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Water Stress
Edited by Ismail Md. Mofizur Rahman and Hiroshi Hasegawa, ISBN 978-953-307-963-9, Hard cover, 300 pages, Publisher: InTech, Published: January 25, 2012 under CC BY 3.0 license, in subject Agricultural and Biological Sciences
DOI: 10.5772/1419
Plants experience water stress either when the water supply to their roots becomes limiting, or when the transpiration rate becomes intense. Water stress is primarily caused by a water deficit, such as a drought or high soil salinity. Each year, water stress on arable plants in different parts of the world disrupts agriculture and food supply with the final consequence: famine. Hence, the ability to withstand such stress is of immense economic importance. Plants try to adapt to the stress conditions with an array of biochemical and physiological interventions. This multi-authored edited compilation puts forth an all-inclusive picture on the mechanism and adaptation aspects of water stress. The prime objective of the book is to deliver a thoughtful mixture of viewpoints which will be useful to workers in all areas of plant sciences. We trust that the material covered in this book will be valuable in building strategies to counter water stress in plants.
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Book contents
- Chapter 1Water Stress in Plants: Causes, Effects and Responses
- Chapter 2Plant Water-Stress Response Mechanisms
- Chapter 3Physiological and Biochemical Responses of Semiarid Plants Subjected to Water Stress
- Chapter 4Controlled Water Stress to Improve Fruit and Vegetable Postharvest Quality
- Chapter 5Water Stress and Afforestation: A Contribution to Ameliorate Forest Seedling Performance During the Establishment
- Chapter 6Systemic Signaling Under Water Deficit Condition and Its Exploitation in Water Saving Agriculture
- Chapter 7The "Pot-in-Pot" System Enhances the Water Stress Tolerance Compared with Above-Ground Pot
- Chapter 8Towards a New Ecophysiological Approach to Understand Citrus Crop Yield Under Abiotic Stresses Mirroring in the Brazilian Savanna Genetic Resources
- Chapter 9Antioxidant Enzyme Activities as a Tool to Discriminate Ecotypes of Crithmum maritimum L. Differing in Their Capacity to Withstand Salinity
- Chapter 10Use of Finite Element Method to Determine the Influence of Land Vehicles Traffic on Artificial Soil Compaction
- Chapter 11The Influence of Water Stress on Yield and Related Characteristics in Inbred Quality Protein Maize Lines and Their Hybrid Progeny
- Chapter 12Application of Molecular Breeding for Development of the Drought-Tolerant Genotypes in Wheat
- Chapter 13Integrated Agronomic Crop Managements to Improve Tef Productivity Under Terminal Drought
- Chapter 14Sugarcane Responses at Water Deficit Conditions
- Chapter 15Strategies for Selecting Drought Tolerant Germplasm in Forage Legume Species
