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2 we have identified the molecular links that explain how a change in the availability of the diet met
4 P signaling in insect antiviral immunity and explain how a family of cGAS-STING evasion enzymes evolv
5 mes more popular and provides a mechanism to explain how a shared vocabulary can spontaneously self-o
6 n and a wealth of standing genetic variation explain how a single member of the biotic community can
8 activator of RodA both in vitro and in vivo, explaining how a SEDS-bPBP complex can coordinate its du
9 ed at the energetic cost of a G-C base pair, explains how a single 5'-guanosine modifies the function
10 ight on mutant aaRS disease aetiologies, and explains how aaRS sequestration of uncharged tRNAs can p
11 ction of alpha(2)delta-2 identified here may explain how abnormal alpha(2)delta subunit expression ca
12 heir scholarly target article, Gilead et al. explain how abstract mental representations and the pred
17 ensitive, providing a potential mechanism to explain how ageing influences their amplitude and functi
23 Furthermore, the identified mechanism may explain how an altered expression of calcium channel sub
24 to IgE against the native molecule and also explain how anaphylaxis may occur in individuals who lac
25 or syntax may have arisen, it is critical to explain how ancient hominins began to produce vocalizati
26 ing, distracting and misleading-that clearly explain how and why anthropogenic sensory pollutants imp
27 Here, we present a conceptual framework to explain how and why females might evaluate a male's BT b
31 inciple revealed by this work can be used to explain how any CaM-binding TF decodes calcium signals t
32 nd preference in histone incorporation would explain how asymmetric old and new H3 and H4 are establi
33 tructure of the chloroplast F(1)F(o) complex explains how ATPase activity is turned off at night by a
38 gnaling mediated transcription, which likely explains how both loss of Notch signaling and ectopic ex
39 , the presence of SIZ1 and SUMO in these NBs explains how both the timing and amplitude of the high-t
41 ential key checkpoint of cambial activities, explaining how cambium-driven growth is altered in respo
43 d by a subset of CRISPR-Cas genomic loci and explain how Cas12c/d systems avoid requirements for host
47 r further models of cell-cycle regulation to explain how cell size controls passage through Start.
48 Specifically, using a common framework, we explain how cells characterized by contact inhibition of
50 their differentiation dynamics, which could explain how changes in ACE2 promoted by SARS-CoV-2 cell
52 onically nonadiabatic PCET theory is used to explain how changing the driving force for the electron
53 ructures of Ruminococcus gnavus GUS with 2-7 explained how charge, conformation, and substituent of i
54 newly-discovered NSC-BV communication route explains how circulatory neurogenic mediators are 'sense
55 co modeling and in vitro biophysical methods explain how CK1e-specific phosphorylation events control
59 th NGD and RQC The studies also structurally explain how collided ribosomes generate a unique interfa
60 atures of this multiplexed mechanism help to explain how complex connectivity is encoded and robustly
61 ir nearest neighbours when shoaling, thereby explaining how conflict over whether private or social i
62 s of scientific inquiry, and detailed models explain how consensus impressions of trustworthiness are
63 hough considerable progress has been made in explaining how conspicuous coloration can be used in fun
70 del provides the first normative theory that explains how dendrites increase the brain's capacity for
72 protein family, are identified that begin to explain how deregulation of miR-135a may contribute to e
75 n coexistence theory is increasingly used to explain how differences between competing species lead t
76 al diversity within the ABC toxin subfamily, explaining how different ABC toxins are capable of recog
77 pare competing trophic cascade hypotheses to explain how dingoes could influence shrub recruitment.
81 tion was first proposed over 30 years ago to explain how diverse G protein-coupled receptors achieve
83 sembly provides a mechanistic framework that explains how diverse genetic disorders can converge on s
88 (TMT) is a generic sociological theory that explains how emergent projects of collective action are
90 re can modify the skin immune system and may explain how environmental exposures during life, and the
91 osylation-dependent protein sequence editing explains how ER-associated and cytosolic isoforms of SKN
92 g with enzymatic and computational analyses, explain how ERAP1 can select peptides based on length wh
96 f the amino terminus of ExsD in ExsA binding explains how ExsC might relieve the ExsD-mediated inhibi
100 We investigate whether exploratory adaption explains how GBM cells from different anatomic regions o
101 challenge that arises in these studies is to explain how genes identified as relevant in the given ex
102 se results thus provide a novel mechanism to explain how global environmental change can generate con
108 anistic models at the psychological level to explain how humans plan, execute, and consolidate skille
109 a Bayesian model of hierarchy discovery that explains how humans discover such useful abstractions.
110 oliferation through exaggerated T cell help, explaining how HVEM loss contributes to GC lymphomagenes
111 obvious electrophysiological mechanism that explains how hyperpolarizing a hub cell results in wides
113 flects characteristic features of human FLs, explaining how indolent tumors arise from GC B cells.
114 lar mRNAs to support antiviral responses and explain how influenza virus uses this same activity to r
115 ker by the chromatin remodeller INO80, which explains how INO80 can define nucleosome-depleted region
116 ds on a constructionist theory of emotion to explain how instances involving diverse physiological an
117 idyltransferase centre (PTC) completion that explains how integration of the last ribosomal proteins
119 ts provide a general conceptual framework to explain how internal signals can be integrated into our
120 Altogether, we propose a simple mechanism explaining how intracellular mechanics enable the cells
121 HF), but there is a lack of mechanistic data explaining how iron could augment exercise performance d
125 ard a focus on network and circuit models to explain how key nodes in the limbic system and beyond in
126 e same type of infection, it is essential to explain how key processes, such as host responses to inf
129 This cascade of events offers a mechanism to explain how local tissue inflammation and vascular perme
134 urrent study provides a mechanistic basis to explain how matrix controls the antifungal effector func
136 nism also ensures spatial regulation of Tfp, explaining how MglA switching provokes directional rever
137 Collectively, we derive a molecular model to explain how Microprocessor recognizes a pri-miRNA and ac
138 er microtubule nucleation pathways and helps explain how microtubules are generated in the spindle.
139 ct vertical air movements and this mechanism explains how migrants are retained in the jet for long p
143 directly affect motor performance and might explain how neural repetition effects lead to improvemen
144 However, a molecular-scale mechanism that explains how neurons appropriately balance these two mic
146 tracellular O(2) concentration may therefore explain how non-heterocyst-forming cyanobacterial diazot
147 ings are noteworthy because they may in part explain how obesity drives colon cancer progression.
148 RagC show the mechanism for this locking and explain how oncogenic hotspot mutations disrupt this pro
150 es the 'Minute' phenotype in fruit flies can explain how organisms are able to eliminate the mutant c
152 sed by IL-6 and TNF-alpha levels) may partly explain how PA protects against dementia/CIND and mortal
154 based model of value coding and gain control explains how particular neuronal constraints on informat
157 broadly, this model provides a mechanism for explaining how people condense general physical knowledg
158 approach reproduce the spectroscopy data and explain how periodic microstructures play a critical rol
159 tions for immune regulation, the results may explain how persistent activation of self-reactive B cel
161 dynamics of phosphoinositides and the other explaining how phosphatidylinositol 4,5-bisphosphate (PI
162 positively charged side chains in RPN13 that explain how phosphorylation increases binding affinity w
164 se results reveal an endogenous mechanism to explain how physical exercise leads to the induction of
165 ple model of molecular-genetic mechanisms to explain how physiological events taking place immediatel
173 branes, our results address the challenge of explaining how proteins could have become colocalized wi
175 worm target has been identified that readily explains how PZQ paralyzes and damages schistosomes.
176 concert to control actin dynamics, and help explain how rapid actin network depolymerization is achi
179 fer complementary lines of interpretation to explain how recollection and familiarity in Alzheimer's
181 uplex unwinding by replicative helicases and explains how replisome components that interact with the
184 ; Gunturkun sufficient, but not necessary to explain how reward uncertainty promotes reward seeking a
185 early indicate a more complex mechanism that explains how RGMs can act as a functionality-changing sw
187 RC2.2 bind RNA, providing a unified model to explain how RNA and allosteric stimuli antagonistically
190 verts towards homeostasis, a constraint that explains how selection operates in normal-appearing epit
192 and post-GTP hydrolysis state of RagC, which explain how SLC38A9 destabilizes the LFC and so promotes
193 icotine reward-related behavior and may help explain how smokers of menthol cigarettes exhibit reduce
194 ory role of NRP1 as MET coreceptor, and they explain how some snake venoms induce SIRS-like condition
196 ontrasting hypotheses have been suggested to explain how species interactions could influence diversi
199 semble the eye in vivo These results help to explain how stem cell aggregates spontaneously self-orga
200 cross disparate but linked brain regions may explain how stereotyped patterns of neurodegeneration ar
202 cells, no existing quantitative model fully explains how structural differences between kinesins alt
205 rmational changes induced by leukotriene C4, explaining how substrate binding primes the transporter
207 This gradual activation mechanism may also explain how SYK maintains ligand-independent tonic signa
210 sm." I place May's book in the literature by explaining how that assumption is resisted by Christine
216 he reversible discharge/charge processes and explain how the carbon interface with Li(2) CO(3) provid
219 Our results provide a molecular model to explain how the conformational dynamics of cpSRP43 enabl
220 es (302 neurons), the design principles that explain how the connectome structure determines its func
225 corporating these overlapping mechanisms, to explain how the nodes of Ranvier are assembled in both t
226 rom the interior of TADs, these observations explain how the orientation of CTCF binding sites transl
228 This unanticipated role of Ctp1 might help explain how the processing of DNA ends is coordinated to
229 ights from computational models of memory to explain how the stream of thought flows through the land
231 rests of insurers and research subjects, and explain how the United States might learn from them.
232 a are sources of reactivating virus, helping explain how the virus causes lifelong recurrent disease.
233 tal structures and biochemical data have not explained how the second strand is cut to complete the d
234 r argument for representational diversity by explaining how the elements in our ontology are all requ
235 hanism of substrate-assisted product release explains how the BAM complex can stably associate with t
236 of events provides a cellular mechanism that explains how the characteristic crescent-shaped, asymmet
237 referred orientations is demonstrated, which explains how the conversion reaction occurs in alpha-MnO
238 ubstrate for the nuclear ESCRT machinery and explains how the dynamic tethering of chromosomes to the
239 f the aperture shape and size, and our study explains how the features of the mechanical design of ap
242 we sketch out an integrative NPE model that explains how the interactions of psychoeconomic componen
243 and membrane tubulation in ciliogenesis and explains how the intracellular cilium emerges from the c
244 al article by Wertheimer in 1923, the theory explains how the mind groups similar images and fills in
245 lution structure of the hC3Nb3-C345c complex explains how the nanobody blocks proconvertase assembly.
249 election models of B-1a cell development and explain how these cells acquire their unique properties.
250 g an 'imperfect' photon counting machine, we explain how these constraints give rise to adaptive quan
251 ry for proper envelope assembly, and we also explain how these enzymes are protected from oxidative i
252 o binding and in vivo cell localization data explain how these features create a pH-dependent retriev
253 t-risk profile of antithrombotic therapy and explain how these findings are changing our approach to
254 al possible mechanisms have been proposed to explain how these multiple tumour-infiltrating cell type
255 ll-mediated attack on the orexin neurons and explain how these new perspectives can inform better the
259 ensive investigation has revealed mechanisms explaining how these patterns are generated, with less b
260 ere, we present a theoretical framework that explains how these larger fluctuations in archaeal cell
263 emerged: 1) taking responsibility-relatives explain how they endorse decisional responsibility but d
265 lly, there is so far no comprehensive theory explaining how they emerge from the microscopic dynamics
266 view of replication-coupled repair pathways, explaining how they fix polymerase mistakes, respond to
267 l walls was the first proposed hypothesis to explain how this element reduced the severity of plant d
268 rk, based on the physics of shell growth, to explain how this interlocking pattern is created and reg
270 n A. thaliana Mathematical modeling helps to explain how this nonintuitive behavior can be explained
271 a (modest) increase in excitability, but we explain how this pattern can reverse if a hyperpolarizin
272 flipping, and melting by RAG1 methionine 848 explain how this residue activates transposition, how RA
273 phenotypic changes caused by model honey, we explained how this can be bactericidal even though the a
275 Smc5-Smc6 require the Nse5-Nse6 heterodimer, explaining how this nonessential cofactor critically sup
276 e possible cellular and molecular mechanisms explaining how this therapy provides unique benefit to p
278 ers into higher-order oligomers, potentially explaining how Tie2 is differentially clustered followin
281 nd links to a series of tutorial videos that explain how to prepare model and data files, and how to
282 and multiple loci tracked simultaneously and explain how to quantify and describe chromatin motion us
283 rategies for activating the inflammasome and explain how to subsequently assess multiple downstream e
284 e ERB-based CR tone alignment strategies and explain how to use the ERB-based model in experiments, c
285 hen we provide a tutorial with examples that explains how to apply the UWHAM program package to analy
287 ition of PtdIns5P by the VHS domain that may explain how Tom1, when in a different VHS domain conform
289 d torpedo models have been used for 30 yr to explain how transcription terminates on protein-coding g
294 anistically important phenomena, and also by explaining how variability manifests across different le
298 oes not require preexisting actin filaments, explaining how Wsp1 contributes to actin network initiat
300 ndent and -dependent mechanisms converges to explain how young cowbirds emerge from another species'