ライフサイエンスコーパス: binding regulatory

1 ABA perception recruits an ABA-binding regulatory component [regulatory component of AB

2 heterodimeric nuclear protein and is the DNA-binding regulatory component of the mammalian DNA-depend

3 se from Escherichia coli consists of the ATP-binding regulatory component, ClpA (subunit Mr 84 165),

4 extraction procedure known to remove the GTP-binding regulatory component.

5 tically active trimers, c(3), and nucleotide-binding regulatory dimers, r(2).

6 nzymes by covalent modification of the lipid binding regulatory domain.

7 and is missing a long C-terminal calmodulin-binding regulatory domain.

8 solic proteases, though it lacks the calcium binding regulatory domain.

9 shown to typify a new superfamily of ligand-binding, regulatory domains found primarily in enzymes a

10 f raver1 is dependent upon characterized PTB-binding regulatory elements and upon a region of raver1

11 By binding regulatory elements in the 3' untranslated regio

12 expression is elevated or mobilization of HS-binding regulatory factors is implicated.

13 is a member of the MADS-domain family of DNA-binding regulatory factors that accumulates preferential

14 A binding studies, performed to identify ARE-binding regulatory factors, demonstrated binding of the

15 ARE) core fusion engine and a group of SNARE-binding regulatory factors.

16 fy which sequence motif is available for DNA-binding regulatory factors.

17 plexes and the ever increasing family of DNA binding regulatory factors.

18 naling through inhibitory guanine nucleotide-binding regulatory (Gi) proteins, and is associated with

19 All plastins comprise an N-terminal Ca(2+)-binding regulatory headpiece domain followed by two acti

20 a catalytic subunit (DNA-PK(cs)) and the DNA binding regulatory heterodimeric (Ku70/Ku86) complex Ku.

21 oop and the Calpha2 loop formed the membrane-binding regulatory interface and interacted with the inh

22 lls, we identified mutations in the membrane-binding regulatory interface that increase the recruitme

23 the possibility that an analogous phosphate-binding regulatory motif may participate in the activati

24 filaggrin monomer units as well as a calcium-binding regulatory NH2-terminal filaggrin S-100 protein.

25 Ggamma11 is an unusual guanine nucleotide-binding regulatory protein (G protein) subunit.

26 tducin, a transducin-like guanine nucleotide-binding regulatory protein (G protein), and transducin a

27 Guanine nucleotide-binding regulatory protein (G protein)-coupled receptor

28 -stimulated CB1R-mediated guanine nucleotide-binding regulatory protein (G-protein) activity.

29 ts demonstrate for the first time that a DNA-binding regulatory protein acts as an activator or a rep

30 The guanine nucleotide-binding regulatory protein alpha-subunit, Galpha(16), is

31 almidazolium and a W-7 analogue) of the Ca2+-binding regulatory protein calmodulin enhanced azole act

32 mechanism that is mediated by the PyrR mRNA-binding regulatory protein has been demonstrated for num

33 The DNA-binding regulatory protein must interact with cis regula

34 doses of UV activated EGF receptors, the GTP-binding regulatory protein p21Ras, and stimulated mitoge

35 rst study in S. aureus that identifies a DNA-binding regulatory protein that senses heme to control g

36 erpes simplex virus 1 US11 protein is an RNA-binding regulatory protein that specifically and stably

37 ding of [35S]GTPgammaS to a co-expressed GTP-binding regulatory protein, Gz, consistent with constitu

38 activation of inhibitory guanine nucleotide-binding regulatory protein-coupled opioid receptors, whe

39 a possible function of Cj0977 as an acyl-CoA binding regulatory protein.

40 he levels of 14-3-3epsilon, a phosphoprotein-binding regulatory protein.

41 CIB1 is a 22-kDa calcium binding, regulatory protein with approximately 50% homol

42 rly all alpha subunits of heterotrimeric GTP-binding regulatory proteins (G proteins) are palmitoylat

43 of the alpha subunits of heterotrimeric GTP-binding regulatory proteins (G proteins) are palmitoylat

44 A variety of receptors coupled to GTP-binding regulatory proteins (G proteins) initiate signal

45 Heterotrimeric guanine-nucleotide-binding regulatory proteins (G proteins) play a major ro

46 Heterotrimeric guanine-nucleotide-binding regulatory proteins (G proteins) transduce signa

47 vity in coupling of various receptors to GTP-binding regulatory proteins (G proteins) was examined di

48 of the family of trimeric guanine nucleotide-binding regulatory proteins (G proteins), which plays a

49 nnel, we investigated the involvement of GTP binding regulatory proteins (G proteins).

50 mplied the utilization of heterotrimeric GTP-binding regulatory proteins (G proteins); however, evide

51 Heterotrimeric guanine-nucleotide-binding regulatory proteins (G-proteins) mainly relay th

52 n suggests involvement of guanine nucleotide-binding regulatory proteins (G-proteins).

53 The GATA family of vertebrate DNA binding regulatory proteins are expressed in diverse tis

54 tidrug transporters, the cytosolic multidrug-binding regulatory proteins are more tractable systems f

55 c sequences and the genomic locations of DNA-binding regulatory proteins can be used to define metabo

56 mice suggests that other guanine nucleotide-binding regulatory proteins expressed in the alpha-gustd

57 Ms) are highly conserved, coiled-coil, actin binding regulatory proteins found in most eukaryotic cel

58 We propose that the cAMP-binding regulatory proteins function by providing an all

59 This suggests that the CTS functions by binding regulatory proteins like Rab8 to control traffic

60 tein has sequence homology to two known Ca2+-binding regulatory proteins, calcineurin B (58% similari

61 described class of prokaryotic DNA- and RNA-binding regulatory proteins.

62 rophic virus type I Rex and p30 are both RNA binding regulatory proteins.

63 dation of >100 proteins, including many GTP- binding regulatory proteins.

64 ith the relevance of several families of GTP-binding regulatory proteins.

65 s control of transcription initiation by DNA-binding regulatory proteins.

66 rtain genes through its interaction with DNA-binding regulatory proteins.

67 ecular targets for activation domains in DNA-binding regulatory proteins.

68 rn-helix motif with sequence identity to DNA binding regulatory proteins.

69 he nucleosomal DNA is more accessible to DNA-binding regulatory proteins.

70 amined the expression of one family of actin-binding, regulatory proteins, the tropomyosins (TM), in

71 es in the spatiotemporal expression of actin binding/regulatory proteins.

72 s a region homologous to the allosteric cGMP-binding regulatory regions found in the cGMP-binding PDE

73 implicate the presence of a specific cation binding regulatory site.

74 an allosteric coupling between the membrane-binding (regulatory) site and the catalytic center of PL

75 r uniquely altered the proteins RS/DJ-1 (RNA-binding regulatory subunit/DJ-1 PARK7) and RhoGDIalpha (

76 is a protein complex that consists of a DNA-binding, regulatory subunit [Ku] and a larger approximat

77 Calcineurin B (CN-B) is the Ca(2+)-binding, regulatory subunit of the phosphatase calcineur