Book contents
- Frontmatter
- Contents
- List of contributors
- Preface
- Acknowledgements
- Chapter 1 The IPM paradigm: concepts, strategies and tactics
- Chapter 2 Economic impacts of IPM
- Chapter 3 Economic decision rules for IPM
- Chapter 4 Decision making and economic risk in IPM
- Chapter 5 IPM as applied ecology: the biological precepts
- Chapter 6 Population dynamics and species interactions
- Chapter 7 Sampling for detection, estimation and IPM decision making
- Chapter 8 Application of aerobiology to IPM
- Chapter 9 Introduction and augmentation of biological control agents
- Chapter 10 Crop diversification strategies for pest regulation in IPM systems
- Chapter 11 Manipulation of arthropod pathogens for IPM
- Chapter 12 Integrating conservation biological control into IPM systems
- Chapter 13 Barriers to adoption of biological control agents and biological pesticides
- Chapter 14 Integrating pesticides with biotic and biological control for arthropod pest management
- Chapter 15 Pesticide resistance management
- Chapter 16 Assessing environmental risks of pesticides
- Chapter 17 Assessing pesticide risks to humans: putting science into practice
- Chapter 18 Advances in breeding for host plant resistance
- Chapter 19 Resistance management to transgenic insecticidal plants
- Chapter 20 Role of biotechnology in sustainable agriculture
- Chapter 21 Use of pheromones in IPM
- Chapter 22 Insect endocrinology and hormone-based pest control products in IPM
- Chapter 23 Eradication: strategies and tactics
- Chapter 24 Insect management with physical methods in pre- and post-harvest situations
- Chapter 25 Cotton arthropod IPM
- Chapter 26 Citrus IPM
- Chapter 27 IPM in greenhouse vegetables and ornamentals
- Chapter 28 Vector and virus IPM for seed potato production
- Chapter 29 IPM in structural habitats
- Chapter 30 Fire ant IPM
- Chapter 31 Integrated vector management for malaria
- Chapter 32 Gypsy moth IPM
- Chapter 33 IPM for invasive species
- Chapter 34 IPM information technology
- Chapter 35 Private-sector roles in advancing IPM adoption
- Chapter 36 IPM: ideals and realities in developing countries
- Chapter 37 The USA National IPM Road Map
- Chapter 38 The role of assessment and evaluation in IPM implementation
- Chapter 39 From IPM to organic and sustainable agriculture
- Chapter 40 Future of IPM: a worldwide perspective
- Index
- References
Chapter 19 - Resistance management to transgenic insecticidal plants
Published online by Cambridge University Press: 01 September 2010
- Frontmatter
- Contents
- List of contributors
- Preface
- Acknowledgements
- Chapter 1 The IPM paradigm: concepts, strategies and tactics
- Chapter 2 Economic impacts of IPM
- Chapter 3 Economic decision rules for IPM
- Chapter 4 Decision making and economic risk in IPM
- Chapter 5 IPM as applied ecology: the biological precepts
- Chapter 6 Population dynamics and species interactions
- Chapter 7 Sampling for detection, estimation and IPM decision making
- Chapter 8 Application of aerobiology to IPM
- Chapter 9 Introduction and augmentation of biological control agents
- Chapter 10 Crop diversification strategies for pest regulation in IPM systems
- Chapter 11 Manipulation of arthropod pathogens for IPM
- Chapter 12 Integrating conservation biological control into IPM systems
- Chapter 13 Barriers to adoption of biological control agents and biological pesticides
- Chapter 14 Integrating pesticides with biotic and biological control for arthropod pest management
- Chapter 15 Pesticide resistance management
- Chapter 16 Assessing environmental risks of pesticides
- Chapter 17 Assessing pesticide risks to humans: putting science into practice
- Chapter 18 Advances in breeding for host plant resistance
- Chapter 19 Resistance management to transgenic insecticidal plants
- Chapter 20 Role of biotechnology in sustainable agriculture
- Chapter 21 Use of pheromones in IPM
- Chapter 22 Insect endocrinology and hormone-based pest control products in IPM
- Chapter 23 Eradication: strategies and tactics
- Chapter 24 Insect management with physical methods in pre- and post-harvest situations
- Chapter 25 Cotton arthropod IPM
- Chapter 26 Citrus IPM
- Chapter 27 IPM in greenhouse vegetables and ornamentals
- Chapter 28 Vector and virus IPM for seed potato production
- Chapter 29 IPM in structural habitats
- Chapter 30 Fire ant IPM
- Chapter 31 Integrated vector management for malaria
- Chapter 32 Gypsy moth IPM
- Chapter 33 IPM for invasive species
- Chapter 34 IPM information technology
- Chapter 35 Private-sector roles in advancing IPM adoption
- Chapter 36 IPM: ideals and realities in developing countries
- Chapter 37 The USA National IPM Road Map
- Chapter 38 The role of assessment and evaluation in IPM implementation
- Chapter 39 From IPM to organic and sustainable agriculture
- Chapter 40 Future of IPM: a worldwide perspective
- Index
- References
Summary
Among the biological concerns expressed about the use of transgenic insecticidal plants are the potential for their genes to spread to wild and cultivated crops, have deleterious effects on non-target organisms, and for insects to evolve resistance to the toxins(s) expressed in the plant (Shelton et al., 2002). These same concerns apply to many other forms of pest management, but transgenic plants have come under more scrutiny than most other strategies. For a broad review of the risks and benefits of insecticidal transgenic plants, the reader is referred to Sanvido et al. (2007). The focus of this chapter is solely on the risks of insects developing resistance to transgenic insecticidal plants and how such risks can be reduced. There is a long history of literature on resistance to conventional insecticides and to traditionally bred plants that are resistant to insects, and they provide a solid foundation for understanding the evolution and management of insect resistance to transgenic insecticidal plants.
A commonly used definition of resistance is that it is a genetic change in response to selection by toxicants that may impair control in the field (Sawicki, 1987). Such changes could result from physiological or behavioral adaptation, although many more examples are from the former. Resistance to traditional synthetic pesticides has become one of the major driving forces altering the development of IPM programs worldwide (Shelton & Roush, 2000).
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- Integrated Pest ManagementConcepts, Tactics, Strategies and Case Studies, pp. 247 - 259Publisher: Cambridge University PressPrint publication year: 2008