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1 n fatty acid synthesis to critically support embryonic development.
2 fficient and senescent placenta that impairs embryonic development.
3 nal modification involved in oncogenesis and embryonic development.
4 f the axial and appendicular skeleton during embryonic development.
5 centers required for error-free mitosis and embryonic development.
6 nct waves at various anatomical sites during embryonic development.
7 ions in tissue biology, organ physiology and embryonic development.
8 splicing (AS) is frequent during early mouse embryonic development.
9 egg shell formation, and the normal rate of embryonic development.
10 ession needs to be rapidly reversible during embryonic development.
11 ore complexes (NPCs) that are stockpiled for embryonic development.
12 the function of the regulators that control embryonic development.
13 d basement membrane remodelling during early embryonic development.
14 g in diverse biological processes, including embryonic development.
15 y inherited RNA and proteins control much of embryonic development.
16 derivative, has pleiotropic functions during embryonic development.
17 m failures in secondary palatogenesis during embryonic development.
18 tic index were determined and used to assess embryonic development.
19 tial and temporal expression patterns during embryonic development.
20 tion events in either gametogenesis or early embryonic development.
21 nexpected role of this pathway in vertebrate embryonic development.
22 ription factors, which are key regulators of embryonic development.
23 n in a variety of processes, including mouse embryonic development.
24 the signal and convert it into an effect on embryonic development.
25 lls in a distribution similar to that during embryonic development.
26 nd revealed a second function for PETISCO in embryonic development.
27 d by maternal factors, allowing normal early embryonic development.
28 ent, metabolic processes, osteopetrosis, and embryonic development.
29 h at mid gestation and decreased during late embryonic development.
30 contrasts with their vigorous growth during embryonic development.
31 st be excluded from the germ line for proper embryonic development.
32 y of metabolic processes in oocyte and early embryonic development.
33 developmental arrest and gain competency for embryonic development.
34 -like protein modifier that is essential for embryonic development.
35 primordia, liver and intestinal bulb during embryonic development.
36 e potential for DPHP-induced toxicity during embryonic development.
37 volved in metabolism, protein synthesis, and embryonic development.
38 primordial germ cell (PGC) maturation during embryonic development.
39 rearrangements of cultured cells and during embryonic development.
40 , which directs glial differentiation during embryonic development.
41 ng cell death, cell and organ morphology and embryonic development.
42 nce of Dnmt3b, and as a result, mice survive embryonic development.
43 al cellular function, tissue patterning, and embryonic development.
44 nlike ARPP19, ENSA is not required for early embryonic development.
45 the maternal epigenome that in turn controls embryonic development.
46 by 7 dpf, revealing an essential role during embryonic development.
47 s with muscle innervation by MNISN-1s during embryonic development.
48 ression that may model key features of early embryonic development.
49 n in which these miRNAs are expressed during embryonic development.
50 ges occur in carcinogenesis as well as early embryonic development.
51 tegrated ENCODE reference data set for mouse embryonic development.
52 iogenesis in diverse tissue types throughout embryonic development.
53 animal models to study the role of Shoc2 in embryonic development.
54 regulating lymphatic valve formation during embryonic development.
55 are important regulators of cell fate during embryonic development.
56 may be a mediator of progesterone effects on embryonic development.
57 ed and analyzed at different stages of mouse embryonic development.
58 mperature decreases that were likely to slow embryonic development.
59 ell size in a wide range of organisms during embryonic development.
60 ly patterned with exquisite precision during embryonic development.
61 g modulates phenotypes during Xenopus laevis embryonic development.
62 ediated gene silencing that is essential for embryonic development.
63 nvironments at the expense of retarding post-embryonic development.
64 of how it affects cellular processes during embryonic development.
65 sitions during stem cell differentiation and embryonic development.
66 failure of neural tube closure during early embryonic development.
67 uctures and large chromatin domains in early embryonic development.
68 of sexing on bovine sperm function and early embryonic development.
69 tions for understanding their origins during embryonic development.
70 inged helix transcription factor involved in embryonic development.
71 es of blocking its enzymatic activity during embryonic development.
72 g RING E3-ubiquitin ligase with functions in embryonic development.
73 equent target gene transcription during post-embryonic development.
74 binding domain for its roles in viability or embryonic development.
75 cancer cell invasion, immune responses, and embryonic development.
76 -AvBD11 appears to play a protective role in embryonic development.
77 tion that primes transcriptional program for embryonic development.
78 on differentiation system that recapitulates embryonic development.
79 and fertilise the oocyte, and aberrant early embryonic development.
80 he last common ancestor of animals underwent embryonic development.
81 uiting pathways similar to those utilized in embryonic development.
82 (AS) is involved in cell fate decisions and embryonic development.
83 cell types that appear progressively during embryonic development.
84 ights the importance of TF activity in early embryonic development.
85 fate with compartmentalisation during early embryonic development.
89 conditions, including tumor suppression [2], embryonic development [3, 4], tissue repair [5-8], and o
92 rter for Cu acquisition and is essential for embryonic development, a homologous protein, Ctr2, has b
93 gms, little is known about its effect during embryonic development, a period of rapid cellular prolif
95 ZGA impairs the Pol II pre-configuration and embryonic development, accompanied by aberrant retention
97 ntum in the study of cell differentiation in embryonic development, adult stem cells, and cancer path
107 tanding energetics of morphogenesis in early embryonic development and cancer-cell metastasis and pro
109 set of organs during a time-course of mouse embryonic development and captured the expression dynami
110 ective cell migration is required for normal embryonic development and contributes to various biologi
111 g of how heart formation is initiated during embryonic development and for applying stem cell biology
113 superfamily, plays an important role during embryonic development and has been implicated in promoti
114 progesterone early in pregnancy is to alter embryonic development and hasten the process of trophobl
116 e relied on studies of organ assembly during embryonic development and have resulted in the developme
117 tone variant function in the context of both embryonic development and human disease, specifically de
118 gene expression between embryonic and extra-embryonic development and identifies an integral role fo
119 ed in many physiological functions including embryonic development and immune responses and is often
122 a and Dnmt3b activities are regulated during embryonic development and in somatic cells remains large
124 use this new tool to track microglia during embryonic development and in the context of ischemic inj
125 tor signaling is intrinsically important for embryonic development and its dysregulation leads to dis
127 (atRA) hydroxylase Cyp26a1 is essential for embryonic development and may play a key role in regulat
128 ion, establishes its essential role in early embryonic development and mESC homeostasis, and offers i
133 tion of cell collectives is important during embryonic development and relies on cells integrating mu
134 ew of these subsets are produced only during embryonic development and remain in the tissues througho
136 The role of endothelial Rac1 and Cdc42 in embryonic development and retinal angiogenesis has been
138 ce of caspase-mediated RIPK1 cleavage during embryonic development and show that caspase cleavage of
140 rned embryonic organoids (gastruloids) mimic embryonic development and support the generation of card
141 acting nuclear envelope proteins have normal embryonic development and that early postnatal defects a
142 Wnt-beta-catenin signaling pathway regulates embryonic development and tissue homeostasis throughout
145 ansition (MET), are fundamental processes in embryonic development and tissue repair but confer malig
146 R regulation plays an important role in both embryonic development and tumor suppression, independent
147 fied via centriole rosette formation in both embryonic development and turnover of the olfactory epit
151 10) is a transmembrane protein essential for embryonic development, and its dysregulation underlies d
152 incubating can lower egg temperatures, slow embryonic development, and potentially lengthen the incu
153 reveal essential roles for Cubilin in early embryonic development, and suggest that in addition to i
157 ors endow the competence for fate changes in embryonic development, are essential for cellular reprog
158 ribosome supply is sufficient for C. elegans embryonic development, arguing against tissue-specific s
160 further improved by removing females during embryonic development as larval diet costs are significa
162 isions and delaminations taking place during embryonic development, brain malformations caused by ect
163 vitamin C deficiency does not affect overall embryonic development but leads to reduced numbers of ge
164 trol of APUM9, might have a role not only in embryonic development, but also in plant adaptation to h
166 ETTL14 is indispensable for postimplantation embryonic development by facilitating the conversion fro
167 M helps to regulate tissue morphology during embryonic development by governing key elements of cell
169 lia of the left-right organizer during early embryonic development can lead to laterality defects suc
172 oteins and proto-oncogenic factors affecting embryonic development, cell proliferation, apoptosis, an
173 elomere protection specifically during early embryonic development, cells exiting pluripotency rapidl
174 y found in primitive intestinal cells during embryonic development, centered on HNF4A and GATA6.
176 , the dominant lymphangiogenic factor during embryonic development, continues to play a dominant role
177 cartilage and brain; and mainly involved in embryonic development, cornea transparency, and wound he
178 The early patterning of the thalamus during embryonic development defines rostral and caudal progeni
180 ve scenarios to explain the origin of animal embryonic development: either it originated concomitantl
182 cing (snRNA-seq) at multiple stages of mouse embryonic development focusing on the exchange interface
184 a link in an in vitro model for early mouse embryonic development: from naive pluripotency to the sp
185 conserved transcription factors that during embryonic development function as master regulators of p
187 RC over millions of years of evolution, with embryonic development genes bicc1 and trim71 dating to t
188 how the axial tissues that are formed during embryonic development give rise to the adult spine and s
193 ranscription factor gene Prdm16 during mouse embryonic development has been shown to cause a severe l
194 C. elegans, the roles of the PAR proteins in embryonic development have been extensively studied, yet
199 he cell-cycle timing asynchrony of the early embryonic development in C. elegans is determined indepe
200 extracellular zinc similarly disrupts early embryonic development in eggs from diverse phyla, includ
203 t were optimized for longitudinal imaging of embryonic development in small specimens, emerging imple
206 tive cell migration plays essential roles in embryonic development, in normal epithelial repair proce
207 sue regeneration shares certain hallmarks of embryonic development, in that lineage-specific factors
208 othesized that de novo mutations controlling embryonic development, in the form of brain somatic muta
209 function during diverse processes including embryonic development, infectious diseases, and myelosup
215 others, the link between maternal stress and embryonic development is more complex than a simple one-
220 , and though it is known to be essential for embryonic development, its role during adult life is sti
221 ence of the primary afferent topology during embryonic development leads to dysfunctional tonotopy of
222 onstrated pivotal roles of Tet in regulating embryonic development, little is known about their funct
223 key (patho)physiologic processes, including embryonic development, lymphocyte homing, inflammation,
224 These data also highlight how defects in embryonic development may manifest as neurodegenerative
234 y the identity of the ASE neuron pair during embryonic development of the nematode Caenorhabditis ele
238 can transfer from parents to progeny during embryonic development or accumulate through Se-enriched
239 normal extracellular matrix turnover during embryonic development, organ morphogenesis and wound hea
240 ndothelial progenitor cells occurring during embryonic development, organogenesis, and adult neovascu
241 l migration is emerging as a major driver of embryonic development, organogenesis, tissue homeostasis
242 influx during egg activation and in further embryonic development, our results suggest that calcium
243 e characterized with the activation of early embryonic development pathways, whereas less aggressive
244 tation and placentation, including "in utero embryonic development," "placenta development," and "reg
246 d with the formation of new myofibers during embryonic development, postlarval growth, and muscle reg
247 ) is a key epigenetic factor required for AM embryonic development, postnatal homeostasis, maturation
248 in-coupled S1P receptors (S1PRs) to regulate embryonic development, postnatal organ function, and dis
249 c and context-dependent manners, to regulate embryonic development precisely and maintain the interna
250 ), indicating that Glis1 is expressed during embryonic development predominantly in nuclei of endothe
251 site were treated with estradiol (E2) during embryonic development prior to gonadal differentiation.
252 t abnormalities in early-to-middle stages of embryonic development (prior to ubiquitous action potent
256 and in mice the formation of nephrons during embryonic development reaches completion near the end of
257 global re-methylation phases of germline and embryonic development remain hypomethylated across all d
259 s basic and clinical importance, early human embryonic development remains relatively unexplained owi
261 a complex maturation process reminiscent of embryonic development: solid-cell cords form their own b
262 lineage tracing revealed that, during murine embryonic development, some SCPs detach from nerve fiber
264 ntext-related biological processes including embryonic development, stem cell differentiation, transc
265 pathways classically known to be involved in embryonic development, such as BMP-TGFbeta, WNT, Notch,
266 ntifying proteins required for completion of embryonic development that are mosquito selective and re
267 thus show that ARGLU1 is a novel factor for embryonic development that modulates basal transcription
268 luripotency and differentiation during early embryonic development, the functional relationship betwe
269 l role of retained histones in fertility and embryonic development, the genomic location of retained
271 proutys have been extensively studied during embryonic development, their role and mode of action dur
272 llations are essential for activation of the embryonic development, therefore maintaining proper Ca(2
274 annabinoid and alcohol exposure during early embryonic development, this study establishes a novel li
275 Axonal connectivity is largely built during embryonic development through highly constrained process
276 signaling pathway is crucial for vertebrate embryonic development, tissue homeostasis and regenerati
277 ng system plays multiple, essential roles in embryonic development, tissue homeostasis, and human dis
278 logical process that plays a central role in embryonic development, tissue regeneration, and cancer m
279 onment will enable a deeper understanding of embryonic development, tissue regeneration, and tumorige
280 ective cell movements play a central role in embryonic development, tissue repair, and metastatic dis
281 quantified mouse polyA-RNA from day 10.5 of embryonic development to birth, sampling 17 tissues and
283 sh appropriate numbers of connections during embryonic development to form functional neural circuits
284 gene regulatory networks are required during embryonic development to give rise to various structures
285 required to amplify che-1 expression during embryonic development to reach an apparent minimal thres
286 n body, from the early stages of life (i.e., embryonic development) to life-threatening diseases (e.g
287 ex pattern of tissues that are formed during embryonic development, we found that null homozygotes la
288 selective connectivity is established during embryonic development, when neurons and glia migrate to
289 iological processes such as wound repair and embryonic development where cell spreading and migration
290 decreased survival, was not detrimental for embryonic development, while inducible endothelial RhoA
291 ygotic expression of gdf3 is dispensable for embryonic development, while maternally deposited gdf3 i
293 ryonic stage, POLR3GL knockout mice complete embryonic development without noticeable defects but die
295 wever, the SASP has also been shown to favor embryonic development, wound healing, and even tumor gro
296 y physio- and pathological processes such as embryonic development, wound healing, fibrosis and cance
297 the surrounding extracellular matrix during embryonic development, wound repair, and tumor invasion.
298 at display key features of post-implantation embryonic development, yet whether they fully recapitula
300 expression patterns of hmx2 and hmx3a during embryonic development, zebrafish hmx2 mutants are viable