コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 ments that contribute to inactivation of the cell cycle regulatory protein.
2 promoting ubiquitination and degradation of cell cycle regulatory proteins.
3 cations of detecting alterations in critical cell cycle regulatory proteins.
4 probably results from altered degradation of cell cycle regulatory proteins.
5 em for the identification and examination of cell cycle regulatory proteins.
6 controlled at the level of the cell cycle by cell cycle regulatory proteins.
7 d proteolysis controls the abundance of many cell cycle regulatory proteins.
8 lexes containing DNA replication, repair and cell cycle regulatory proteins.
9 lation of proteasome-mediated degradation of cell cycle regulatory proteins.
10 eration was mediated, in part, by effects on cell cycle regulatory proteins.
11 e complexes modulate the accumulation of key cell cycle regulatory proteins.
12 cogene, Tre2, as well as mammalian and yeast cell cycle regulatory proteins.
13 riptional activation by Tax is influenced by cell cycle regulatory proteins.
14 45 induced G2/M arrest and downregulation of cell cycle regulatory proteins.
15 kinase pathway and subsequent expression of cell cycle regulatory proteins.
16 mitosis by catalyzing ubiquitination of key cell cycle regulatory proteins.
17 n in UV-mediated increases in these critical cell cycle regulatory proteins.
18 proteins including RNA binding proteins and cell cycle regulatory proteins.
19 ivation and phosphorylation of apoptotic and cell cycle regulatory proteins.
20 sis and can phosphorylate many apoptotic and cell cycle regulatory proteins.
21 itously expressed transcription factors, and cell cycle regulatory proteins.
22 to altered proteasomal degradation of these cell cycle regulatory proteins.
23 ent junctures by the targeted destruction of cell cycle regulatory proteins.
24 ated, at least in part, by downregulation of cell cycle regulatory proteins.
25 These results suggest that Wolbachia target cell cycle regulatory proteins.
26 y regulating the activities of these crucial cell cycle-regulatory proteins.
27 infection leads to dysregulation of multiple cell cycle-regulatory proteins.
28 and subcellular compartmentalization of key cell-cycle regulatory proteins.
29 ed NF-kappaB activation and up-regulation of cell-cycle regulatory proteins.
30 NA transcripts, including those encoding key cell-cycle regulatory proteins.
31 modulating the expression of aforementioned cell-cycle regulatory proteins.
32 ine AN3CA, MIS affects the expression of key cell-cycle regulatory proteins.
33 thase and ubiquitin-dependent proteolysis of cell-cycle regulatory proteins.
34 D 98059 mimicked the effects of CWF on these cell-cycle-regulatory proteins.
35 In addition to regulating the expression of cell cycle-regulatory proteins, 7,3',4'-THIF bound to CD
36 th arrest and DNA damage 45 (GADD45alpha), a cell cycle regulatory protein activated by genotoxic str
37 on studies have shown that overexpression of cell cycle regulatory proteins affects the transcription
38 Of particular interest, transcripts encoding cell cycle-regulatory proteins, alpha- and beta-tubulins
39 inoblastoma family member RB2/p130 encodes a cell cycle regulatory protein and has been found mutated
40 al EBV latent antigen's directly targeting a cell cycle regulatory protein and suggests a novel mecha
41 is thought to control mitosis by binding to cell cycle regulatory proteins and altering their activi
43 s transient alterations in the expression of cell cycle regulatory proteins and by decreased telomera
45 d associated downstream events and modulates cell cycle regulatory proteins and progression, leading
46 rresponding changes in the expression of key cell cycle regulatory proteins and prolonged activation
47 nvolves a genetic interaction between BMP10, cell cycle regulatory proteins and several major cardiac
48 r protein required for the ubiquitination of cell cycle regulatory proteins and transcriptional facto
49 effect blocks the transcription of important cell-cycle regulatory proteins and results in cell-cycle
51 l in quiescence, governing the expression of cell cycle regulatory proteins, and completing of absorp
52 igation blocked IL-2 activation of genes and cell cycle regulatory proteins, and suppressed cell prol
53 was no effect on MyoD-induced activation of cell cycle regulatory proteins, and thus, cells arrested
54 ted DNA damage, up-regulated c-Myc and other cell-cycle regulatory proteins, and induced proliferatio
56 biquitination and proteasomal degradation of cell cycle regulatory proteins are known to play a pivot
57 the effects of N1,N11-diethylnorspermine on cell cycle regulatory proteins associated with G1 arrest
58 ds to diverse perturbations in signaling and cell cycle-regulatory proteins, associated with a marked
59 been found to functionally interact with the cell cycle regulatory proteins ATM and BRCA1; however, t
62 pha is known to downregulate cyclin A, a key cell cycle regulatory protein, but little else is known
68 pression and cytoplasmic localization of key cell cycle regulatory proteins control germline cyst pro
70 rbs cellular proliferation by regulating the cell cycle regulatory protein cyclin D1 and the ROS scav
72 eported that human SAMHD1 interacts with the cell cycle regulatory proteins cyclin A, CDK1, and CDK2,
73 lot analyses revealed that the levels of the cell cycle regulatory proteins cyclin B1 and the cyclin-
74 modulation in the expression and function of cell cycle regulatory proteins cyclin-D1 and -D2, cdk-2,
75 mechanism governing Mphi proliferation, the cell cycle regulatory protein, cyclin E, was rapidly upr
77 or induction of anti-apoptotic proteins plus cell cycle regulatory proteins during antigen receptor m
81 rmissive cells by altering expression of key cell cycle regulatory proteins either directly or indire
82 3, suggesting that mechanisms that alter the cell cycle regulatory proteins, either by interaction wi
84 t alter the AGN193198-dependent reduction in cell cycle regulatory protein expression and activity, s
85 athologic study characterizes differences in cell cycle-regulatory protein expression across the spec
88 it E3 ubiquitin ligase that targets specific cell cycle regulatory proteins for ubiquitin-dependent d
89 estrates cell-cycle progression by targeting cell-cycle regulatory proteins for destruction via the u
90 nical mechanism termed multiple fission, the cell cycle regulatory proteins from Chlamydomonas are re
91 nscriptional regulators, signaling proteins, cell cycle regulatory proteins, growth factors, and cyto
94 (HCMV) immediate-early (IE) proteins and key cell cycle regulatory proteins have been suggested as a
95 esis of viral-induced tumors and the role of cell cycle regulatory proteins in brain tumor formation
96 engagement on the expression and activity of cell cycle regulatory proteins in CD34(+) cells under co
97 xpression/activity of multiple signaling and cell cycle regulatory proteins in PMA-treated leukemia c
98 governed by the concerted action of numerous cell cycle regulatory proteins in response to signals bo
99 MC with conditional inactivation of negative cell cycle regulatory proteins in the context of smooth
101 N2A locus on chromosome 9p21 and function as cell cycle regulatory proteins in the p53 and RB pathway
102 KCdeltaEC) to determine the role of specific cell cycle regulatory proteins in the PKCdelta-induced c
104 DNA, DNA-PK will phosphorylate p53 and other cell cycle regulatory proteins in vitro, and DNA-PKcs sh
105 expression of surface activation markers and cell cycle-regulatory proteins in MV-infected human T ly
106 e, involves the activation of DNA repair and cell cycle regulatory proteins including the MRN (Mre11,
107 is and growth by physically interacting with cell cycle regulatory proteins including the retinoblast
109 ed in ubiquitin-dependent proteolysis of key cell cycle regulatory proteins, including the destructio
110 We have assessed the status of endogenous G1 cell cycle regulatory proteins, including the tumor supp
111 d in multiple perturbations in signaling and cell cycle-regulatory proteins, including down-regulatio
112 tors in kinases and phosphatases) in several cell cycle regulatory proteins indicate periodic oscilla
116 rapeutic targets including cyclin D1 and the cell cycle regulatory proteins, inhibitors of mammalian
118 products interact with the Aspergillus NIMA cell cycle regulatory protein kinase, reveals that it en
121 g that caspase activation and suppression of cell cycle regulatory protein levels are independent pro
122 cell cycle arrest and decrease expression of cell cycle regulatory proteins like cyclin E, cyclin D1
125 er, have revealed that Id binds to important cell cycle regulatory proteins other than bHLH proteins.
127 with enhanced ATRA-mediated up-regulation of cell cycle regulatory proteins p21waf1 and p27kip1, reti
132 ic targets, including the cell signaling and cell cycle regulatory proteins, pro-apoptotic family mem
133 recently, proteasome-mediated degradation of cell cycle regulatory proteins, production and loading o
134 yme was developed that targets the mRNA of a cell cycle regulatory protein, proliferating cell nuclea
135 ypothesize that interactions between LRP and cell cycle regulatory proteins promote survival of postm
136 e proteins were categorized as proliferation/cell cycle regulatory proteins, proteins involved in spl
137 ntly affect Taxol-induced alterations in the cell cycle regulatory proteins Rb, p53, p21/Waf1 and Cdk
138 n SWI-SNF complex and cyclin E, an essential cell cycle regulatory protein required for G1/S transiti
139 oma PC12 cell-cycle arrest via regulation of cell-cycle regulatory proteins, resulting in differentia
140 are known to target and inactivate two main cell cycle regulatory proteins, retinoblastoma protein (
142 environment are probably known, as are most cell cycle regulatory proteins, signaling molecules and
143 h CksHs1, a human homolog of essential yeast cell cycle-regulatory proteins suc1 and Cks1, reveals th
144 lyzes the ubiquitin-dependent proteolysis of cell cycle regulatory proteins such as anaphase inhibito
145 ses (HPVs) binds to and alters the action of cell cycle regulatory proteins such as members of the re
146 ion signal and is highly homologous to other cell cycle regulatory proteins such as mitosin and centr
147 se processivity factor, PCNA, interacts with cell cycle regulatory proteins such as p21(WAF1/Cip1) an
150 ression and exit by enhancing degradation of cell cycle regulatory proteins, such as CYCB1;1, whose t
151 ut are unable to appropriately down-regulate cell cycle regulatory proteins, such as cyclin and cdc2
152 region and cell type-specific expression of cell cycle regulatory proteins, such as demonstrated for
154 involved in regulating the stability of key cell-cycle regulatory proteins, such as the cyclin-depen
158 e subunit) proteins are essential eukaryotic cell cycle regulatory proteins that physically associate
160 ts cell growth by altering the expression of cell cycle regulatory proteins, thus causing a cell cycl
161 ffected the levels and activities of various cell cycle-regulatory proteins to induce normally quiesc
162 ion is associated with altered expression of cell cycle regulatory proteins, treatment results in ret
163 tionally for normal accumulation of the core cell cycle regulatory proteins Twine and CycB in mature
164 In previous studies we identified CDC37, a cell cycle regulatory protein, using a monoclonal antibo
166 ion of IL-2, IL-2R-alpha, and the major G(1) cell cycle regulatory proteins was not altered in p18-nu
169 the relationship between cyclin D1 and other cell cycle regulatory proteins, we established human gli
170 , F-boxes have been found within a number of cell cycle regulatory proteins, where they mediate ubiqu
171 on and hypertrophy are regulated by specific cell-cycle regulatory proteins, where the cyclin-depende
172 The identity of DNA replication proteins and cell cycle regulatory proteins which can be found in com
WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。