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1     The technology relies on controlling the subcellular activation of RhoA using the CRY2/CIBN light
2 with collagen-coupled agarose gels to detect subcellular activities of SFK and FAK in three-dimension
3 al and extracellular mechanical signals into subcellular activity patterns to control cellular contra
4 ls and fundamental mechanistic insights into subcellular adrenergic signalling in normal and patholog
5 odel, thus providing a means of bridging the subcellular and cellular phenomena in sickle cell diseas
6 ve platforms to precisely follow and measure subcellular and molecular events, are paving the way for
7 educe the time and human effort required for subcellular annotation and feature extraction.
8  cuticulosomes, as well as the molecular and subcellular architecture of cuticulosome positive hair c
9 ly establish the effects of the knockouts on subcellular architecture.
10  infections is their dependence on efficient subcellular assembly platforms serving replication, viri
11 lasma membrane efflux carriers that generate subcellular auxin gradients.
12 aining vacuole integrity required to balance subcellular BAK1 pools and BR receptor distribution.
13                                    How these subcellular/cellular events overcome source-sink factors
14 the same protein complex and display notable subcellular colocalization at presynaptic and postsynapt
15                                 Because each subcellular compartment in plants contains its own set o
16 heir intended substrates regardless of which subcellular compartment in the target cell they happen t
17 suggesting that sequestration of RNA to this subcellular compartment is both necessary and sufficient
18   A suite of targeted proteomics markers for subcellular compartment markers was developed, enabling
19 from the lysosomal to the zymogen-containing subcellular compartment of acinar cells and activation o
20 nerates EM contrast on a specific protein or subcellular compartment of interest.
21     In particular, it is unknown within what subcellular compartment pathogenic Htt acts and whether
22 nal delivery of intact drug into the desired subcellular compartment, however, it is critical that th
23                                              Subcellular compartmentalization of receptor signaling i
24 in recruitment and as diffusion barriers for subcellular compartmentalization.
25 g physiological stress, even without loss of subcellular compartmentalization.
26 xtracellular vesicles originate from diverse subcellular compartments and are released in the extrace
27 e signaling pathways, coordinated by several subcellular compartments and interactions between these
28  orchestrate signaling activity in different subcellular compartments at different timescales.
29      Some effectors have been found to enter subcellular compartments by mimicking host targeting seq
30 ng by a modified PageRank algorithm based on subcellular compartments information, with the ranking b
31 entify unrecognized constituents of distinct subcellular compartments refractory to biochemical isola
32 hat some GPCRs are also localized to various subcellular compartments such as the nucleus where they
33 h cytosolic targets and targets localized in subcellular compartments were investigated.
34                                       Hence, subcellular compartments with little but functionally re
35  APEX-RIP can isolate RNAs from a variety of subcellular compartments, including the mitochondrial ma
36 ovides a major advancement in fingerprinting subcellular compartments, with an increased potential to
37 ecific regulation of translation in specific subcellular compartments.
38 ut methods for mapping the transcriptomes of subcellular compartments.
39 cells, with the highly efficient labeling of subcellular components and the activation of prodrugs.
40 hnique for the precision removal of cells or subcellular components, as a tool to investigate mechani
41  a more stabilized structure is dependent on subcellular context, including local density and aging.
42 ables spontaneous, self-limiting patterns of subcellular contractility that can explore mechanical cu
43 lives, accumulation and gradual release from subcellular depots.
44  the importance of tRNA for translation, its subcellular distribution and diffusion properties in liv
45 teins with an Ig-like domain, share the same subcellular distribution and ectodomain shedding propert
46                     Here we characterize the subcellular distribution and function of PS in the rod-s
47 e are signal transduction centers, yet their subcellular distribution and preservation in cardiac myo
48                                              Subcellular distribution and protein expression levels i
49                    These data reveal a novel subcellular distribution for ZNF804A within somatodendri
50 ons, although GIRK2c achieved a more uniform subcellular distribution in pyramidal neurons and suppor
51                                          The subcellular distribution of (64)Cu was measured by cell
52                  High expression or aberrant subcellular distribution of Ape1 has been detected in ma
53                  Finally, an analysis of the subcellular distribution of C5aR and C5L2 indicates that
54                     Recent insights into the subcellular distribution of cardiac and neuronal NaV iso
55 ration over the wounded area by altering the subcellular distribution of F-actin.
56                         We also obtained the subcellular distribution of fast and slow diffusing tRNA
57          Although glucose did not affect the subcellular distribution of FRQ in the WT, highly elevat
58                            We determined the subcellular distribution of individual machines, the sto
59 cular transport are critical for an adequate subcellular distribution of S-acylated Ras proteins.
60 tes provide singular information about H-Ras subcellular distribution that is required for GTPase sig
61 arious molecular weight forms of K15P, their subcellular distribution, and how these may differ in la
62 n membrane topology, protein processing, and subcellular distribution, and suggest that single- and d
63  the actin cytoskeleton, markedly alters Gag subcellular distribution, relocates sites of assembly, a
64 sponse to anaerobiosis by regulating RNase E subcellular distribution, RNase E enzymatic activity, an
65  mutants of H-Ras differed not only in their subcellular distribution, where both proteins localized
66 GABAAR complexes that explain GABAAR subunit subcellular distributions using mice and Xenopus laevis
67  mechanotransduction channels with different subcellular distributions.
68         However, little is known about their subcellular domain-dependent roles and responses to extr
69   Therefore, tango7 and dark define distinct subcellular domains of caspase activity.
70 ase adaptor proteins, and mutually exclusive subcellular domains of caspase activity.Caspases are kno
71 sphodiesterases (PDEs), localise to specific subcellular domains within which they control local cAMP
72 tually-exclusive and independently regulated subcellular domains.
73 ry of specific organelle cargoes to selected subcellular domains.
74 ficking events, cytoskeleton reorganization, subcellular dynamics and inter-organellar communication
75 rounding using a newly developed multi-scale subcellular element computational model that is calibrat
76           However, little is known how these subcellular events are coordinated.
77  The day we understand the time evolution of subcellular events at a level of detail comparable to ph
78 tablished ALS-related mutations, changed the subcellular expression and localization of RNAs within t
79 cterized the detailed regional, cellular and subcellular expression of GABAA (alpha1 , alpha2 , alpha
80  field fraction analyses were performed, and subcellular expression of GABAA receptor subunits was an
81                                              Subcellular fractionation and confocal microscopy demons
82                                        Using subcellular fractionation and immunofluorescence microsc
83 ion of the reporter gene CDKN1A, and in situ subcellular fractionation experiments demonstrated that
84 obtain quantitative data from microscopy and subcellular fractionation is experimentally difficult an
85                  Fluorescence microscopy and subcellular fractionation methods are commonly employed
86 ents by confocal fluorescence microscopy and subcellular fractionation of endocytic vesicles on a Per
87                                              Subcellular fractionation of keratinocytes expressing E2
88 proteins identified by combining biochemical subcellular fractionation to the protein isolation metho
89 ctionation profiling, a method that combines subcellular fractionation with mass spectrometry, we ide
90 ntified and producer cells were subjected to subcellular fractionation.
91                      ROC operates in various subcellular fractions including microsomes, mitochondria
92 as measured by incubating active human liver subcellular fractions with thyroid hormones (T4 and rT3
93 a levels, with reduced targeting to synaptic subcellular fractions.
94 A) in RNA transcripts by analyzing different subcellular fractions.
95 ings indicate that mitochondria can modulate subcellular functional specialization in photoreceptors.
96 romolecules with an "always on" reporter and subcellular imaging of endolysosomal escape by confocal
97             Interrogation of single SFs with subcellular laser ablation reveals that MLCK and ROCK qu
98 y combining single-cell micropatterning with subcellular laser ablation to probe the mechanics of sin
99 s these disparate conditions together at the subcellular level and can be exploited for broad curativ
100 tial distribution of the human proteome at a subcellular level can greatly increase our understanding
101                  Substantial evidence at the subcellular level indicates that the spatial arrangement
102                                       At the subcellular level, these phenotypes were associated with
103                                       At the subcellular level, this model can simulate HbS polymeriz
104 g's modulus values for bulk rigidity, at the subcellular level, tissues are comprised of heterogeneou
105 tubules to be distinct and resolvable at the subcellular level.
106 nd miRNA expression in two ALS models at the subcellular level.
107  arise from interactions at the cellular and subcellular level.
108      Delivery of biomolecules to the correct subcellular locales is critical for proper physiological
109  proteins (gag-pol mRNAs) to distinct non-PM subcellular locales, such as cytoplasmic vesicles or the
110                                              Subcellular localization analysis showed that MYBS1 and
111         We found that O2 levels regulate the subcellular localization and channel activity of the pol
112 le, we demonstrate in human T cells that the subcellular localization and function of the protein tyr
113 ultiple stoichiometries exhibiting different subcellular localization and functional properties.
114 sms of AMPK regulation, including changes in subcellular localization and phosphorylation by non-cano
115                      PH-domain mutants alter subcellular localization and result in decreased interac
116              Advanced technologies of lncRNA subcellular localization and silencing were used to iden
117                                  Because the subcellular localization and substrate specificity of th
118 and modifier Tet1 by analyzing their dynamic subcellular localization and the formation of the Tet ox
119 n channels depends critically on the precise subcellular localization and the number of channel prote
120 abietane olefin miltiradiene, but also their subcellular localization and, critically, genetic analys
121 ial of histone deacetylase 1 (HDAC1) and its subcellular localization are not fully understood.
122  that Ser-31 phosphorylation may regulate TH subcellular localization by enabling its transport along
123 tion into arrays modifies its own and ParC's subcellular localization dynamics, promoting their polar
124  provides a promising strategy for directing subcellular localization for therapeutic and fundamental
125 ough many web-servers for predicting protein subcellular localization have been developed, they often
126 euronal morphology and express proteins with subcellular localization indicative of mature neurons.
127                                      Protein subcellular localization is fundamental to the establish
128 ption, and suggests that regulation of CASZ1 subcellular localization may impact its function in norm
129            Direct perturbation of HIV-1 mRNA subcellular localization may represent a novel antiviral
130  We also putatively annotated and mapped the subcellular localization of 29 sulfoglycosphingolipids a
131 liferation and tumorigenesis by altering the subcellular localization of an essential YAP co-factor.
132                                              Subcellular localization of antigen, HLA molecules, and
133 eocytoplasmic partitioning, we monitored the subcellular localization of COP1 in a spa1234 quadruple
134 ides on the endosperm/scutellum boundary and subcellular localization of ferulate in the aleurone.
135                               Examination of subcellular localization of FOXO protein via CRISPR-assi
136                           When analyzing the subcellular localization of LmPRL-1 in promastigotes, am
137                          Consistent with the subcellular localization of Mst, the intestinal defects
138      However, the mechanisms controlling the subcellular localization of PC1 and PC2 are poorly under
139 f phospholipids and the C-terminal domain in subcellular localization of ProP were explored.
140 ide fully recapitulated their effects on the subcellular localization of ProP.
141 methylation maintenance, likely by directing subcellular localization of proteins involved in this pr
142                                              Subcellular localization of PS-/SYS-GFP was observed usi
143 regulate both HCV genome replication and the subcellular localization of replication complexes.IMPORT
144  this study, we show that the expression and subcellular localization of Shh effectors and ciliary pr
145 tubule number and length correlated with the subcellular localization of SPBs rather than their age.
146 e NAc with associated changes in the nuclear subcellular localization of SRF and MAL.
147 lysis and confocal microscopy visualized the subcellular localization of T-bet and GATA-3.
148 gues and variants in vitro was compared with subcellular localization of the corresponding orthologue
149                           An analysis of the subcellular localization of the DHARs in Arabidopsis lin
150                                          The subcellular localization of the fluorescently labeled me
151 can produce SPMs and assessed expression and subcellular localization of the key SPM biosynthetic enz
152  of cIAP1 and cIAP2 and observe differential subcellular localization of the two proteins in OSCC.
153 he Drosophila wing primordium typically show subcellular localization of the unconventional myosin Da
154 d by Nature Protocols in 2006) to enable the subcellular localization of thousands of proteins per ex
155   Remarkably, beta-catenin showed a reversed subcellular localization pattern: Although beta-catenin
156 of mRNA transcripts, protein expression, and subcellular localization revealed that KV1.5 is the majo
157 -dimensional protein structure and performed subcellular localization studies.
158                                              Subcellular localization study indicated that it is an i
159 ight-dependent protein isoforms with altered subcellular localization that help the plant respond met
160 eins and RNAs are tightly regulated in their subcellular localization to exert their local function.
161                                  Reticulon-1 subcellular localization to the periphery after exposure
162                         These changes in CLU subcellular localization were also associated with Bax a
163 tion of the gene, its expression pattern and subcellular localization were characterized.
164     The amino acid residues modulating HDAC1 subcellular localization were identified by site-directe
165 ation in parasitic strategies (e.g. host and subcellular localization) or due to multiple transitions
166 re required for light-responsiveness of COP1 subcellular localization, and (2) they promote COP1 acti
167 lar cloning to examine how PTEN's stability, subcellular localization, and catalytic activity affect
168 twork-based analyses of domain associations, subcellular localization, and co-complex formation.
169 f HBx by HDM2 which regulates its stability, subcellular localization, and functions.
170 lar processes including signal transduction, subcellular localization, and regulation of enzymatic ac
171                      ERalpha protein levels, subcellular localization, and transcriptional function w
172 ed information on tissue expression, protein subcellular localization, biological process, and molecu
173 that full-length BACE1, independently of its subcellular localization, exists as trimers in human cel
174 abidopsis using protein-protein interaction, subcellular localization, gene knockout, and bioinformat
175  the C-terminus of ATP8A2 in its expression, subcellular localization, interaction with its subunit C
176 eceptor-mediated endocytosis and appropriate subcellular localization, the identity of the cell surfa
177 ional methods exist to predict plant protein subcellular localization, they perform poorly for effect
178                   To visualize mensacarcin's subcellular localization, we synthesized a fluorescent m
179 itored EV proteins, but they differ in their subcellular localization, with CD63 primarily in endosom
180 is oocytes, and their in planta cellular and subcellular localization.
181 ut ligand activation, effector coupling, and subcellular localization.
182 igase activity, substrate specification, and subcellular localization.
183 aying altered lipid phosphatase function and subcellular localization.
184  fast and effective method to annotate their subcellular localization.
185 sary for the light-controlled change in COP1 subcellular localization.
186  with unique target sequence specificity and subcellular localization.
187  respectively, enforced through differential subcellular localization.
188 d protein-membrane interactions, and protein subcellular localization.
189 conformational flexibility or changing their subcellular localization.
190 tability, catalytic activity, and/or altered subcellular localization.
191 affect receptor sensitivity without changing subcellular localization.
192  that FUEL-mLoc outperforms state-of-the-art subcellular-localization predictors.
193                In the study, we investigated subcellular localizations and assembly-promoting functio
194 d that the resulting isoforms have different subcellular localizations.
195 s and cellular processes, and showed diverse subcellular localizations.
196 ctive molecular hierarchy depending on their subcellular location and extracellular stimuli.
197 ce of mRNA translational repression and mRNA subcellular location for protein expression during B lym
198                                 However, the subcellular location for SOCE in muscle fibers has not b
199 r preferential NMDAR inhibition depending on subcellular location has not been investigated systemati
200 tilbenoid substrates, and we confirmed their subcellular location in the plastid by fluorescence micr
201                                              Subcellular location of NA-TLRs is a key determinant in
202 xpression of RD3 in different cell types and subcellular location of retina.
203  proteolytic activity, without affecting the subcellular location of the enzyme.
204 together with substantial differences in the subcellular location of this protein between the frog an
205 t at, or move between, two or more different subcellular location sites.
206  unique functions of Agap2 determined by its subcellular location.
207 ive abundance of these PTMs as a function of subcellular location.
208 ding proteins that it predicts share similar subcellular locations and residue charge profiles with t
209 oach to determine Cdc42 activity at specific subcellular locations and reveals new regulatory princip
210 roteins can be positioned rapidly at precise subcellular locations by local protein synthesis (LPS) t
211 es have implicated restricted and surprising subcellular locations in which miRNA biogenesis or activ
212 uggest that trafficking of LANA to different subcellular locations is a regulated phenomenon, which a
213 plasm and the nucleus, consistent with known subcellular locations of PIKKs.
214                        Hh:GFP moved to basal subcellular locations prior to release from posterior co
215 independent of each other, to their separate subcellular locations.
216                                         This subcellular map can be used to refine existing protein-p
217 n patterns, expression-level divergence, and subcellular markers of functional diversification in the
218                                          The subcellular mechanisms by which cells sense ECM geometry
219                              We examined the subcellular mechanisms involved in sarcoplasmic reticulu
220                             To elucidate the subcellular mechanisms of contact guidance, we analyze q
221       Here we show that, besides these local subcellular mechanisms, the formation and maintenance of
222 itment of the viral RdRP and host factors to subcellular membrane microdomains enriched with specific
223 erging theme is the targeting of proteins to subcellular microdomains within bacterial cells, particu
224             In this study, we use intravital subcellular microscopy in live mice to study the role of
225 DNA representing SGPL1 mutations resulted in subcellular mislocalization of SGPL1.
226                                              Subcellular mislocalization of the microtubule-associate
227 ding to environmental cues, in part, through subcellular mRNA regulation.
228   Therefore, by combining the MS2 system and subcellular nanobody expression, we uncovered that maint
229 vestigate the spectral reflectance from this subcellular nanostructure and devise a new label-free te
230 and therapeutic products, while their use in subcellular organelle isolation remains underexploited.
231 e interaction between mitochondria and other subcellular organelles and for treatment of a variety of
232 ver, in plants, the existence of cell walls, subcellular organelles and the lack of stable cell lines
233 5P has been reported to localize to numerous subcellular organelles in heterologous expression studie
234               Enteric and other bacteria use subcellular organelles known as bacterial microcompartme
235                      Viral components target subcellular organelles to access host machineries requir
236 entalized among different tissues, cells and subcellular organelles.
237          Emerging evidence suggests that the subcellular organization of contractile cytoskeletal net
238 elements as one of nature's most fascinating subcellular parasites.
239 -mediated endocytosis and contributes to the subcellular partitioning of charged polarity-regulating
240 ific localization patterns coincide with the subcellular patterns of IQD-dependent recruitment of CaM
241                                     To study subcellular PDGFR activity at membrane microdomains, thi
242 lus architecture remodeling), which measures subcellular peptidoglycan dynamics.
243 ession of zTrpa1b in sensory neurons allowed subcellular photo-activation, enabling light-dependent m
244             A similar alteration between the subcellular pools of the E2(WT) protein occurred upon Ch
245 vents can also contribute to localization of subcellular pools of this kinase.
246 as likely to occur as a result of a specific subcellular process and that it, therefore, should be po
247 sults indicate that the abnormalities in the subcellular processing of excess PMP22 elicit a detectab
248 e present a comprehensive image-based map of subcellular protein distribution, the Cell Atlas, built
249                       NPAS was combined with subcellular protein localization data, facilitating quan
250  used for protein labeling, visualization of subcellular protein localization, and detection of cell-
251 veals the joint dynamics of gene expression, subcellular protein localization, protein phosphorylatio
252 e image analysis of monolayer disruption and subcellular protein redistribution, we show that the mec
253 fundamentally altered our ability to resolve subcellular proteins, but improving on these techniques
254 tic acinar and inflammatory cells, undergoes subcellular redistribution and activation during experim
255 gulates the type I IFN pathway by inhibiting subcellular redistribution and effective signaling of ST
256  to the inner mitochondria membrane and that subcellular redistribution of ATP levels from the mitoch
257   Supramaximal caerulein stimulation induced subcellular redistribution of CTSD from the lysosomal to
258                    For monitoring intra- and subcellular redox events, highly sensitive and specific
259 plasm and nucleus, localization to different subcellular regions can affect their therapeutic potency
260  opsin to activate the Gi pathway in defined subcellular regions of RAW cells, we show that in additi
261                                              Subcellular regulation of MT dynamics is spatially contr
262 epidermis is ideally suited for cellular and subcellular research, and their sensitivity to endogenou
263 havior, we monitored brainwide activity with subcellular resolution and identified a particularly act
264 target engagement and drug distribution with subcellular resolution in live cells and whole organisms
265 acile quantification of mRNA expression with subcellular resolution on a standard confocal microscope
266 m, we demonstrate local RI measurements with subcellular resolution on a standard TIRF microscope, wi
267 nformation of the cellular mRNA content with subcellular resolution within tissues.
268 r compartments, and to facilitate imaging at subcellular resolution without interference from the bio
269 rganoid function and behavior because of its subcellular resolution, penetration depth through the en
270 e mapping of the mouse brain at cellular and subcellular resolution.
271 mic metabolic changes in living animals with subcellular resolution.
272 orescent detection of nanoparticle fate with subcellular resolution.
273 thods to image large volumes of the brain at subcellular resolution.
274 nous metabolites to be visualized in 3D with subcellular resolution.
275                                              Subcellular RNA analysis in MeCP2-mutant neurons further
276 e evaluate quantitatively how factors at the subcellular scale (number of Ca wave initiation sites),
277 aused by differences in cellular plasticity, subcellular signaling pathways, and genetic expression.
278 owever, the primary pathogenic mechanism and subcellular site of action for mutant Htt are still uncl
279 ter Ca(2+)-CaM signaling modules to specific subcellular sites for precise regulation of Ca(2+)-depen
280 rs involved in these processes, but also the subcellular sites in which these processes are known or
281 is activated, as it accumulates in different subcellular sites with increasing cell density.
282 ve pathogenesis remains poorly understood, a subcellular spatial alteration in RNA metabolism is thou
283 detection of neural electrical activity with subcellular spatial resolution and millisecond-timescale
284 sualizing SNARE complexes in live cells with subcellular spatial resolution.
285           The basis for maintaining distinct subcellular sphingolipid levels in the presence of membr
286 on of the cytoskeleton, suggesting that this subcellular structure could be targeted for therapeutic
287 ochemical diversity and alter the associated subcellular structure required for functionality of the
288 ion of the tagged protein to the appropriate subcellular structure, pluripotency-marker expression, a
289 Dendritic filopodia are actin-filled dynamic subcellular structures that sprout on neuronal dendrites
290           Labeling and visualizing cells and subcellular structures within thick tissues, whole organ
291 align and correctly position a wide range of subcellular structures, including actin-based dynamic pr
292 st, making it difficult to examine cells and subcellular structures.
293 inguish between these mechanisms by applying subcellular targeting using a soft X-ray microbeam in co
294 d in more precise reconstructions of complex subcellular targets.
295 se system can mobilize and coalesce multiple subcellular trafficking circuitries to combat infections
296    Here we provide direct evidence that mRNA subcellular trafficking plays an important role in regul
297                                              Subcellular trafficking typically involves multiple Rabs
298 entity, number, position, or strength on Rev subcellular trafficking, viral RNA nuclear export, and i
299 In hASMCs, acute treatment with BK triggered subcellular translocation of ARHGEF1 and RhoA and enhanc
300 se shape has been proposed to be a result of subcellular variations in expansion rate that induce loc

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