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1 ions, subject to the complexities of a fully functional cell.
2 transition of genetic information to a fully functional cell.
3 easome system is essential for maintaining a functional cell.
4 g to repopulate the alveolar epithelium with functional cells.
5 ocyte maturation to CD4 single positive (SP) functional cells.
6 cells with either cDNA alone resulted in non-functional cells.
7  mammals have limited capacity to regenerate functional cells.
8 ia HITI provides high cell yields and highly functional cells.
9 tude but prevents their differentiation into functional cells.
10 or replace damaged liver tissue with healthy functional cells.
11 nversion, and an inability to produce mature functional cells.
12 ic investigation of optically trapped single functional cells.
13 propose a possible explanation for these non-functional cells.
14 neral mechanism to eliminate differentiated, functional cells.
15 s to gastrulation; together with evidence of functional cell adhesion and development within an envel
16                                              Functional cell adhesion and leukocyte transmigration as
17 ledge from developmental biology to generate functional cells and tissues that could be used for rege
18 atode populations lacking defined classes of functional cells, and for genetic screens.
19 e recombinase (Cre)-mediated excision led to functional, cell- and tissue-specific loss of alpha7 nAC
20 cellular activity in a hemagglutination (HA) functional cell assay of bacterial adhesion.
21 d calcium fluctuations may form the basis of functional cell assemblies.
22 selective and dynamic control of distributed functional cell assemblies.
23  efficient nucleation of fiber subunits into functional, cell-associated amyloid.
24                              The presence of functional, cell-associated IL-1 alpha activity in infec
25       Taken together, our identification and functional cell-based analyses of pathogenic variants in
26                                          The functional cell-based assay Receptor Selection and Ampli
27  In this study, we sought to develop a novel functional cell-based assay that relies on passive sensi
28                                      Using a functional cell-based assay, we have identified two nove
29  Ab response, a bridging ELISA, as well as a functional cell-based assay, were constructed.
30 LCN leads to increased cell-cell adhesion in functional cell-based assays and disruption of cell pola
31                                This includes functional cell-based assays and the evaluation of molec
32                            In addition, most functional cell-based assays designed to characterize th
33 ptor kinase interacting ArfGAP 1) gene using functional cell-based assays involving coexpression of G
34                                We found that functional cell-based assays of three point mutants affe
35  To test this hypothesis, we have utilized a functional cell-based endocytosis assay and identified t
36 were designed and assessed for inhibition of functional cell-based Gli1-mediated transcription and se
37 ructure-based physicochemical separation and functional cell-based potency assays.
38 presents a new tool for rapid measurement of functional cell-based responses and parallel separation
39                                            A functional cell-based screen identified 3-(4-chloropheny
40     In the present study, a high-throughput, functional, cell-based assay for identifying Maxi-K chan
41 nist activity using a chimeric receptor in a functional, cell-based, high-throughput assay.
42 hat such cells may ultimately predominate if functional cells become exhausted.
43 will contribute a needed tool for furthering functional cell biology experiments in Cnidaria.
44 vide a reference platform for structural and functional cell biology.
45                                      Because functional cells cannot be deprived of ATP, we have knoc
46 an ionically tight interface necessary for a functional cell-cell channel.
47                              If Cx34.7 forms functional cell-cell channels between cones, it would pr
48 ssociated mutation, Ser-85-Cys (S85C), forms functional cell-cell channels in paired Xenopus oocytes.
49                                              Functional cell-cell communication developed between WB
50                            Here we show that functional cell-cell interaction between NPCs and NSCs t
51 tinct tissue-resident immune cells that form functional cell circuits with structural cells.
52 Z progenitor cells may be one anatomical and functional cell class.
53  These results suggest that a limited set of functional cell classes emerges in macaque prefrontal co
54 IJ (RIIIJ), reliably identified six discrete functional cell classes.
55 and programmed cell death (PCD) to produce a functional cell corpse.
56 orphological localization to the synapse and functional cell culture assays, but their role in embryo
57 of the fact that HEI-C-depleted cells retain functional cell cycle checkpoints, as these cells arrest
58 be2S slows down APC substrate degradation in functional cell-cycle extracts.
59  a means for understanding RNA regulation of functional cell diversity.
60  by a continuous replacement of short-lived, functional cells during chronic MCMV infection.
61 tivity is not responsible for the paucity of functional cells even in end-stage liver disease.
62 egulate the gammadelta T cell maturation and functional cell fate decision.
63 proposed device was loaded and cultured with functional cells for drug response investigation and org
64 ve major potential as an unlimited source of functional cells for many biomedical applications; howev
65 cols aimed at generating clinically safe and functional cells for retinal diseases face challenges su
66 t has become a promising strategy to produce functional cells for therapeutic purposes.
67 iology field is the ability to produce fully functional cells from induced pluripotent stem cells (iP
68 eding behaviour by dynamic reorganization of functional cell groups in the hypothalamus.
69                         Strategies to expand functional cells have focused on discovering and control
70       Pertussis toxin-treated Th2 cells were functional cells, however, and when directly instilled i
71 erating B-cells express lower levels of some functional cell identity genes, suggesting that prolifer
72 ism and transcriptional programs that govern functional cell identity.
73 an integrate into the embryo and form mature functional cells in the animal.
74 tability and potential to differentiate into functional cells in vitro (hepatocytes) and in vivo (hep
75 e-cell RNA sequencing (scRNA-seq), assessing functional cell integration in vitro into a mature RPE m
76 lico models that accurately reflect a whole, functional cell is an ongoing challenge in biology.
77                                            A functional cell is requisite for TSWV infection and cell
78                  However, its role in mature functional cells is poorly studied.
79 lready organized state, can suffice to yield functional cells is uncertain.
80   This feature facilitated the coassembly of functional cell-like hybrid vesicles from giant dendrime
81  on the availability of these factors in the functional cell lines employed.
82                In most cases, limitations in functional cell longevity will necessitate periodic repl
83 rocess during which fully differentiated and functional cells lose aspects of their identity while ga
84       Varicella-zoster virus (VZV) encodes a functional cell membrane Fc receptor called glycoprotein
85                 This study aimed to identify functional cell membrane proteins that promote HCC tumor
86 lar bioenergetics is proposed that occurs in functional cells not exposed to catastrophic DNA damage.
87 rompted in vitro efforts to produce the main functional cells of the liver: hepatocyte-like cells (He
88 ow efficiently they may be differentiated to functional cells of various lineages.
89  an easy and rapid method for engineering of functional, cell-permeable peptides and demonstrates the
90 ntiation and establishment of structural and functional cell polarity; components of the apical micro
91 rived lymphoid compartments contained normal functional cell populations as determined by the presenc
92 static tumor cells provides a framework of 8 functional cell programs that coexist or anticorrelate.
93 his observation was confirmed in a series of functional (cell proliferation, survival, migration and
94 F-kappaB activation was not due to a lack of functional cell/protein because NF-kappaB was appropriat
95 ely integrate to translate pMHC stimuli into functional cell responses.
96 s compared with their parental mitochondrial-functional cells (rho(+)).
97 ese techniques will be useful in identifying functional cell-specific binding motifs and contribute t
98 m underlying the activation of the transient functional cell states remain largely unexplored.
99  differences in gene regulation across fluid functional cell states within cell types.
100 ial, suggesting that OPCs exist in different functional cell states, and that age-associated states m
101 ce of protein-level measurements to identify functional cell states.
102 f protein-level measurements for identifying functional cell states.
103 ee across behavior, oscillatory network, and functional cell states.
104 d expression of genes encoding components of functional cell structures were often observed indicatin
105                                        Thus, functional cell subsets may differ not only in the curre
106 uggesting that this marker does not identify functional cell subsets that produce serum interleukin-4
107 stent with the hypothesis that the number of functional cell surface alpha7 nAChRs is controlled indi
108  polymerase chain reaction, S1 nuclease, and functional cell surface binding studies showed that norm
109 pe 1 (HIV-1) coreceptor CCR5 (CCR5 -/-) lack functional cell surface CCR5 molecules and are relativel
110 ellular compartments, resulting in a loss of functional cell surface channel.
111  derivatives, can stabilize DR5 and increase functional cell surface DR5 levels, resulting in enhance
112 al requirement for N-linked glycosylation in functional cell surface expression of D1 and D5 dopamine
113 te that Kvbeta1 differentially regulates the functional cell surface expression of myocardial I(to,f)
114 transmembrane proteins RTP1 and RTP2 promote functional cell surface expression of ORs expressed in H
115  anti-DLL4 treatment reduced T cell mRNA and functional cell surface expression of the chemokine rece
116 alyzed the role of N-linked glycosylation in functional cell surface expression of the D1 and D5 dopa
117 s, but not of TCR-alpha chains, assembly and functional cell surface expression of the TCR-CD3 comple
118 the PKD1L3 and PKD2L1 is necessary for their functional cell surface expression.
119 haplotype, resulting in the formation of two functional cell surface heterodimers, HLA-DR2a (DRA*0101
120 haplotype, resulting in the formation of two functional cell surface heterodimers, HLA-DR2a (DRA*0101
121 losterism between hLHR protomers, indicating functional cell surface hLHR dimers.
122 s IL-22 and prevents binding of IL-22 to the functional cell surface IL-22R complex, which consists o
123 s (HD) by measuring in these neutrophils (i) functional cell surface markers, including CD16, CD62L,
124 protein tyrosine phosphatases (RPTPs) are bi-functional cell surface molecules.
125 rom laboratory mice because of the lack of a functional cell surface receptor required for virus entr
126 , these data show that mouse DESC1 encodes a functional cell surface serine protease that may have im
127 lication error positive in both alleles lack functional cell surface TGF-beta type I (RI) and type II
128              Nanobodies targeting the tip of functional cell-surface CdrA molecules could be used to
129                                The number of functional cell-surface NMDARs in cortical neurons incre
130 ear whether primary afferent neurons express functional cell-surface opioid receptors.
131 te that human and murine neutrophils express functional cell-surface P2X7R, which leads to ATP-induce
132 ls, indicating that the 210-kDa protein is a functional cell-surface receptor on type II cells.
133 rized a cell line, CTLL-EPO-R, that contains functional cell-surface receptors for both EPO and IL-2.
134          Insights into the complexity of the functional cell-surface-protein repertoire (surfaceome)
135 s can be genetically modified to overexpress functional, cell-surface Fas ligand (FasL) by adenovirus
136 ust a simple barrier for gas exchange, but a functional cell that protects alveolar epithelium from i
137 d cells but instead is upregulated on highly functional cells that have recently received antigenic s
138 t cell differentiation and the production of functional cells, tissues, and organs.
139 ertheless be some chance that LTD converts a functional cell to a non-functional one; in contrast, th
140 ents a valuable opportunity to replenish the functional cells to the heart.
141 cular disease that relies on the delivery of functional cells to their target site.
142 as imaged by two-photon microscopy permitted functional cell type annotation.
143 ng hematopoietic system, no direct link to a functional cell type has been made.
144 nglion cells as a previously uncharacterized functional cell type in the HSPC niche.
145                Grid cells, the most abundant functional cell type in the MEC, have hexagonally arrang
146                         We uncovered a novel functional cell type that preferentially emerged in the
147       These suggest the existence of a novel functional cell type within the gland, that the basal/my
148 cent methodological advances uncovered a new functional cell type, the superhub, that is predicted to
149                This study provides the first functional cell type-specific and spine type-specific co
150  situ paving the way for further spatial and functional cell-type classification.
151    Our findings underscore the importance of functional cell-type evaluation during stepwise differen
152                                              Functional cell types (FCTs) that encode similar task fe
153 ir capacity to differentiate into mature and functional cell types after transplantation.
154 nt clustering neurons into transcriptomic or functional cell types and characterizing the differences
155 tiation of immature blast cells into mature, functional cell types and lineages of the immune system.
156 of airway-like cysts with persistent loss of functional cell types and parenchymal architecture.
157 ve as a unique avenue for generating diverse functional cell types for biomedical research and therap
158 ating human cells into specific homogeneous, functional cell types is challenging.
159 nduced pluripotent stem cells to defined and functional cell types is essential for future clinical a
160 urons contribute to the spiking behaviour of functional cell types of MEC neurons, such as grid cells
161 nto hepatocytes and cholangiocytes, the main functional cell types of the liver.
162 s that direct stem cell differentiation into functional cell types remains a major challenge in the f
163 icellular organisms is the specialization of functional cell types through the process of differentia
164                       Here, we explore using functional cell types to refine single-cell models by gr
165  reproduce themselves and differentiate into functional cell types, attract much interest as potentia
166 tivational control, composed of at least two functional cell types, one signaling for motivational va
167 h the activity of differentiated hippocampal functional cell types, which conjunctively encoded diffe
168 eal carcinoma susceptibility genes and their functional cell types, which improves the understanding
169 le behavior, making it difficult to classify functional cell types.
170 ells (TACs) that differentiate into specific functional cell types.
171 ll naive hESCs fail to differentiate towards functional cell types.
172 ly target and manipulate genetically defined functional cell types.
173 descendants that differentiate into distinct functional cell types.
174  operative in mature duct cells during which functional cells undergo "ductal retrogression" to form
175  LAM is an essential structural entity for a functional cell wall and, consequently, that the biosynt
176 f beta-lactam antibiotics, suggesting that a functional cell wall is required for Pls secretion from
177  whether mango peel is a potential source of functional cell wall polymers.
178 ich posits that heterogeneity stems from non-functional cell wall synthesis machinery, while the seco
179  not need to resist osmotic challenges and a functional cell wall was not detected in these pathogens
180 odulate mitochondrial activity to maintain a functional cell wall when subjected to stresses.
181 onses to drought depend on the presence of a functional cell wall.
182 act covalently and noncovalently to form the functional cell wall.

 
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