Recruitment of Mec1 and Ddc1 Checkpoint Proteins to Double-Strand Breaks Through Distinct Mechanisms

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Items 101–200 of 257

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4. The Checkpoint Protein Rad24 of Saccharomyces cerevisiae Is Involved in Processing Double-Strand Break Ends and in Recombination Partner Choice
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5. The S-phase checkpoint and its regulation in Saccharomyces cerevisiae
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6. hRad9 rapidly binds DNA containing double-strand breaks and is required for damage-dependent topoisomerase II beta binding protein 1 focus formation.
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7. Hiding at the ends of yeast chromosomes: Telomeres, nucleases and checkpoint pathways
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9. Expanded CAG Repeats Activate the DNA Damage Checkpoint Pathway
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10. Recruitment of DNA damage checkpoint proteins to damage in transcribed and nontranscribed sequences
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11. Structural Basis of Mec1-Ddc2-RPA Assembly and Activation on Single-Stranded DNA at Sites of Damage
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12. Mec1 and Rad53 Inhibit Formation of Single-Stranded DNA at Telomeres of Saccharomyces cerevisiae cdc13-1 Mutants
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13. Mechanisms of Checkpoint Kinase Rad53 Inactivation after a Double-Strand Break in Saccharomyces cerevisiae
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15. A domain of Rad9 specifically required for activation of Chk1 in budding yeast
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16. The S phase checkpoint: When the crowd meets at the fork
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18. The processing of double-strand breaks and binding of single-strand-binding proteins RPA and Rad51 modulate the formation of ATR-kinase foci in yeast
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20. Lagging Strand Replication Proteins in Genome Stability and DNA Repair
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21. A role for Ddc1 in signaling meiotic double-strand breaks at the pachytene checkpoint
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22. Loss of Sin3/Rpd3 Histone Deacetylase Restores the DNA Damage Response in Checkpoint-Deficient Strains of Saccharomyces cerevisiae
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23. Checkpoint responses to replication stalling: inducing tolerance and preventing mutagenesis
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24. Loss of Rereplication Control inSaccharomyces cerevisiaeResults in Extensive DNA Damage
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25. The ATM-related Tel1 protein of Saccharomyces cerevisiae controls a checkpoint response following phleomycin treatment
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26. Yeast Rad52 and Rad51 Recombination Proteins Define a Second Pathway of DNA Damage Assessment in Response to a Single Double-Strand Break
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27. DNA Damage Regulates Chk2 Association with Chromatin
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28. CDC5 Inhibits the Hyperphosphorylation of the Checkpoint Kinase Rad53, Leading to Checkpoint Adaptation
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29. A Role of the C-terminal Region of Human Rad9 (hRad9) in Nuclear Transport of the hRad9 Checkpoint Complex
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30. Cell Cycle Checkpoint Control Mechanisms That Can Be Disrupted in Cancer
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31. The 9-1-1 checkpoint clamp coordinates resection at DNA double strand breaks
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36. Activation of the Checkpoint Kinase Rad53 by the Phosphatidyl Inositol Kinase-like Kinase Mec1
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37. Replication, Recombination, and Repair
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38. Elevated Levels of the Polo Kinase Cdc5 Override the Mec1/ATR Checkpoint in Budding Yeast by Acting at Different Steps of the Signaling Pathway
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39. Amino acid changes in Xrs2p, Dun1p, and Rfa2p that remove the preferred targets of the ATM family of protein kinases do not affect DNA repair or telomere length in Saccharomyces cerevisiae
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40. The yeast DNA damage checkpoint proteins control a cytoplasmic response to DNA damage
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41. S-Phase Checkpoint Pathways Stimulate the Mobility of the Retrovirus-Like Transposon Ty1
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42. The DNA damage checkpoint: A tale from budding yeast
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44. DNA Damage Checkpoints Are Involved in Postreplication Repair
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45. The Ddc2/ATRIP checkpoint protein monitors meiotic recombination intermediates
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46. A Tel1/MRX-Dependent Checkpoint Inhibits the Metaphase-to-Anaphase Transition after UV Irradiation in the Absence of Mec1
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47. Regulation of meiotic progression by the meiosis-specific checkpoint kinase Mek1 in fission yeast
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49. G1 and S-Phase Checkpoints, Chromosome Instability, and Cancer
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50. ATR and Rad17 collaborate in modulating Rad9 localisation at sites of DNA damage
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51. Response to DNA damage: why do we need to focus on protein phosphatases?
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52. Recruitment of ATR‐ATRIP, Rad17, and 9‐1‐1 Complexes to DNA Damage
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53. Regulation of Mitotic Exit by Cell Cycle Checkpoints: Lessons From Saccharomyces cerevisiae
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54. Dpb11/TopBP1 plays distinct roles in DNA replication, checkpoint response and homologous recombination
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56. Functions of Multiple Clamp and Clamp-Loader Complexes in Eukaryotic DNA Replication
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57. Checkpoints: How to Flag Up Double-Strand Breaks
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58. Chromatin Modifications in DNA Repair
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59. Telomeres and DNA damage checkpoints
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60. Different requirements for the association of ATR–ATRIP and 9-1-1 to the stalled replication forks
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61. Ddc2 Mediates Mec1 Activation through a Ddc1- or Dpb11-Independent Mechanism
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62. Interplay Between the Cell Cycle and Double-Strand Break Response in Mammalian Cells
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63. Dominant TEL1-hy Mutations Compensate for Mec1 Lack of Functions in the DNA Damage Response
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64. The DNA Damage Response Pathway Contributes to the Stability of Chromosome III Derivatives Lacking Efficient Replicators
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66. Srs2 enables checkpoint recovery by promoting disassembly of DNA damage foci from chromatin
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67. Control of the yeast telomeric senescence survival pathways of recombination by the Mec1 and Mec3 DNA damage sensors and RPA
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69. Limiting amounts of budding yeast Rad53 S-phase checkpoint activity results in increased resistance to DNA alkylation damage
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70. Damage site chromatin: open or closed?
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71. Regulation of the DNA replication fork: a way to fight genomic instability
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74. Yap1 and Skn7 genetically interact with Rad51 in response to oxidative stress and DNA double-strand break in Saccharomyces cerevisiae
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