Introduction to Nuclear Mechanics and Genome Regulation presents the first text to thoroughly explore the foundations of this exciting topic area, providing a detailed discussion of the biophysical principles underlying nuclear organization and their role in determining tissue function, cell differentiation and homeostasis, and disease expression and management. Applied case studies and full cover images support concept illustration across a diverse range of chapters covering physico-chemical constraints in DNA, 3D organization of chromosomes and functional gene clusters, spatial dimensions of DNA transcription, replication, damage and repair, and more.
With its practical approach and foundational focus, the book serves as an invaluable reference for students, researchers, and clinicians looking to understand this area of cutting-edge study.
- Offers a thorough discussion of the biophysical principles underlying nuclear organization
- Contains applied case studies and full color images that support concept illustration, making this an invaluable reference for students, researchers and clinicians
- Features a diverse range of chapters covering the fundamentals of nuclear mechanics and genome regulation, including physico-chemical constraints in DNA
- Introduces advanced biophysical methods, bio-imaging methods, and new molecular biology tools for studying nuclear structures
Advanced undergraduate, graduate, and postdocs in biomedical research, molecular biology, and biomedical engineering; PhD and MD level researchers in biomedical research, life sciences, human genetics, and bioengineering; clinical and translational drug discovery researchers in academics and pharmaceutical industry
- Physico-chemical constraints in DNA
2. 3D organization of chromosomes and functional gene clusters
3. Spatial dimension to DNA transcription, replication, damage and repair
4. Dynamics within the nucleus and functional microrheology
5. Cytoskeleton to nuclear links and prestressed nuclear architecture
6. Nuclear mechanotransduction and genetic networks
7. Chromatin plasticity during differentiation, development and reprogramming
8. Mechanical homeostasis of the nucleus during cell division and migration
9. Nuclear mechanics in diseases and as diagnostic markers
10. Evolutionary constraints in DNA packing and genome regulation
- No. of pages:
- © Academic Press 2019
- 1st June 2019
- Academic Press
- Paperback ISBN:
Dr. G. V. Shivashankar is currently the Deputy Director of Mechanobiology Institute, National University of Singapore. Shivashankar’s laboratory is focused on understanding the role of cell geometry on nuclear mechanics and genome regulation in living cells using a multi-disciplinary approach. He carried out his PhD research at the Rockefeller University (1994-1999) and Postdoctoral research at NEC Research Institute, Princeton, USA (1999-2000). He started his laboratory at the National Center for Biological Sciences, TIFR- Bangalore, India (2000-2009) before relocating to a tenured faculty position at the National University of Singapore in 2009. His scientific awards include the Birla Science Prize (2006) and the Swarnajayanthi Fellowship (2007), and he was elected to the Indian Academy of Sciences (2010). He also edited a Methods in Cell Biology volume on Nuclear Mechanics and Genome Regulation (2010), published by Elsevier. More recently, he headed the Joint Research Laboratory with the FIRC Institute of Molecular Oncology (IFOM), Milan, Italy and was appointed as an IFOM-NUS Chair Professor in 2014.
Mechanobiology Institute, National University of Singapore & FIRC Institute of Molecular Oncology (IFOM), Milan, Italy