Plant Cold Hardiness: From the Laboratory to the Field

by Lawrence V Gusta, Michael E Wisniewski, Karen K. Tanino

Overview

Presenting the latest research on the effects of cold and sub-zero temperatures on plant distribution, growth and yield, this comprehensive volume contains 28 chapters by international experts covering basic molecular science to broad ecological studies on the impact of global warming, and an industry perspective on transgenic approaches to abiotic stress tolerance. With a focus on integrating molecular studies in the laboratory with field research and physiological studies of whole plants in their natural environments, this book covers plant physiology, production, development, agronomy, ecology, breeding and genetics, and their applications in agriculture and horticulture.

Product Details

ISBN-13:	9781845935139
Publisher:	CABI
Publication date:	07/15/2009
Series:	CABI Series
Pages:	336
Product dimensions:	6.90(w) x 9.70(h) x 1.10(d)

About the Author

Dr. Lawrence V. Gusta is a B.S.A.and Masters graduate from the University of Manitoba and a Ph.D. graduate from the University of Minnesota. Dr. Gusta has conducted leading research on plant cold hardiness for the last 40 years. He has published over 125 papers in peer reviewed journals, edited 2 books and authored numerous book chapters in the areas of biochemistry, biophysics, physiology, agronomy, genetics and molecular biology. He is one of the last few researchers that has seen research evolve over the ast 40 years in the area of cold hardiness that we know it today.

Dr. Michael Wisniewski is a graduate of Cornell University and the University of New Hampshire. He has conducted research in the field of plant cold hardiness for over 25 years and serves as a Lead Scientist for the USDA-ARS, Appalachian Fruit Research Station conducting research on the functional genomics of environmental stress. He is considered a leading authority on cold hardiness in temperate fruit trees and other woody plants specializing in the areas of ice nucleation, deep supercooling, and cold-regulated gene transcription. He has published over 80 peer reviewed articles and numerous book chapters on the subject of cold hardiness.

Dr. Karen Tanino is an Associate Professor with the University of Saskatchewan. She is a graduate of Oregon State University and the University of Guelph. Her 20+ year research work has focused on the physiological interactions between the plant and its environment with abiotic stress and water as central themes to her research. Recent research on low temperature stress examines the role of predicted temperature shifts on subsequent growth cessation, dormancy induction and cold hardiness in temperate deciduous woody plants. She has chaired, co-chaired numerous conferences, teaches a graduate level course on plant abiotic stress and has actively published in this field.

Table of Contents

Global Analysis of Gene Networks to Solve Complex Abiotic Stress response
The CBF Cold Response Pathways of Arabidopsis and Tomato
Barley Contains a Large CBF Gene Family Associated with Quantitative Cold Tolerance Traits
Structural Organization of Barley CBF Genes Coincident with QTLS for Cold Hardiness
The genetic basis of vernalization response in barley
Experimental Institute for Cereal Resources
Vernalization Genes in Winter Cereals
A Bulk Segregant Approach to Identify Genetic Polymorphisms Associated with Cold Tolerance in Alfalfa
Ectopic Over-expression of AtCBF1 in Potato Enhances Freezing Tolerance
Over-expression of a Heat-inducible apx Gene Confers Chilling Tolerance to Rice Plants
Japan Physiological and Morphological Alterations Associated with Development of Freezing Tolerance in The Moss Physcomitrella patens
Control of Growth and Cold Acclimation in Silver Birch
The Role of the CBF-Dependent Signalling Pathway in Woody Perennials
Functional Role of Winter-accumulating Proteins from Mulberry Tree in adaptation to Winter-induced Stresses
The Role of Compatible Solutes in Plant Freezing Tolerance: A Case Study on Raffinose
Dehydration in model membranes and protoplasts: contrasting effects at low, intermediate and high hydrations
Effect of Plasma Membrane-associated Proteins on Acquisition of Freezing Tolerance in Arabidopsis thaliana