite a growing number of investigations, our understanding of how and why this recovery occurs is ver
17 urgently need to gain a better quantitative understanding of how antibiotics act, which in turn woul
18 future areas of study needed to advance our understanding of how ApoE influences neurodegeneration.
21 gst P-type pumps and this study furthers our understanding of how bacteria control potassium homeosta
23 enabled biochemical studies that deepen our understanding of how bacterial cell wall enzymes coopera
25 ability for many species is needed, as is an understanding of how barriers to dispersal may impact vu
27 ances in microbiome science require a better understanding of how beneficial microbes adapt to hosts.
29 d frontotemporal dementia (FTD), yet a clear understanding of how C9 fits into the broader context of
33 function of the cerebellum and advances our understanding of how Caspr2 dysfunction might lead to sp
35 of cellular iron has produced a more nuanced understanding of how cells utilize this crucial nutrient
37 t centers, underscoring the need for greater understanding of how centers make decisions about organs
38 echanism of oligomerization will further our understanding of how chaperones maintain the proteome.
39 osomes, potentially bridging the gaps in our understanding of how chromatin works within living cells
40 inical links are well established, molecular understanding of how chronic inflammation leads to the d
41 findings suggest that a deeper systems-level understanding of how ciliary proteins function together
43 her patterns and phenology; however, we lack understanding of how climate drives phenological change
44 in materials science requires a fundamental understanding of how close packing of molecules can affe
45 mary, our analyses provide insights into the understanding of how complex morphological traits are sh
46 istorical hypotheses and discuss the present understanding of how corals evolved and how their skelet
48 ween different delivery modes can add to our understanding of how CS contributes to disease patterns
50 in psychostimulant-shaped behaviors, and new understanding of how D1-medium spiny neurons encode the
51 ys clear, at least in part because of a poor understanding of how different feeding behaviors impact
53 oaches provide powerful tools to further our understanding of how different opioids affect signaling
54 ntegrating this information with an emerging understanding of how different tumor mutations influence
57 which remain poorly characterized, impeding understanding of how disease-associated mutations cause
58 of microbial diversity and function, but our understanding of how dispersal influences responses to n
59 an important building block for the broader understanding of how distracters are suppressed, and of
60 y, researchers and managers require a better understanding of how diverse species respond to extreme
61 mechanical properties of DNA has limited our understanding of how DNA mechanics influence chromatin t
62 is work lays the foundation for a structural understanding of how DNA targeting by TniQ-Cascade leads
64 nflammatory skin conditions relies on a deep understanding of how drugs and tissue behave and interac
65 isolation and when grown together helps our understanding of how ecological communities more general
71 diversity is critical to a more mechanistic understanding of how EM fungi mediate forest soil biogeo
76 scent erythrocytes, which alters our current understanding of how erythrocyte degradation is regulate
77 e example is the progressively sophisticated understanding of how extinction underlies the exposure t
80 diate below-ground resource acquisition, yet understanding of how fine-root functional traits vary al
81 blow flies will allow a refined evolutionary understanding of how flies with a typical X/Y heterogame
83 h the progress and the limits of our current understanding of how force generation can be controlled
84 recognition of its functional relevance, our understanding of how FWU occurs and which foliar surface
86 ects from GC, thereby necessitating a better understanding of how GCs modulate the immune response.
88 the magnitude of genetic effects and little understanding of how genetic factors might influence car
90 of a scarcity of functional studies and poor understanding of how genetic or gene expression landscap
91 nscriptional mechanisms can help improve our understanding of how genetic variants exert their effect
92 s in genomics have dramatically advanced our understanding of how genetics contributes to host resist
94 r hierarchical control of Gq and changes our understanding of how Gi-GPCRs trigger [Ca(2+)](i) via PL
98 differentiation to gain a more comprehensive understanding of how habitat loss and fragmentation infl
99 able respiratory model systems has precluded understanding of how herpesvirus virions overcome the ab
100 This model offers great promise for basic understanding of how HIV-1 infection alters the CNS comp
102 plasticity of cells during development, the understanding of how human trisomy 21 effects Down syndr
104 ically informed conservation and advance our understanding of how imperiled species might be rescued
105 ree-living communities, but we still lack an understanding of how important interspecific association
106 sed organelles and therapeutics, however, an understanding of how individual molecules contribute to
107 Achieving this goal will require a detailed understanding of how infection history impacts humoral r
109 re have been significant advancements in our understanding of how inflammation contributes to the pat
112 In this Review, we summarize our current understanding of how interactions between RGCs and their
113 puts of the CeA and pave the way to a better understanding of how internal, external, and experience
115 to get direct access to the molecular-level understanding of how ions change the structure and dynam
116 metastasis , but we still have a superficial understanding of how it affects cellular processes durin
117 factor for multiple sclerosis (MS), but our understanding of how it contributes to MS is limited.
118 er and neurodegeneration, and so an in-depth understanding of how it is regulated has implications fo
119 cosystem experiencing rapid warming, yet our understanding of how its diverse assemblage of endemic s
121 d in pollinator declines worldwide, a better understanding of how land use change impacts species int
123 source availability, and provide an improved understanding of how landscape-level features can impact
125 ghts both the progress and the limits of our understanding of how (lipo)polysaccharides, (glyco)lipid
128 been studied intensively; however, a unified understanding of how localisation and protein activity f
129 ch using this model continues to advance our understanding of how macrophages, and specific pathways
130 operando neutron measurements can allow for understanding of how materials behave throughout operati
131 nd that should be a goal for a comprehensive understanding of how mechanical load influences cell sig
132 ach to neuroscience can greatly increase our understanding of how mechanisms map onto behaviour.
133 of biocompatible electronics and enhance our understanding of how membrane potential regulates organe
134 his review summarizes recent advances in our understanding of how metal sensor proteins respond to in
135 In this study, we contribute an atomic-level understanding of how methadone exerts its unique functio
140 we review recent advances in our mechanistic understanding of how microbiota-derived metabolites orch
141 crobial ecology and dramatically improve our understanding of how microorganisms function in their na
142 on for the assembled complex has hindered an understanding of how Microprocessor recognizes primary m
145 otors allows us to challenge our fundamental understanding of how molecular motors transduce energy.
146 dies supporting this function, a mechanistic understanding of how Msp1 extracts its substrates is sti
147 due to numerous human-caused stressors, our understanding of how multiple stressors influence BEF re
149 polydisperse fiber lengths and an incomplete understanding of how nanofiber length affects biological
150 ental variability due to climate change, our understanding of how natural populations persist and res
151 lable for anthropogenic-related threats, our understanding of how naturally occurring extreme events
153 rs on spinal network output and advances our understanding of how neuromodulators regulate neural net
157 esolution analyses fundamentally advance our understanding of how niche factors shape SC biology and
158 e current findings significantly improve our understanding of how nicotine changes corticostriatal ci
159 there have been significant advances in our understanding of how nitrogenase orchestrates electron t
160 adsorption and catalysis, but a mechanistic understanding of how nonaqueous solvents influence catal
161 These studies have greatly advanced our understanding of how noxious mechanical stimuli are dete
162 Such work will significantly advance our understanding of how opioids cause persistent changes to
163 of the IPR in C. elegans, which adds to our understanding of how organisms cope with proteotoxic str
164 metry for grasping in the PMC and expand our understanding of how our brain integrates visual and mot
165 rrently, however, we lack a full mechanistic understanding of how oxygen deficiency affects organic c
166 ries and their adaptive tolerances, a fuller understanding of how past climatic and ecological change
167 nally, we discuss recent developments in our understanding of how pathogens can evade ETI to overcome
168 been made in plant pathology, broadening our understanding of how pathogens colonize their hosts.
169 iew, we highlight recent developments in our understanding of how pathogens invade and survive within
175 t research by Fan and colleagues deepens our understanding of how physical stress alters the immune s
176 major drivers is needed to achieve a better understanding of how plants adapt to different environme
180 ies found in the tropics, yet we have little understanding of how projected changes in climate are li
182 bly slow without metal cofactors, a detailed understanding of how protein structure can influence cat
183 network are generally well established, our understanding of how protein-folding problems are identi
187 erous evolutionary phenomena, we have a poor understanding of how recombination rate itself varies an
188 This chicken skin paradigm advances our understanding of how regulation of big gene clusters can
190 h on the molecular mechanisms of resistance, understanding of how resistance evolves remains limited.
191 with important implications for a predictive understanding of how RNA is recognized and for RNA-targe
192 eostasis through CLASP, and they advance our understanding of how roots modulate their growth accordi
194 the beta-lactam antibiotics through a better understanding of how S. aureus protects the enzyme targe
195 pulation genetic approaches is improving our understanding of how selection acts on key floral traits
198 gether, a more comprehensive and mechanistic understanding of how sex differences in dopamine functio
200 EWAS and have important implications for our understanding of how smoking affects immune-cell subtype
202 cal C protection mechanisms, challenging our understanding of how soil C may respond to climate-media
203 of soil organic matter (SOM) is vital to our understanding of how soils form, evolve and respond to e
204 approaches have provided insights toward our understanding of how sophisticated cellular machineries
205 ues, and live-cell imaging have advanced our understanding of how specific myosins function at indivi
206 Neuroimaging has radically improved our understanding of how speech and language abilities map t
208 nd veterinarians is warranted to further our understanding of how stones form and to consider possibl
209 mporary earthquake hazard models hinge on an understanding of how strain is distributed in the crust
215 hat should always be enveloped by a thorough understanding of how systems and the social exposome sha
217 g the results of this study with our current understanding of how TGF-beta1 regulates microglia polar
222 ctive HIV-1 antibodies will require a better understanding of how the biophysical properties of the e
223 findings present an important advance in our understanding of how the brain might use Bayesian infere
224 europharmacology has not yet achieved a full understanding of how the brain transitions between state
227 ponses to perceptual figures, we have a poor understanding of how the early visual system contributes
229 . microporus should contribute to the better understanding of how the fungus is able to facilitate wo
230 This Review examines recent progress in our understanding of how the future looks for forests growin
231 eural activity are an important tool for the understanding of how the healthy brain can maintain stab
237 ovations in healthcare delivery and a deeper understanding of how the liver and other vital organs su
238 behaviour, and can be used to gain a better understanding of how the many choice phenomena and key t
239 OFs, COFs, etc.) is presently limited by our understanding of how the molecular constituents assemble
240 as the potential to be transformative to our understanding of how the most energetic particles in the
241 r kills, but we currently lack a mechanistic understanding of how the multiple facets of climate inte
243 review discusses recent developments in our understanding of how the physiology of high-latitude mar
246 CE STATEMENT Findings here contribute to our understanding of how the serotonin system underlies an i
247 le are rare, and consequently we have a poor understanding of how the taxonomic and functional microb
248 inations is limited, in part by insufficient understanding of how the transcriptional response of two
250 Here we review how these structures aid our understanding of how the various mutations in the genes
252 their physiological function and our current understanding of how their dysregulation may contribute
253 lication has been frustrated by an imprecise understanding of how their signals are transduced into i
254 an by soil structure and then review current understanding of how these biological agents impact soil
258 isruption of this activity will increase our understanding of how these early circuits mature and may
264 llergen-specific immunotherapy outcomes, but understanding of how these integrate to maintain immunol
265 kpropagating action potentials, shifting our understanding of how these neurons process information,
267 and photic input pathways, but a mechanistic understanding of how these pathways collaborate in anima
269 tical for activation of RAF kinases, yet our understanding of how these proteins interact on the memb
270 emically modified forms, but we lack a clear understanding of how they alter interactions with microb
271 ain parts of the world, yet there is limited understanding of how they are consumed, particularly the
272 nic pathogen-derived epitopes and a detailed understanding of how they are recognized by TCRs is esse
273 term weight-loss strategies, coupled with an understanding of how they interface with human physiolog
274 select adsorption properties without a clear understanding of how they perform in real-world VSA proc
275 d comparative analysis to advance scientific understanding of how this core physiological system has
276 s viral infections, necessitating a detailed understanding of how this diverse family of receptors fu
279 NPQ limits photosynthesis and linking to our understanding of how this might take place on a molecula
280 s dysregulated in the brain will further our understanding of how this pathway contributes to the dev
281 issues and organs remains limited, as is our understanding of how this process could be harnessed for
282 tment options and for the basic biomolecular understanding of how this process intersects with RNA me
284 These lines of research aim to extend our understanding of how timing arises from and contributes
285 itical physiological role, a molecular-level understanding of how TJ assembly sets the permeability o
286 isease surveillance and a broader gap in our understanding of how to best use detailed spatial data t
287 self-generated states, we lack both a clear understanding of how to classify the specific states, an
289 e array of physiological processes, a deeper understanding of how to modulate mitophagy could provide
290 owledge from these regions contributes to an understanding of how to obtain a sustainable ocean.
292 bolomic tools for conifers have improved our understanding of how trees sense and respond to changes
293 pplication, but limitations exist in current understanding of how tumors exert local effects on resti
296 le alpha2delta isoforms has obscured a clear understanding of how various alpha2delta proteins contro
298 l responses during latency establishment, an understanding of how viral gene products function in spe
299 ory elements that p53 engages; reviewing our understanding of how, where, and when p53 binds to DNA a