Publications

2000

Howell, Hoffman, Fang, AW Murray, and Salmon. 2000. “Visualization of Mad2 Dynamics at Kinetochores, Along Spindle Fibers, and at Spindle Poles in Living Cells”. J Cell Biol, 150, 6, Pp. 1233-50
Howell, Hoffman, Fang, AW Murray, and Salmon. 2000. “Visualization of Mad2 Dynamics at Kinetochores, Along Spindle Fibers, and at Spindle Poles in Living Cells”. J Cell Biol, 150, 6, Pp. 1233-50
Funabiki and AW Murray. 2000. “The Xenopus Chromokinesin Xkid Is Essential for Metaphase Chromosome Alignment and Must Be Degraded to Allow Anaphase Chromosome Movement”. Cell, 102, 4, Pp. 411-24
Funabiki and AW Murray. 2000. “The Xenopus Chromokinesin Xkid Is Essential for Metaphase Chromosome Alignment and Must Be Degraded to Allow Anaphase Chromosome Movement”. Cell, 102, 4, Pp. 411-24
AW Murray. 2000. “Journey to the Centre of the Cell”. Nat Cell Biol, 2, 7, Pp. E130-1. doi:10.1038/35017149
AW Murray. 2000. “Journey to the Centre of the Cell”. Nat Cell Biol, 2, 7, Pp. E130-1. doi:10.1038/35017149
Shonn, McCarroll, and AW Murray. 2000. “Requirement of the Spindle Checkpoint for Proper Chromosome Segregation in Budding Yeast Meiosis”. Science, 289, 5477, Pp. 300-3
Shonn, McCarroll, and AW Murray. 2000. “Requirement of the Spindle Checkpoint for Proper Chromosome Segregation in Budding Yeast Meiosis”. Science, 289, 5477, Pp. 300-3
Rudner, Hardwick, and AW Murray. 2000. “Cdc28 Activates Exit from Mitosis in Budding Yeast”. J Cell Biol, 149, 7, Pp. 1361-76
Rudner, Hardwick, and AW Murray. 2000. “Cdc28 Activates Exit from Mitosis in Budding Yeast”. J Cell Biol, 149, 7, Pp. 1361-76
Rudner and AW Murray. 2000. “Phosphorylation by Cdc28 Activates the Cdc20-Dependent Activity of the Anaphase-Promoting Complex”. J Cell Biol, 149, 7, Pp. 1377-90
Rudner and AW Murray. 2000. “Phosphorylation by Cdc28 Activates the Cdc20-Dependent Activity of the Anaphase-Promoting Complex”. J Cell Biol, 149, 7, Pp. 1377-90
Hardwick, Johnston, DL Smith, and AW Murray. 2000. “MAD3 Encodes a Novel Component of the Spindle Checkpoint Which Interacts With Bub3p, Cdc20p, and Mad2p”. J Cell Biol, 148, 5, Pp. 871-82
Hardwick, Johnston, DL Smith, and AW Murray. 2000. “MAD3 Encodes a Novel Component of the Spindle Checkpoint Which Interacts With Bub3p, Cdc20p, and Mad2p”. J Cell Biol, 148, 5, Pp. 871-82
AW Murray. 2000. “Whither Genomics?”. Genome Biol, 1, 1, Pp. COMMENT003. doi:10.1186/gb-2000-1-1-comment003
AW Murray. 2000. “Whither Genomics?”. Genome Biol, 1, 1, Pp. COMMENT003. doi:10.1186/gb-2000-1-1-comment003

1999

Hartwell, Hopfield, Leibler, and AW Murray. 1999. “From Molecular to Modular Cell Biology”. Nature, 402, 6761 Suppl, Pp. C47-52. doi:10.1038/35011540
Hartwell, Hopfield, Leibler, and AW Murray. 1999. “From Molecular to Modular Cell Biology”. Nature, 402, 6761 Suppl, Pp. C47-52. doi:10.1038/35011540
Chen, Brady, Smith, AW Murray, and Hardwick. 1999. “The Spindle Checkpoint of Budding Yeast Depends on a Tight Complex Between the Mad1 and Mad2 Proteins”. Mol Biol Cell, 10, 8, Pp. 2607-18
Chen, Brady, Smith, AW Murray, and Hardwick. 1999. “The Spindle Checkpoint of Budding Yeast Depends on a Tight Complex Between the Mad1 and Mad2 Proteins”. Mol Biol Cell, 10, 8, Pp. 2607-18
Norman, DL Smith, Sorger, Drees, O’Rourke, Hughes, Roberts, Friend, Fields, and AW Murray. 1999. “Genetic Selection of Peptide Inhibitors of Biological Pathways”. Science, 285, 5427, Pp. 591-5
Norman, DL Smith, Sorger, Drees, O’Rourke, Hughes, Roberts, Friend, Fields, and AW Murray. 1999. “Genetic Selection of Peptide Inhibitors of Biological Pathways”. Science, 285, 5427, Pp. 591-5
Waters, Chen, AW Murray, Gorbsky, Salmon, and Nicklas. 1999. “Mad2 Binding by Phosphorylated Kinetochores Links Error Detection and Checkpoint Action in Mitosis”. Curr Biol, 9, 12, Pp. 649-52
Waters, Chen, AW Murray, Gorbsky, Salmon, and Nicklas. 1999. “Mad2 Binding by Phosphorylated Kinetochores Links Error Detection and Checkpoint Action in Mitosis”. Curr Biol, 9, 12, Pp. 649-52

Books

The cell cycle: an introduction (1993)

In the last decade there has been a revolution in our comprehension of how cells grow and divide. Results from experiments on yeast, embryos, and cultured mammalian cells have unified seemingly disparate viewpoints into a single set of principles for normal cellular reproduction in plants, animals and bacteria. Written by two leading participants in that revolution, The Cell Cycle provides the first thorough, authoritative account of the new philosophy of normal cellular reproduction and how it emerged. It is a vivid portrayal of the molecular logic of the cell: how the cell engine induces DNA replication and chromosome replication; how the integrity of genetic information is preserved; and how cell size and environmental signals regulate the cycle of growth and division. By describing important breakthroughs in their historical and experimental context, The Cell Cycle traces the development of the new vision of cell biology and shows its relevance to other areas of modern biology. It is the ideal introduction to the current understanding of cell growth and division for advanced undergraduate and graduate level cell biology courses.