ライフサイエンスコーパス: meiotic cell cycle

1 vulatory period when the oocyte reenters the meiotic cell cycle.

2 id gametes relies on the specially regulated meiotic cell cycle.

3 cells begin to make the transition into the meiotic cell cycle.

4 ep that reinforces the decision to enter the meiotic cell cycle.

5 in the oocyte relieves the inhibition of the meiotic cell cycle.

6 zing hormone (LH) surge and reentry into the meiotic cell cycle.

7 es from most animals arrest twice during the meiotic cell cycle.

8 uired for the proper progression through the meiotic cell cycle.

9 PTPN13 is involved in the regulation of the meiotic cell cycle.

10 absence of the other cyclins, can drive the meiotic cell cycle.

11 lays an important role in the control of the meiotic cell cycle.

12 ome segregation phases, a key feature of the meiotic cell cycle.

13 ggest that local transposition occurs in the meiotic cell cycle.

14 d-1, which itself promotes commitment to the meiotic cell cycle.

15 e progression of male germ cells through the meiotic cell cycle.

16 thway that specifically regulates the female meiotic cell cycle.

17 in testis and is thought to function in the meiotic cell cycle.

18 on of MAP kinase and advances entry into the meiotic cell cycle.

19 links polyadenylation to the control of the meiotic cell cycle.

20 e transcriptional states through mitotic and meiotic cell cycles.

21 ferential origin activity in the mitotic and meiotic cell cycles.

22 G2/M-phase transition during the mitotic and meiotic cell cycles.

23 During the meiotic cell cycle, a surveillance mechanism called the

24 nsive analysis of the genes required for the meiotic cell cycle and identifies three factors importan

25 tubule perturbation occurs as they enter the meiotic cell cycle and in G(2) if cells are already unde

26 A1 in germ cells, its expression during the meiotic cell cycle and its associated kinase subunits ha

27 mportant factor necessary for regulating the meiotic cell cycle and ovulation.

28 normally transition from the mitotic to the meiotic cell cycle and that it dramatically changes the

29 st meiosisthe switch between the mitotic and meiotic cell cycles and a later step during meiosis invo

30 his arrest, leading to the resumption of the meiotic cell cycles and maturation of the oocyte into a

31 ion of MPF and MAP kinase, resumption of the meiotic cell cycle, and fertilization competency.

32 hase of meiosis I (MI) and resumption of the meiotic cell cycles, and leads to the formation of a mat

33 ctivation of stored mRNAs, resumption of the meiotic cell cycles, and maturation of the oocyte into a

34 nts is not simply a secondary consequence of meiotic cell-cycle arrest, as spermatid differentiation

35 es are essential for progression through the meiotic cell cycle, as for the mitotic cycle.

36 2 poly(A) polymerase enhances entry into the meiotic cell cycle at least in part by activating GLD-1

37 in the meiotic checkpoint that regulates the meiotic cell cycle, but not the translation of gurken mR

38 tion to functioning as key regulators of the meiotic cell cycle, cooperate in the translational activ

39 Spermatogenesis uses mitotic and meiotic cell cycles coordinated with growth and differen

40 ersal cell cycle kinase required for mitotic/meiotic cell cycle entry and its activity needs to decli

41 Some mad2Delta cells have a misregulation of meiotic cell cycle events and undergo a single aberrant

42 ay essential regulatory roles in mitotic and meiotic cell cycle events, mediate CLH-3 activation.

43 e of these genes may expand our knowledge on meiotic cell cycle, fertilization, chromatin remodeling,

44 llele to drive germ-line stem cells into the meiotic cell cycle, followed by chemical inhibition of t

45 is indispensable for oocyte reentry into the meiotic cell cycle, for the synthesis of the extracellul

46 teins, each of which promotes entry into the meiotic cell cycle: GLD-1 is a STAR/Quaking translationa

47 Work in Xenopus meiotic cell cycles has suggested that Polo kinase funct

48 hether germ cells are regulated to enter the meiotic cell cycle (i.e., mitosis-meiosis decision) and

49 Meiotic cell cycle impairment due to a Fyn kinase defici

50 ew transcriptional pathway that controls the meiotic cell cycle in Drosophila oocytes.

51 : ameiotic1 (am1), required to establish the meiotic cell cycle in maize; absence of first division (

52 e and CDC2 kinase activity essential for the meiotic cell cycle in spermatogenesis.

53 product that is required for the mitotic and meiotic cell cycles in the C. elegans germ line.

54 In most species, the meiotic cell cycle is arrested at the transition between

55 The meiotic cell cycle is characterized by high levels of re

56 tterning implies that the progression of the meiotic cell cycle is coordinated with the regulation of

57 The meiotic cell cycle is modified from the mitotic cell cyc

58 the role of translational regulation in the meiotic cell cycle of Drosophila.

59 In mammals, the meiotic cell cycle of oocytes starts during embryogenesi

60 heir sterility results from an arrest in the meiotic cell cycle of spermatocytes, which we now identi

61 parallel developmental sequences during the meiotic cell cycle: one for premeiotic S phase and the o

62 enpH did not affect spindle organization and meiotic cell cycle progression after germinal vesicle br

63 a CLC-1/2/Ka/Kb channel homolog activated by meiotic cell cycle progression and cell swelling.

64 In Drosophila spermatogenesis, meiotic cell cycle progression and cellular differentiat

65 for spermatogenesis, as null mutations block meiotic cell cycle progression and result in a complete

66 henotypes as mutations in can, blocking both meiotic cell cycle progression and spermatid differentia

67 ocyte growth and differentiation, as well as meiotic cell cycle progression and spermiogenesis.

68 ways early (aly) gene coordinately regulates meiotic cell cycle progression and terminal differentiat

69 mRNAs (cyclin B1, c-Mos, D7, and B9) during meiotic cell cycle progression but not for the synthesis

70 Meiotic cell cycle progression during vertebrate oocyte

71 kinase (CDK) essential for both mitotic and meiotic cell cycle progression in fission yeast.

72 ng mammalian female meiosis, we investigated meiotic cell cycle progression in murine oocytes from XO

73 f maternal mRNA translation is essential for meiotic cell cycle progression in oocytes of the frog Xe

74 which are then recruited to ribosomes during meiotic cell cycle progression in response to progestero

75 The pachytene checkpoint prevents meiotic cell cycle progression in response to unrepaired

76 he "sphingomyelin cycle," was sufficient for meiotic cell cycle progression in the oocytes.

77 Analysis of the meiotic cell cycle progression shows that the Drosophila

78 Injection of MPF restored meiotic cell cycle progression to >60% of the oocytes bu

79 meiotic cell cycle progression, thus linking meiotic cell cycle progression to cellular differentiati

80 amily as a group with SKI606 greatly reduced meiotic cell cycle progression to metaphase-II.

81 SIS (TAM), is known for its positive role in meiotic cell cycle progression, but its function in othe

82 aevis, including faster and more synchronous meiotic cell cycle progression, less seasonal variabilit

83 enes, as well as several genes important for meiotic cell cycle progression, thus linking meiotic cel

84 cific genes, and several genes important for meiotic cell cycle progression, thus linking meiotic div

85 s of the different fission yeast cyclins for meiotic cell cycle progression.

86 aternal mRNA cytoplasmic polyadenylation and meiotic cell cycle progression.

87 mRNA encoding the Mos proto-oncogene during meiotic cell cycle progression.

88 of maternal mRNA translation during Xenopus meiotic cell cycle progression.

89 xtent of protein synthesis during vertebrate meiotic cell cycle progression.

90 1p in synapsis is separable from its role in meiotic cell cycle progression.

91 novel protein required for both mitotic and meiotic cell cycle progression.

92 CLH-3b is activated by meiotic cell-cycle progression and cell swelling.

93 Meiotic cell-cycle progression in progesterone-stimulate

94 CLH-3 is a meiotic cell cycle-regulated ClC Cl- channel that is fun

95 We propose that Mad2 is an important meiotic cell cycle regulator that ensures the timely deg

96 , with lack of protein expression of the key meiotic cell cycle regulators Boule and Cyclin B.

97 on of G(2)/M phase transition in mitotic and meiotic cell cycles requires activation by phosphorylati

98 The meiotic cell cycle, the cell division cycle that leads t

99 ted the potential for known effectors of the meiotic cell cycle to activate the translation of the FG

100 s, cells coordinate differentiation with the meiotic cell cycle to generate functional gametes.

101 lves Drosophila ATR and Chk2 coordinates the meiotic cell cycle with signaling events that establish

102 point that may serve to coordinate the male meiotic cell cycle with the spermatid differentiation pr