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1  mouse strain that expresses En1 in the Dbx1 microdomain.
2 nstrates that the D(E)RY motif is a hydrated microdomain.
3 he conserved and variable sequons in the HMP microdomain.
4 s, facilitating PIP(2) concentration in this microdomain.
5 changes in the lipid composition of membrane microdomains.
6 ed protein 35 (VPS-35) did not affect HGRS-1 microdomains.
7 organ that is made up of distinct layers and microdomains.
8 e sites for HG crosslinking within cell wall microdomains.
9 iate with sphingolipid- and cholesterol-rich microdomains.
10 of heterotypic signaling networks underlying microdomains.
11 ic mechanisms operate in submillimeter-scale microdomains.
12 rotenoids play a role in organizing membrane microdomains.
13  the TGN Ca(2+) pump (SPCA1) in specific TGN microdomains.
14 s mechanisms that establish subcellular cAMP microdomains.
15  exclusively from plasma membrane-disordered microdomains.
16 pendent endocytosis via tetraspanin-enriched microdomains.
17 ions of signaling enzymes within subcellular microdomains.
18  actin/sorting nexin/retromer tubular (ASRT) microdomains.
19 referentially colocalize with fluid membrane microdomains.
20 ers that separate the antigenically variable microdomains.
21  CYP1A1 had less affinity to bind to ordered microdomains.
22  of the cAMP pathway components in signaling microdomains.
23  incorporation of CXCR4 receptors into these microdomains.
24 mentalized signaling in discrete subcellular microdomains.
25 AT localization in cholesterol rich membrane microdomains.
26 holipase D2 (PLD2) in caveolin-rich membrane microdomains.
27  antiviral signaling through lipid raft-like microdomains.
28 the K-Ras4B membrane binding domain in rigid microdomains.
29 r robust replication in PE-enriched membrane microdomains.
30 es recruitment of KIT to caveolin-1-enriched microdomains.
31 and limits binding of PKA to local sarcomere microdomains.
32 evealing hyperintense signal in synapse-rich microdomains.
33 ht be most effective when localized to these microdomains.
34 diffusion coefficient within the cylindrical microdomains.
35 ntaining Beclin1 and Bif-1 to the lipid raft microdomains.
36 suggesting budding from specialized membrane microdomains.
37 esting that the virus assembles at PIP2-rich microdomains.
38 proper docking of LPS in lipid raft membrane microdomains.
39 and colocalization of RhoB to these membrane microdomains.
40 motes their association with plasma membrane microdomains.
41 horing proteins in organizing these activity microdomains.
42 n associated with glycosphingolipid-enriched microdomains 1 (PAG1) is a transmembrane adaptor protein
43 Furthermore, we captured the formation of PA microdomains accumulating at the membrane cytoplasmic le
44 membrane-anchored GCaMP3 mice, we found that microdomain activity that occurs in the absence of inosi
45 and role of this channel in sensory membrane microdomains, all of which helps to understand the puzzl
46  reminiscent of detergent-insoluble membrane microdomains, although our approach is valuably detergen
47 s exhibited numerous large abnormal membrane microdomains (aMMDs), which trap and inactivate physiolo
48 s with PDZ domain-containing proteins, lipid microdomains and acute trafficking of the transporters v
49  link between RTK-initiated phosphoinositide microdomains and Arf6 during signal transduction and can
50               The cooperative roles of these microdomains and associated proteins are unknown.
51  revealed that AtHIR1 is present in membrane microdomains and co-localizes with the membrane microdom
52 lex upon pathogen perception requires intact microdomains and cytoskeleton.
53 TnT mutation causes dysfunction of sarcomere microdomains and how these events contribute to misalign
54 esidue enables Fas to localize to lipid raft microdomains and induce apoptosis in cell lines.
55 tor module that targets rPGRP-LC to membrane microdomains and interacts with the negative regulator P
56 ontrolling the organization of PtdIns(4,5)P2 microdomains and membrane remodeling.
57 MAGUK family, recruits Kv1.3 into lipid-raft microdomains and protects the channel against ubiquitina
58 ed into and localized within plasma membrane microdomains and proximal vesicles in T cells.
59 se II-mediated phosphorylation in non-native microdomains and resulted in an elevated ICa,L window cu
60  Taken together, these findings suggest that microdomains and the cytoskeleton constrain AtHIR1 dynam
61 cle tracking analysis revealed that membrane microdomains and the cytoskeleton, especially microtubul
62 ssed, the formation of plasma membrane lipid microdomains and the number of exocytotic events were de
63 supported by the surface exposure of the HVR microdomains and the slow diffusion-type porin function
64 the virus's ability to accumulate at budding microdomains and the VS.
65 ecruits the BMP receptor complexes into raft microdomains, and positively modulates signaling possibl
66 ponent optogenetic tools to manipulate ionic microdomains, and probe the complex neuronal-extracellul
67 ray of phosphatidylinositol(4,5)bisphosphate microdomains, and that their constriction was sensitive
68 In particular, mitochondrial lipid raft-like microdomains appear to function as platforms in cell apo
69 ined via general gradient waveforms when the microdomains are characterized by a general diffusion te
70 us degree of complementarity, liquid crystal microdomains are formed via the selective aggregation of
71                             Because membrane microdomains are involved in inducing growth and differe
72 hile the mechanistic details of these Ca(2+) microdomains are only beginning to emerge, it is evident
73                                        These microdomains are the smallest units in soil that fulfill
74 cted rates of entry into and escape from the microdomain as well as enhanced phospho-signalling withi
75 stent PrP(res) propagation, implicating raft microdomains as a location for conversion.
76 ot outside rafts, implying the role of lipid microdomains as segregated signaling platforms.
77 ped that accounts for ER-mitochondria Ca(2+) microdomains as the ud compartment (besides the cytosol,
78 ed Incs were localized to inclusion membrane microdomains, as evidenced by colocalization with phosph
79 al neuraminidase inhibitor, disassembled the microdomains, as evidenced by reduced staining of tropho
80 by the major monovalent ions, which occur in microdomains, as global events, or as propagating interc
81 d enriched with high-density regions forming microdomains, as revealed by single particle tracking ex
82 mal coverage and intensity of HGRS-1-labeled microdomains, as well as increased total levels of HGRS-
83 lve a general reorganization of the membrane microdomains associated with virion assembly, but rather
84                By localizing mitochondria to microdomains, astrocytes ensure local metabolic support
85 oplasmic pole-organizing protein popZ (PopZ) microdomain at the cell pole of the asymmetrically divid
86 mbrane phosphatidylinositol 4,5-bisphosphate microdomains at nascent sheaths, followed by a filamento
87 ssary for the formation of three-dimensional microdomains at the cell poles in Caulobacter crescentus
88 buted to the formation of GM1-enriched lipid microdomains at the exocytotic sites in chromaffin cells
89 oduction of DA neurons derived from the Dbx1 microdomain, at the expense of STN and PM populations.
90 zing the role of calcium noise properties on microdomain behavior.
91 on tomography indicates a genuine signalling microdomain between these organelles.
92 ardiac myocytes to indicate the formation of microdomains between acidic and SR calcium stores, suppo
93 trix proteins in specialized plasma membrane microdomains, but the effects of these interactions on t
94 mW average power) increased the frequency of microdomain Ca(2+) events but left their amplitude, area
95                Interestingly, many astrocyte microdomain Ca(2+) transients are closely associated wit
96                                    Astrocyte microdomain Ca(2+) transients are mediated by the TRP ch
97                               Many astrocyte microdomain Ca(2+) transients are spatio-temporally corr
98  demonstrate the subtle build-up of aberrant microdomain Ca(2+) transients in the fine astroglial pro
99 r capable of quantitatively predicting local microdomain Ca(2+) transients in the vicinity of VGCCs d
100 es exhibit spontaneous, activity-independent microdomain Ca(2+) transients in their fine processes.
101  local ROS production can activate astrocyte microdomain Ca(2+) transients through TrpML, and that a
102                                        These microdomain Ca(2+) transients were facilitated by the pr
103 d into circuits, they exhibit whole-cell and microdomain Ca(2+) transients, which are sensitive to no
104 rary imaging methods fall short of measuring microdomain Ca(2+)-contraction coupling in live cardiac
105 s exhibit spatially-restricted near-membrane microdomain Ca(2+)transients in their fine processes.
106  uptake depends on cholesterol-rich membrane microdomains called lipid rafts, and can be blocked by n
107 ic domain, these two organelles share common microdomains called mitochondria-associated ER membranes
108 dy recycling studies showed that CD63 in WPB microdomains can originate from the plasma membrane.
109 nsporter A1 plays a major role in regulating microdomain cholesterol and is most efficient when lipid
110 comes esterified, CE droplets accumulate and microdomain cholesterol content becomes poorly regulated
111 ch apoproteins relieves the burden of excess microdomain cholesterol in immune cells allowing a reduc
112 ing a positive feedback loop for PI(4,5)P(2) microdomain compartmentalization.
113 ( approximately 90%) demonstrated long-range microdomain connectivity, while the recovery time depend
114                                        Lipid microdomains contain large quantities of cholesterol and
115       In contrast, EV-enriched fractions and microdomains containing allopeptide+self-MHC did not exc
116 sociated glycoprotein (MAG) require membrane microdomains containing either sulfatides or complex gan
117                                              Microdomains containing endosomal sorting complexes requ
118  precise localization of Ca(2+) signals into microdomains containing specific Ca(2+) effectors.
119 oth serum EV-enriched fractions and membrane microdomains containing the acquired MHC alloantigens in
120 maging reveals that Snx14 is recruited to ER microdomains containing the fatty acyl-CoA ligase ACSL3,
121                      The microfold-generated microdomains continuously reorganize, adapting in respon
122 eometrical constraints, including dead-space microdomains, contribute to the hindrance to diffusion.
123 ii) the structural variation observed in the microdomains corresponded to the mean length of variants
124     In conclusion, our results indicate that microdomain coupling is important for exocytosis in high
125 novel boundary subdividing the mdFP into two microdomains, defined by engrailed 1 (En1) and developin
126          We show that the stability of these microdomains depends on the integrity of the MreB cytosk
127 induced DAT-meditated DA efflux and membrane microdomain distribution of the transporter.
128 d DAT-mediated dopamine efflux, and membrane microdomain distribution of the transporter.
129  cholestatic rats, BSEP showed a canalicular microdomain distribution similar to that of control rats
130                                  PI(4,5)P(2) microdomains drive ADBE and SV reformation from bulk end
131 (hetTECs) with non-fibrous proteoglycan-rich microdomains engineered into the fibrous structure, and
132 ter protein to Pd, likely to plasma membrane microdomains enriched at Pd As such, the GPI modificatio
133 -liquid-disordered phase surrounding ordered microdomains enriched in cholesterol and protein complex
134                        MLRs are plasmalemmal microdomains enriched in sphingolipids, cholesterol and
135 the presence of detergent-insoluble membrane microdomains enriched in sterols and sphingolipids.
136 dRP and host factors to subcellular membrane microdomains enriched with specific phospholipids.
137                                              Microdomains exhibit spontaneous increases in calcium (C
138 ed processes that form functionally isolated microdomains, facilitating local homeostasis by redistri
139 an unexpected chemodominance of the HA stalk microdomain for small-molecule inhibitors in IAV inhibit
140 tone deacetylase) nuclear export, creating a microdomain for transcriptional regulation.
141      We propose that these clusters serve as microdomains for EV signaling and play an important role
142  form hetero-oligomers and organize membrane microdomains for protein complexes.
143 ytosis, in which they are believed to act as microdomains for protein interactions and intracellular
144       At low pH, Lti30 binding induced lipid microdomain formation as well as protein aggregation, wh
145           Strong stimuli trigger PI(4,5)P(2) microdomain formation at periactive zones.
146 acquired heart failure, acute stress impairs microdomain formation, limiting contractility and promot
147 ontaining membranes, peptide binding induces microdomain formation.
148 ationalize the developmental accumulation of microdomain-forming lipids in synapses by proposing a me
149 l rich boundaries of hexagonally packed DPPC microdomains, freely diffuse along the bilayer midplane,
150 sduction within the cell, because lipid-rich microdomains function as assembly points for signaling m
151                         We show that the En1 microdomain gives rise to dopaminergic (DA) neurons, whe
152  dopaminergic (DA) neurons, whereas the Dbx1 microdomain gives rise to subthalamic (STN), premammilla
153               Although the existence of such microdomains has not been proven for the plasma membrane
154                                        These microdomains have a limited number of N-glycan-sequon co
155 results highlight how STIM1-dependent Ca(2+) microdomains have a major impact on intracellular Ca(2+)
156           PI(4,5)P2 and enriched cholesterol microdomains have been shown as important signaling plat
157         This finding lends support to the DS microdomain hypothesis.
158 e associated with the dissolution of ordered microdomains (i.e., lipid rafts).
159 l interactions between the closely contacted microdomains improve the mechanical properties of the co
160  approximately <2 kHz) to progressively more microdomain in high-frequency cells ( approximately >2 k
161 ly characterized the interdependent NGS of a microdomain in the high-mannose patch (HMP).
162 enhanced dynamic properties of nuclear lipid microdomains in cancer cells with an increased shuttling
163 s largely found in nonraft (low cholesterol) microdomains in cholestasis.
164 P, mostly present in raft (high cholesterol) microdomains in control rats, was largely found in nonra
165 horylation and dysregulates local sarcomeric microdomains in DCM iPSC-CMs.
166 port the quantification of proteoglycan-rich microdomains in developing, ageing and diseased fibrocar
167  knowledge of the development of the sensory microdomains in mammalian skin and the mechanosensory ne
168 liaR altered the localization of cardiolipin microdomains in the cell membrane.
169 FTR and its dynamics both within and outside microdomains in the plasma membrane of primary human bro
170            Lipid rafts, specialized membrane microdomains in the plasma membrane rich in cholesterol
171 in and critical organizer of caveolae (small microdomains in the plasma membrane), as a regulator of
172 alk between channel activities within single microdomains in tuning the physiological response of neu
173 alized complementary ESCRT-0 and RME-8/SNX-1 microdomains in vivo and assayed the ability of retromer
174 afts/caveolae and assessed the role of these microdomains in VSMC ROS production and pro-contractile
175 ne complexes (JMCs) in myocytes are critical microdomains, in which excitation-contraction coupling o
176 ne complexes (JMCs) in myocytes are critical microdomains, in which excitation-contraction coupling o
177 ule-based activation of AMPK can restore TnT microdomain interactions, and partially recovers sarcome
178                               Entry into the microdomain is selective for cytosolic proteins and requ
179  the cardiomyocyte, the mitochondrial Ca(2+) microdomain is where contraction, energy and death colli
180 lustering of proteins and lipids in distinct microdomains is emerging as an important principle for t
181 may partition into cholesterol-rich membrane microdomains (lipid rafts), its compartmentalization has
182 ltering cellular structures such as membrane microdomains (lipid rafts).
183                     Whether cholesterol-rich microdomains (lipid rafts/caveolae) are involved in thes
184                                        Lipid microdomains localised in inner nuclear membrane are con
185                                        Lipid microdomains localized in the inner nuclear membrane are
186 lico docking predicted compound binding to a microdomain located at the membrane-distal site of the p
187                 We showed that nuclear lipid microdomains lost saturated very long fatty acid (C24:0)
188 rodomains and co-localizes with the membrane microdomain marker REM1.3.
189                 Thus, GM3-dependent membrane microdomains might be essential for the proper organizat
190 here formation of ceramide-enriched membrane microdomains modulates TCR signaling.
191 e characteristics of a robust network with a microdomain N2-adsorption profile.
192 lation also imparts signalling power; Ca(2+) microdomains near store-operated CRAC channels in the pl
193 with Orai1, activating in response to Ca(2+) microdomains near the open channels.
194 tional reorganization of receptor-associated microdomains occurs in early cardiac hypertrophy, affect
195 e non-uniform Ca(2+) local transients in the microdomain of VGCCs.
196                Membrane contact sites (MCS), microdomains of close membrane apposition, are gaining a
197                            We identified the microdomains of individual subunits, including the catal
198 bution of single LTCCs in different membrane microdomains of nonfailing and failing human and rat ven
199                          Here, we found that microdomains of phosphatidylinositol 4-phosphate [PI(4)P
200 ory bulb depends on the existence of defined microdomains of pre-determined neural stem cells along t
201 aggregates, but rather are KS-WNK1-dependent microdomains of the DCT cytosol that modulate WNK signal
202 t AtKEA1 and AtKEA2 transporters in specific microdomains of the inner envelope link local osmotic, i
203 aptor critical for HIV-1 budding at specific microdomains of the membrane.
204          Lipid rafts are specialized dynamic microdomains of the plasma membrane and have been shown
205        Podosomes are actin-based proteolytic microdomains of the plasma membrane found in cells that
206 ports indicate that they reside in different microdomains of the plasma membrane.
207 strated in intact cells and the influence of microdomains on CFTR lateral mobility is unknown.
208 rtilaginous tissues, and the impact of these microdomains on endogenous cell responses to physiologic
209  phosphoinositide species PtdIns(4,5)P2 into microdomains on the plasma membrane, analogous to proces
210 or allowed us to resolve minute PKA activity microdomains on the plasma membranes of living cells and
211  membranes, some FC may be incorporated into microdomains or lipid rafts.
212 n whether this channel localizes in membrane microdomains or whether it interacts with cholesterol.
213 both critical modifications that control the microdomain organization of CD82 as well as the nanoscal
214 n associated with glycosphingolipid-enriched microdomains (PAG).
215 operties including turnover, trafficking and microdomain partitioning.
216  It has been controversial at which membrane microdomains PDGFRs reside and how they control such div
217 ut mouse, near-infrared light-induced Ca(2+) microdomains persisted in the small processes, underpinn
218 at cardiolipin molecules segregate into such microdomains, probably conferring a negative curvature t
219                          Disruption of these microdomains promotes oxidative stress and Nox isoform-s
220     Analysis of membrane-associated and raft microdomain proteins reinforces this possibility and als
221 R activation, reorganization of BIN1-induced microdomains recruits P-RyR into dyads, increasing the c
222 Voltage and charge distributions in cellular microdomains regulate communications, excitability, and
223 rol into multilayers or 3D structures of BCP microdomains remains limited, despite the possible techn
224 y represent unique plasma membrane signaling microdomains required for signaling by certain receptors
225  exocytosis, mediates the formation of lipid microdomains required for the structural and spatial org
226 nd PSI complexes are colocated in a membrane microdomain requiring PG for integrity.
227 rdered lipid microdomains, whereas the rigid microdomains restrict the farnesyl group penetration.
228                 Dynamic subfemtoliter Ca(2+) microdomains reveal low copy numbers of Ca(2+) ions, buf
229 and waves caused contractions in subcellular microdomains, revealing a previously underappreciated ro
230 of PopZ contributes to the assembly of polar microdomains, revealing a structural basis for complex n
231 veloping a temporally precise means to study microdomain-scale interactions between extracellular pro
232                                    Disrupted microdomain signaling impairs MYH7-mediated, AMPK-depend
233 ubplasmalemmal calcium and hydrogen peroxide microdomain signaling is a fundamental mechanism regulat
234 esicular release, P/Q-type VGCCs act through microdomain signaling to recruit additional release site
235  reveals that microglia have highly distinct microdomain signaling, and that processes specifically r
236 ocate Galpha(s) from lipid rafts to non-raft microdomains, similarly to other antidepressants but wit
237 ored branch functionality, phase separation, microdomain spacing, and mechanical properties.
238 molecules that can be used to manipulate SVZ microdomain-specific lineages.
239 l properties modulated in heart failure in a microdomain-specific manner.
240 lso play an increasingly appreciated role in microdomain structure.
241 c compartments, particularly along recycling microdomains such as dendritic spines and presynaptic bo
242 d interpret voltage distribution in cellular microdomains such as synapses, dendritic spine, cilia an
243                                Membrane-raft microdomains, such as caveolae, and their constituent ca
244 ese subunits colocalize to common functional microdomains, such as juxtaparanodes and the somatic mem
245 1 had little to no effect on SNX-1 and RME-8 microdomains, suggesting directionality to the interacti
246 ansporter, localizes specifically to a glial microdomain surrounding AFD receptive ending microvilli,
247                                              Microdomain-targeted remodeling of LTCC properties is an
248 erse activities, we examined plasma membrane microdomains termed eisosomes or membrane compartment of
249 hin receptor (NTR) to plasmalemmal signaling microdomains, termed membrane/lipid rafts (MLRs).
250  in functional complexes called "tetraspanin microdomains." Tetraspanins, including CD82, play an ess
251 e receptors, enabled the reconstitution of a microdomain that consists of intracellular loops 2 and 3
252 In plants, the plasmodesmal PM is a discrete microdomain that hosts specific receptors and responses.
253 These extended lamellipodia form a signaling microdomain that sequesters and phospho-inactivates the
254 nd surrounding branched actin filaments form microdomains that anchor a three-dimensional desmin inte
255 highly localized spatial and temporal Ca(2+) microdomains that are required for achieving functional
256  TBC1D5 to restrict late endosomal RAB7 into microdomains that are spatially separated from the amino
257 vides details on how some clustered NGS form microdomains that can be identified and tracked across E
258 within mitochondria, of different cAMP-Epac1 microdomains that control myocardial cell death.
259 es are highly organized, containing specific microdomains that facilitate distinct protein and lipid
260 dria-associated membranes (MAMs) are central microdomains that fine-tune bioenergetics by the local t
261 immune evasion by dividing Env into N-glycan microdomains that have a limited number of N-glycan sequ
262 ) contact sites are evolutionarily conserved microdomains that have important roles in specialized me
263 t Ca(2+) signals determine restricted Ca(2+) microdomains that regulate myofilament remodeling and ac
264 nd becomes concentrated in specific membrane microdomains that serve as signaling platforms.
265 study subcellular PDGFR activity at membrane microdomains, this PDGFR biosensor was further targeted
266 the monolayer region enabled to develop raft microdomains through coarsening of nanorafts.
267  effectors into function-specifying membrane microdomains to carry out receptor trafficking.
268 l over otherwise unorganized assembly of BCP microdomains to form both long-range and locally complex
269         Viral infection caused the nanoscale microdomains to fuse into large platforms and reduced CF
270 (2+) diffusive environment near IP3 receptor microdomains to limit IP3 -mediated Ca(2+) signals as pr
271 nd assayed the ability of retromer and ESCRT microdomains to regulate one another.
272 ts through TrpML, and that a subset of these microdomain transients promotes tracheal filopodial retr
273 ed with minimal overlap between En1 and Dbx1 microdomains, unlike many other boundaries.
274 exclusive combinations of sequons in the HMP microdomain using the Los Alamos National Laboratory HIV
275   Real-time cAMP measurements in endothelial microdomains using a novel fluorescence resonance energy
276 eta2-adrenergic receptor-associated membrane microdomains using a novel membrane-targeted Forster res
277 ets to the mitochondrial detergent-resistant microdomains via direct interaction with cardiolipin and
278             We extracted proteins from these microdomains via stoichiometric capture of lipids and pr
279 unctionally distinct ESCRT-0 and SNX-1/RME-8 microdomains was also compromised in the absence of RME-
280 nd can target functional enzymes to membrane microdomains where pathologic APP-processing is thought
281 hannel complexes within specific subcellular microdomains, where physical proximity allows for prompt
282 AT1 is stimulated by sub-plasmalemmal Ca(2+) microdomains, whereas NFAT4 additionally requires Ca(2+)
283 ntaneously inserts into the disordered lipid microdomains, whereas the rigid microdomains restrict th
284 VPS29 and a 12 residue, four-cysteine/Zn(++) microdomain, which we term a Zn-fingernail, two of which
285         Many channels localize in lipid raft microdomains, which are enriched in cholesterol and sphi
286 platforms might involve sterol-rich membrane microdomains, which are heterogeneous and highly dynamic
287 itate the formation of postsynaptic membrane microdomains, which may serve key roles in the function
288  is evenly distributed at different membrane microdomains, while integrin-mediated signaling events h
289 ic cells is organized into lipid and protein microdomains, whose assembly mechanisms and functions ar
290 trate that its cytoplasmic membrane contains microdomains with distinct physical properties.
291 solic cAMP via localization of the enzyme to microdomains with lower basal cAMP concentration.
292 lasma membrane, forming tetraspanin-enriched microdomains with one another and other surface molecule
293 ptic membranes and observe remarkably stable microdomains, with the stability of domains increasing w
294  is the targeting of proteins to subcellular microdomains within bacterial cells, particularly to the
295 roteolipid protein, and assembles lipid-rich microdomains within membranes.
296 ster [Ca(2+)]i, creating [Ca(2+)]i signaling microdomains within the cell that are dependent on mitoc
297 cked, cholesterol- and sphingolipid-enriched microdomains within the plasma membrane that play import
298 ll imaging, we show that CD63 is enriched in microdomains within WPBs.
299 y produce nanomesh structures of cylindrical microdomains without requiring layer-by-layer alignment
300  ms) remain difficult to analyse in cellular microdomains, yet they can modulate key cellular events

 
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