Cory Tobin
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Cory Tobin has a total of 7 co-authors. Here are the top co-authors by number of shared publications:
- Adrienne H. K. Roeder
Weill Institute for Cell and Molecular Biology, Cornell University
2 shared publications - Alexandre Cunha
Alexandre Cunha is at the Center for Advanced Computing Research MC 158-79, California Institute of Technology, 1200 E. California Blvd, Pasadena, California 91125, USA
2 shared publications - Elliot M. Meyerowitz
Sainsbury Laboratory, University of Cambridge, Bateman Street, Cambridge CB2 1LR, UK
2 shared publications - Paul T. Tarr
California Institute of Technology
2 shared publications - Vijay Chickarmane
Computational Biology & Biological Physics, Lund University, Lund, Sweden
2 shared publications Elliot M. Meyerowitz
Division of Biology and Biological Engineering, California Institute of Technology, 1200 East California Boulevard, Pasadena, CA, 91125, USA
1 shared publication
Latest Publications
- 1 January 2016
- Published by Springer Nature
- Vol. 1370, 147-167
Real-Time Lineage Analysis to Study Cell Division Orientation in the Arabidopsis Shoot Meristem
Cells in the Arabidopsis shoot apical meristem are small and divide frequently throughout the life-time of the organism making them good candidates for studying the mechanisms of cell division in plants. But tracking these cell divisions requires multiple images to be taken of the same specimen over time which means the specimen must stay alive throughout the process. This chapter provides details on how to prepare plants for live imaging, keep them alive and growing through multiple time points, and how to process the data to extract cell boundary coordinates from three-dimensional images.
- 1 January 2016
- Published by Springer Nature
- Vol. 1370, 147-167
Real-Time Lineage Analysis to Study Cell Division Orientation in the Arabidopsis Shoot Meristem
Cells in the Arabidopsis shoot apical meristem are small and divide frequently throughout the life-time of the organism making them good candidates for studying the mechanisms of cell division in plants. But tracking these cell divisions requires multiple images to be taken of the same specimen over time which means the specimen must stay alive throughout the process. This chapter provides details on how to prepare plants for live imaging, keep them alive and growing through multiple time points, and how to process the data to extract cell boundary coordinates from three-dimensional images.
- 2 March 2011
- Published by Springer Nature in Nature Reviews Molecular Cell Biology
- Vol. 12 (4) , 265-273
Computational morphodynamics of plants: integrating development over space and time
The emerging field of computational morphodynamics aims to understand the changes that occur in space and time during development by combining three technical strategies: live imaging to observe development as it happens; image processing and analysis to extract quantitative information; and computational modelling to express and test time-dependent hypotheses. The strength of the field comes from the iterative and combined use of these techniques, which has provided important insights into plant development.
- 2 March 2011
- Published by Springer Nature in Nature Reviews Molecular Cell Biology
- Vol. 12 (4) , 265-273
Computational morphodynamics of plants: integrating development over space and time
The emerging field of computational morphodynamics aims to understand the changes that occur in space and time during development by combining three technical strategies: live imaging to observe development as it happens; image processing and analysis to extract quantitative information; and computational modelling to express and test time-dependent hypotheses. The strength of the field comes from the iterative and combined use of these techniques, which has provided important insights into plant development.
- 2 June 2010
- Published by Annual Reviews in Annual Review of Plant Biology
- Vol. 61 (1) , 65-87
Computational Morphodynamics: A Modeling Framework to Understand Plant Growth
Computational morphodynamics utilizes computer modeling to understand the development of living organisms over space and time. Results from biological experiments are used to construct accurate and predictive models of growth. These models are then used to make novel predictions that provide further insight into the processes involved, which can be tested experimentally to either confirm or rule out the validity of the computational models. This review highlights two fundamental challenges: (a) to understand the feedback between mechanics of growth and chemical or molecular signaling, and (b) to design models that span and integrate single cell behavior with tissue development. We review different approaches to model plant growth and discuss a variety of model types that can be implemented to demonstrate how the interplay between computational modeling and experimentation can be used to explore the morphodynamics of plant development.
- 2 June 2010
- Published by Annual Reviews in Annual Review of Plant Biology
- Vol. 61 (1) , 65-87
Computational Morphodynamics: A Modeling Framework to Understand Plant Growth
Computational morphodynamics utilizes computer modeling to understand the development of living organisms over space and time. Results from biological experiments are used to construct accurate and predictive models of growth. These models are then used to make novel predictions that provide further insight into the processes involved, which can be tested experimentally to either confirm or rule out the validity of the computational models. This review highlights two fundamental challenges: (a) to understand the feedback between mechanics of growth and chemical or molecular signaling, and (b) to design models that span and integrate single cell behavior with tissue development. We review different approaches to model plant growth and discuss a variety of model types that can be implemented to demonstrate how the interplay between computational modeling and experimentation can be used to explore the morphodynamics of plant development.