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1 ite chevron morphology and hypaxial myoblast migration.
2 been well studied within the context of cell migration.
3 impaired endothelial cell proliferation and migration.
4 euronal-branching regulation during neuronal migration.
5 thway, which can promote their expansion and migration.
6 ut CX3CR1-mediated sampling and intraluminal migration.
7 mechanism to coordinate cell motility during migration.
8 llular protrusions and to stimulate invasive migration.
9 ave created a powerful push factor for human migration.
10 al epithelial cells, 24,25(OH)2D3 stimulated migration.
11 GCK-dependent glycolysis regulates Treg cell migration.
12 CAF-cancer cell association and directional migration.
13 is upregulated, promoting cancer growth and migration.
14 ules to regulate stem cell behaviors such as migration.
15 s kinase as a modulator of cell adhesion and migration.
16 y genes crucial for neuronal development and migration.
17 ophages, whereas CXCL6 also induced dNK cell migration.
18 stinct roles in the regulation of macrophage migration.
19 e its energy barrier through four-way branch migration.
20 ot required for matrix alignment before cell migration.
21 ences of HIs for the mechanics of pronuclear migration.
22 owth rate constrains the evolution of faster migration.
23 a constitutively active form of PI3K rescued migration.
24 g epithelial integrity through spreading and migration.
25 xit via a process distinct from S1P-mediated migration.
26 f which caused severe defects in endothelial migration.
27 at regulate contractility, proliferation and migration.
28 model system to quantify the collective cell migration.
29 movement and presumably, energy gains during migration.
30 well as the switch from tangential to radial migration.
31 also within-country flow of funds and labor migration.
32 tibodies blocked 15(S)-HETE-induced monocyte migration.
33 on of NSCLC cell proliferation, invasion and migration.
34 nate (50 muM) significantly accelerates hMSC migration.
35 ntering grounds would advance pelican spring migration.
36 olymerization, pseudopod formation, and cell migration.
37 epithelial atrophy and intraretinal pigment migration.
38 luding phagocytosis, granule exocytosis, and migration.
39 wits Limosa limosa limosa on their northward migration.
40 corneal epithelial cell (HCEC) viability and migration.
41 axis and suppress PKC-2-dependent cryophilic migration.
42 u) that represses breast cancer invasion and migration.
43 estries, compatible with maritime Bronze-Age migrations.
45 subgroup is functionally important for cell migration.Adenomatous polyposis coli (APC) regulates the
46 d in pre-B-cell receptor (BCR) signaling and migration/adhesion, which could contribute to the prolif
48 d understanding of the mechanisms underlying migrations allows for improved management of species and
51 es, strong headwinds at low and intermediate migration altitudes within the Caribbean that increase i
52 journey at intermediate and especially high migration altitudes, strong headwinds at low and interme
53 converts J113863 from an antagonist for cell migration and a partial agonist in other assays to a ful
56 rily responsible for defects in B lymphocyte migration and antibody responses that accompany acute vi
59 s to trigger phenotypic changes that enhance migration and are hypothesized to be the initiators of m
60 nes involved in cellular adhesion, leukocyte migration and atherosclerosis (PECAM1, rs1867624), coagu
61 animals with implications for maintenance of migration and body size in the face of environmental cha
62 When seeded as individual cells, lateral migration and cell-cell junction formation precede matri
64 uced by elasticity may thus facilitate sperm migration and contribute to successful fertilization.
65 whole families, whereas the later Bronze Age migration and cultural shift were instead driven by male
67 ins involved in the proliferation, survival, migration and epithelial-to-mesenchymal transition of ca
68 defines a key mechanism promoting epithelial migration and establishes a different paradigm for plana
69 posure to high glucose, inhibit keratinocyte migration and IGF-1-induced chemotaxis in association wi
70 tinocyte proliferation, differentiation, and migration and in epidermal wound healing and barrier rep
72 as been implicated in modulating cancer cell migration and independently predicts progression to meta
73 5 and PC3 cells significantly increased cell migration and induced the expression of the mesenchymal
76 dification from pHe7.4 to 6.4 decreases cell migration and invasion but increases single cell detachm
77 h level of expression of genes implicated in migration and invasion compared to commonly used, immort
78 has been recognized as a key element of cell migration and invasion in lung cancer; however, the unde
79 coactivation of ER and IKKbeta promoted cell migration and invasion in vitro and drove experimental m
86 for developmental events, cell polarity, and migration and is usually mediated by linker of nucleoske
88 high kisspeptin 1 (KISS1) related to reduced migration and low carboxylesterase 1 (CES1), to impaired
89 ve of how endothelial cells (ECs) coordinate migration and proliferation in response to growth factor
90 Knockdown of C3 and CFB expression inhibited migration and proliferation of cSCC cells and resulted i
91 tivation of Akt (S473), resulting in reduced migration and proliferation of retinal endothelial cells
95 kade of C1q and C3a transiently altered hNSC migration and reversed astroglial fate after spinal cord
96 Hepatocyte growth factor (HGF) induces cell migration and scattering by mechanisms that are thought
100 nd human primary MCL tumors overexpress cell migration and stromal stimulation gene signatures compar
102 ng experiments targeting alpha1D reduced the migration and the basal cytosolic Ca(2+) concentration o
103 sion between two distinct modes: single-cell migration and the multicellular, strand-like invasion re
105 RGC32 overexpression promoted proliferation, migration and tumorigenic growth of human CRC cells in v
108 lter cell behaviors including proliferation, migration, and cell-cell adhesion, which are all requisi
109 les in the regulation of cell proliferation, migration, and differentiation, these data reveal a nove
113 CAPE) disrupts neural crest gene expression, migration, and melanocytic differentiation by reducing S
114 D3 on corneal epithelial cell proliferation, migration, and on the vitamin D activating enzyme CYP27B
115 l(-/-)) mice possess enhanced proliferation, migration, and permeability of inflammatory cells by act
116 The role of these molecules on attachment, migration, and proinflammatory and prodestructive activa
118 l processes involving cell division, growth, migration, and rearrangement, all of which occur within
119 ls to provide a stable scaffold for neuronal migration, and suggest that the transition in mitotic dy
124 previously described the acquisition of cell migration as a feature of NK cell terminal maturation in
125 apical constriction and interkinetic nuclear migration, as well as precise molecular control via the
126 steers the direction of centrosome and somal migration, as well as the switch from tangential to radi
129 requires the precise regulation of neuronal migration, axon guidance, and dendritic arborization.
130 cies, and could be confirmed by differential migration behavior of protein fragments in gel electroph
136 epithelial-myofibroblast transition and cell migration but did not prevent fiber cell differentiation
137 Additionally, HA and HC-HA/PTX3 inhibited migration but only HC-HA/PTX3 inhibited collagen gel con
138 and are used by individuals to refuel during migration, but the effect of fuel loads (fat) acquired a
142 ation of local material structure to exciton migration character, applicable not only to photovoltaic
148 through an active, oriented, and actin-based migration dependent on Rac1, which contrasts with the pr
150 stromal cell-derived factor-1alpha-mediated migration dose-dependently but minimally affected cell v
152 tributes to neuronal morphogenesis, neuronal migration during development and its C. elegans ortholog
154 The contrasting patterns of sex-specific migration during these two migrations suggest a view of
155 osine kinase signaling network controls cell migration, epithelial organization, axon patterning and
156 w the different observed modes of collective migration, especially for small groups of cells, emerge
159 of strawberry extract and P3G, on leukocyte migration, exudation levels and many inflammatory mediat
160 m Anatolia and the late Neolithic/Bronze Age migration from the Pontic-Caspian Steppe, can be investi
161 We find evidence of ongoing, primarily male, migration from the steppe to central Europe over a perio
162 -regulated in hPGCLCs were enriched for cell migration genes, and their promoters were enriched for t
166 auto-phosphorylation also affected neuronal migration, highlighting the importance of tightly regula
168 ficient M1 macrophages demonstrated improved migration in a three-dimensional fibrin matrix and durin
169 ke significant contributions to the observed migration in a way that cannot be accounted for in the s
170 CIL has been proven to be essential for NC migration in amphibians and zebrafish by controlling cel
171 e report direct visualization of hot-carrier migration in methylammonium lead iodide (CH3NH3PbI3) thi
172 zed cDC subset distribution, maturation, and migration in mucosal tissues (lungs, intestines), associ
173 We find that knockdown of KPNA4 reduces cell migration in multiple PCa cell lines, suggesting a role
176 induced by okadaic acid, restores lymphocyte migration in response to chemokines, both in vitro and i
177 include predictions of chemotactic bacterial migration in response to multiple localized contaminant
178 We aimed to model pathogenic fibroblast migration in SSc in order to identify enhancing factors,
181 s unable to induce transendothelial monocyte migration in vitro and failed to promote leukocyte recru
183 ed epithelial MV release promoted macrophage migration in vitro and recruitment into the lung in vivo
186 l, noncompensated role in neuronal saltatory migration in vivo and highlights the importance of MT fl
189 M) is a crucial precursor to collective cell migration in wound closure and cancer metastasis, respec
190 ilarly, NA transiently inhibits neural crest migration in Xenopus embryos in a Snail1-dependent manne
193 analysis suggested downregulated macrophage migration inhibitory factor (MIF) to be the most pertine
199 on is largely responsible for Twist1-induced migration, invasion and metastasis, but less responsible
201 e 1 (TUG1) induces marked inhibition of cell migration, invasion, and glycolysis through suppression
204 the carbonate ions, implying that the proton migration is a synergetic process and the whole carbonat
205 of light during nights with substantial bird migration is a viable strategy for minimizing potentiall
206 Nor is it known precisely how villus cell migration is affected when proliferation is perturbed.
212 Given the importance of orchestrating cell migration, it is vital that chemokine receptor signaling
213 ia electron shuttles, and the consequent ion migration led to high anode salinities and conductivity
214 olved ultrafast approach, we measure a 16-nm migration length in poly(2,5-di(hexyloxy)cyanoterephthal
217 at the stiffness optimum of U251 glioma cell migration, morphology and F-actin retrograde flow rate c
219 tein-coupled receptors are critical for cell migration, not only in many fundamental biological proce
221 eficient cell population as well as aberrant migration of both early-born and late-born neuroblasts,
222 the Neolithic transition was driven by mass migration of both males and females in roughly equal num
223 solution of peritoneal inflammation, whereas migration of CD11b(-/-) M1 macrophages was not affected.
224 ting either BCL2L11 or CDH9 will enhance the migration of cell lines, which provides evidence that th
226 ommunications in the optic nerve head induce migration of fluid into the adjacent retinal tissue.
232 competition between intramolecular hydrogen migration of peroxy radicals and their bimolecular termi
233 we report that Necdin deletion disturbs the migration of serotonin (5-HT) neuronal precursors, leadi
234 rates were used to investigate alignment and migration of skin and lung fibroblasts from SSc patients
235 oxygen species, inhibited proliferation and migration of smooth muscle cells (SMCs) and promoted the
237 oduction of macrophages and thereby enhanced migration of VEGFR1(+) myeloid cells, which were reverse
242 nd biological effects (cytotoxicity and anti-migration) on drug-naive recipient cells (Recipient cell
244 ficient to promote cell shape elongation and migration parallel to the ECM, or contact guidance.
246 , intracellular antioxidation, and leukocyte migration plus genes for proinflammatory cytokines and v
248 d cultural shift were instead driven by male migration, potentially connected to new technology and c
249 experiments we found that N-BLR facilitates migration primarily via crosstalk with E-cadherin and ZE
250 rboxylation happens concertedly with an aryl migration process, producing a eta(1) isonitrile complex
252 ed amount of this protein alters cell shape, migration, proliferation, and gene expression to the det
254 iously identified the cancer-associated cell migration protein Tetraspanin 1 (TSPAN1) as a clinically
260 did not modulate MCT1-dependent cancer cell migration, silencing or genetic deletion of MCT1 in vivo
262 n TNBC cells plays an essential role in cell migration, SMAD7 degradation, EMT, and induction of beta
263 cenarios, allowing population structure with migration, speciation, population size changes, and reco
265 s of sex-specific migration during these two migrations suggest a view of differing cultural historie
266 to the establishment of the body axis, cell migration, synaptic plasticity, and a vast range of othe
267 nt, with the acquisition of complex modes of migration that are associated with terminal maturation.
268 nds showed significantly increased transwell migration that was enhanced by priming with physiologic
269 Upon deviatoric stress-driven orientational migration, the intraparticle coalescence of Au satellite
271 APH1, a miR-198 target, enhances directional migration through sequestration of Arpin, a competitive
274 s the zwitterion and suppresses the fluorine migration, thus providing a convenient and efficient syn
275 of the two glucosides is characterised by a migration time of 54s, which completely separates it fro
281 mpened MK granule biogenesis and directional migration toward an SDF1alpha gradient, leading to ectop
282 n-1 Ab, a role for reticulon-1 in macrophage migration toward both CSF-1 and CCL2 was confirmed.
283 ivation potently induces multiple myeloma PC migration toward CCL3 while abrogating the multiple myel
286 lkyl) (amino)carbene (cAAC) via 1,2-hydrogen migration triggered by boranes to afford cAAC-borane add
287 ificantly decreased IL-6-mediated tumor cell migration, tumorsphere formation and ALDH-positive cance
288 We then directly study the dynamics of PNC migration under various force-transduction models, inclu
289 the sperm's mitochondria, thereby increasing migration velocity and inhibiting reversals within the h
292 logical levels of corticosterone promote HSC migration via the GC receptor Nr3c1-dependent signaling
294 terogeneous cell subsets whose phenotype and migration were dependent ( approximately 30%) or indepen
296 erica cross the Atlantic Ocean during autumn migration when travelling to their non-breeding grounds
297 riched at the cell front during dynamic cell migration, which requires the Pumilio-related RNA-bindin
298 showed chemoattractantDeltadriven vectorial migration, while CD8 T cell migration across LEC was not
299 appeared to be a leading indicator of marsh migration, while soil characteristics such as redox pote
300 otate around carbon to facilitate the proton migration, while the movement of carbon is very limited.
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