Publications

2021

Severine Atis, Bryan Weinstein, Andrew Murray, and David R. Nelson. 2021. “Rocket Yeast”. Physical Review Fluids, 6, 11, Pp. 110507-10
Severine Atis, Bryan Weinstein, Andrew Murray, and David R. Nelson. 2021. “Rocket Yeast”. Physical Review Fluids, 6, 11, Pp. 110507-10
Sriram Srikant, Rachelle Gaudet, and Andrew Murray. 2021. “Beyond the Reach of Homology: Successive Computational Filters Find Yeast Pheromone Genes”. BioRxiv
Sriram Srikant, Rachelle Gaudet, and Andrew Murray. 2021. “Beyond the Reach of Homology: Successive Computational Filters Find Yeast Pheromone Genes”. BioRxiv
Felix Barber, Jiseon Min, Andrew W. Murray, and Ariel Amir. 2021. “Modeling the Impact of Single-Cell Stochasticity and Size Control on the Population Growth Rate in Asymmetrically Dividing Cells”. PLOS Computational Biology, 17, 6
Felix Barber, Jiseon Min, Andrew W. Murray, and Ariel Amir. 2021. “Modeling the Impact of Single-Cell Stochasticity and Size Control on the Population Growth Rate in Asymmetrically Dividing Cells”. PLOS Computational Biology, 17, 6
Andrea Giometto, David R. Nelson, and Andrew Murray. 2021. “Antagonism Between Killer Yeast Strains As an Experimental Model for Biological Nucleation Dynamics”. ELife, 10, e62932
Andrea Giometto, David R. Nelson, and Andrew Murray. 2021. “Antagonism Between Killer Yeast Strains As an Experimental Model for Biological Nucleation Dynamics”. ELife, 10, e62932

2020

Marco Fumasoni and Andrew Murray. 2020. “Genome Architecture Shapes Evolutionary Adaptation to DNA Replication Stress”. BioRxiv
Marco Fumasoni and Andrew Murray. 2020. “Genome Architecture Shapes Evolutionary Adaptation to DNA Replication Stress”. BioRxiv
Felix Barber, Ariel Amir, and Andrew Murray. 2020. “Cell Size Regulation in Budding Yeast Does Not Depend on Linear Accumulation of Whi5”. PNAS, 117, 25
Felix Barber, Ariel Amir, and Andrew Murray. 2020. “Cell Size Regulation in Budding Yeast Does Not Depend on Linear Accumulation of Whi5”. PNAS, 117, 25
Andrew Murray. 2020. “Can Gene-Inactivating Mutations Lead to Evolutionary Novelty?”. Current Biology, 30, 10, Pp. R465
Andrew Murray. 2020. “Can Gene-Inactivating Mutations Lead to Evolutionary Novelty?”. Current Biology, 30, 10, Pp. R465
Thomas LaBar, Yu-Ying Phoebe Hsieh, Marco Fumasoni, and Andrew Murray. 2020. “Evolutionary Repair Experiments As a Window to the Molecular Diversity of Life”. Current Biology, 30, 10, Pp. R565
Thomas LaBar, Yu-Ying Phoebe Hsieh, Marco Fumasoni, and Andrew Murray. 2020. “Evolutionary Repair Experiments As a Window to the Molecular Diversity of Life”. Current Biology, 30, 10, Pp. R565
Laura E. Bagamery, Quincey A. Justman, Ethan C. Garner, and Andrew W. Murray. 2020. “A Putative Bet Hedging Strategy Buffers Budding Yeast Against Environmental Instability”. Current Biology
Laura E. Bagamery, Quincey A. Justman, Ethan C. Garner, and Andrew W. Murray. 2020. “A Putative Bet Hedging Strategy Buffers Budding Yeast Against Environmental Instability”. Current Biology
Sriram Srikant, Rachelle Gaudet, and Andrew Murray. 2020. “Selecting for Altered Substrate Specificity Reveals the Evolutionary Flexibility of ATP-Binding Cassette Transporters”. Current Biology, 30, Pp. 1-14
Sriram Srikant, Rachelle Gaudet, and Andrew Murray. 2020. “Selecting for Altered Substrate Specificity Reveals the Evolutionary Flexibility of ATP-Binding Cassette Transporters”. Current Biology, 30, Pp. 1-14

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.