<p>“The debate concerning the effects of neonicotinoids on bees, though probably not the one about mobile phones, will no doubt continue for a long time so the publication of this excellent and comprehensive book is timely.”  (<i>Chemistry & Industry</i>, 26 January 2015)</p>

Pollinators play a vital role in ecosystem health and are essential to ensuring food security. With declines in both managed and wild pollinator populations in recent years, scientists and regulators have sought answers to this problem and have explored implementing steps to protect pollinator populations now and for the future. Pesticide Risk Assessment for Pollinators focuses on the role pesticides play in impacting bee populations and looks to develop a risk assessment process, along with the data to inform that process, to better assess the potential risks that can accompany the use of pesticide products. Pesticide Risk Assessment for Pollinators opens with two chapters that provide a biological background of both Apis and non-Apis species of pollinators. Chapters then present an overview of the general regulatory risk assessment process and decision-making processes. The book then discusses the core elements of a risk assessment, including exposure estimation, laboratory testing, and field testing.  The book concludes with chapters on statistical and modeling tools, and proposed additional research that may be useful in developing the ability to assess the impacts of pesticide use on pollinator populations. Summarizing the current state of the science surrounding risk assessment for Apis and non-Apis species, Pesticide Risk Assessment for Pollinators is a timely work that will be of great use to the environmental science and agricultural research communities. Assesses pesticide risk to native and managed pollinatorsSummarizes the state of the science in toxicity testing and risk assessmentProvides valuable biological overviews of both Apis and non-Apis pollinatorsDevelops a plausible overall risk assessment framework for regulatory decision makingLooks towards a globally harmonized approach for pollinator toxicity and risk assessment
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Pollinators play a vital role in ecosystem health and are essential to ensuring food security. This book focuses on the role pesticides play in impacting bee populations and looks to develop a risk assessment process, along with the data to inform that process, to better assess the potential risks that can accompany the use of pesticide products.
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List of Figures xi List of Tables xv Acknowledgments xvii About the Editors xix Workshop Participants xxi Pellston Workshop Series xxv Chapter 1 Introduction 1 1.1 Workshop Balance and Composition 2 Chapter 2 Overview of the Honey Bee 3 J. Pettis 2.1 Overview of Honey Bee Biology 3 Chapter 3 Overview of Non-Apis Bees 5 M. Vaughan, B.E. Vaissi`ere, G. Maynard, M. Kasina, R.C.F. Nocelli, C. Scott-Dupree, E. Johansen, C. Brittain, M. Coulson, and A. Dinter 3.1 Introduction 5 3.2 Non-Apis Bee Biology and Diversity 7 3.3 Opportunities for Non-Apis Bees to Inform Pollinator Risk Assessment 12 3.4 Conclusions 12 References 14 Chapter 4 Overview of Protection Goals for Pollinators 19 T. Moriarty, A. Alix, and M. Miles 4.1 Introduction 19 4.2 Elements and Proposed Protection Goals 20 4.3 Linking Protection Goals with Assessment Endpoints 21 4.4 Protection Goals and Monitoring 22 4.5 Conclusion 22 Reference 23 Chapter 5 Overview of the Pesticide Risk Assessment and the Regulatory Process 25 C. Lee-Steere and T. Steeger 5.1 Introduction 25 5.2 Current Approach for Assessing Effects of Pesticide Products to Pollinators 26 References 27 Chapter 6 Problem Formulation for an Assessment of Risk to Honey Bees from Applications of Plant Protection Products to Agricultural Crops 29 D. Fischer, A. Alix, M. Coulson, P. Delorme, T. Moriarty, J. Pettis, T. Steeger, and J.D. Wisk 6.1 What Is Problem Formulation? 30 6.2 Case 1: Problem Formulation for a Systemic Chemical Applied to the Soil, or as a Seed-Dressing 35 6.3 Case 2: Problem Formulation for a Contact Chemical Applied as a Foliar Spray 39 References 44 Chapter 7 Assessing Exposure of Pesticides to Bees 45 J.D.Wisk, J. Pistorius, M. Beevers, R. Bireley, Z. Browning, M.P. Chauzat, A. Nikolakis, J. Overmyer, R. Rose, R. Sebastien, B.E. Vaissi`ere, G. Maynard, M. Kasina, R.C.F. Nocelli, C. Scott-Dupree, E. Johansen, C. Brittain, M. Coulson, A. Dinter, and M. Vaughan 7.1 Introduction 46 7.2 Potential Routes of Exposure for Non-ApisBees 49 7.3 Methods and Models for Estimating Exposure of Bees to Pesticides 54 7.4 Physical and Chemical Properties of Pesticide Active Ingredients Which Affect Exposure 55 7.5 Information Needed to Develop Refined Predictive Exposure Models 56 7.6 Predicted Contact Exposure for Foliar-Applied Products 56 7.7 Predicted Dietary Exposure for Foliar-Applied Products 59 7.8 Predicted Exposure for Soil and Seed Treatment Systemic Compounds 61 7.9 Predicted Exposure for Tree-Injected Compounds 62 7.10 Measuring Pesticides in Matrices Relevant for Assessing Exposure to Bees 62 7.11 Higher Tier Studies to Assess Exposure of Pesticides to Bees 63 7.12 Health of Honey Bee Colonies Can Influence Exposure 65 7.13 Higher Tier Studies with Non-Apis Bee Species 65 7.14 Summary and Recommendations 68 References 70 Chapter 8 Assessing Effects Through Laboratory Toxicity Testing 75 J. Frazier, J. Pflugfleder, P. Aupinel, A. Decourtye, J. Ellis, C. Scott-Dupree, Z. Huang, H. Thompson, P. Bachman, A. Dinter, M. Vaughan, B.E. Vaissi`ere, G. Maynard, M. Kasina, E. Johansen, C. Brittain, M. Coulson, and R.C.F. Nocelli 8.1 Introduction 75 8.2 Overview of Laboratory Testing Requirements Among Several Countries 77 8.3 Uncertainties in Current Testing Paradigms 78 8.4 Limitations and Suggested Improvements for Tier 1 Testing 79 8.5 Adult Oral Chronic Toxicity—Apis Bees 83 8.6 Honey Bee Brood Tests in the Laboratory 83 8.7 Adult Toxicity Testing with Non-Apis Bees 84 8.8 Sublethal Effects and Test Developments 86 8.9 Conclusions 91 References 91 Chapter 9 Assessing Effects Through Semi-Field and Field Toxicity Testing 95 J. Pettis, I. Tornier, M. Clook, K. Wallner, B. Vaissiere, T. Stadler, W. Hou, G. Maynard, R. Becker, M. Coulson, P. Jourdan, M. Vaughan, R.C.F. Nocelli, C. Scott-Dupree, E. Johansen, C. Brittain, A. Dinter, and M. Kasina 9.1 Introduction 96 9.2 Definition of Semi-Field and Field Studies 97 9.3 Design of a Semi-Field Study 97 9.4 Outline of a Semi-Field Study for Apis and Non-Apis Bees 101 9.5 Design of a Field Study 108 9.6 Outline of a Field Study for Apis and Non-Apis Species 108 9.7 Role of Monitoring and Incident Reporting 116 9.8 Summary 118 References 118 Chapter 10 Overview of a Proposed Ecological Risk Assessment Process for Honey bees (Apis mellifera) and Non-Apis Bees 121 A. Alix, T. Steeger, C. Brittain, D. Fischer, R. Johnson, T. Moriarty, E. Johansen, F. Streissel, R. Fischer, M. Miles, C. Lee-Steere, M. Vaughan, B. Vaissiere, G. Maynard, M. Kasina, R.C.F. Nocelli, C. Scott-Dupree, M. Coulson, A. Dinter, and M. Fry 10.1 Introduction 122 10.2 Protection Goals, Assessment and Measurement Endpoints, Trigger Values for Transitioning to Higher Levels of Refinement, and Risk Assessment Terminology 125 10.3 Risk Assessment Flowcharts 127 10.4 Spray Applications 132 10.5 Soil and Seed Treatment Applications for Systemic Substances 134 10.6 Screening-Level Risk Assessments (Tier 1) 135 10.7 Factors Limiting Certainty in Screening Assessments 135 10.8 Refinement Options for Screening-Level Risk Assessment 136 10.9 Conclusions on the Risks and Recommendations 144 10.10 Recommending Risk Mitigation Measures 145 10.11 Additional Tools in Support of Risk Assessment and to Inform Risk Management 146 References 146 Chapter 11 Ecological Modeling for Pesticide Risk Assessment for Honey Bees and Other Pollinators 149 V. Grimm, M.A. Becher, P. Kennedy, P. Thorbek, and J. Osborne 11.1 Introduction 149 11.2 Example Model: Common Shrew 150 11.3 Rationale and Approaches of Mechanistic Effect Modeling 152 11.4 Modeling Practice for Risk Assessment 154 11.5 Existing Models of Pollinators 155 11.6 Discussion 159 References 160 Chapter 12 Data Analysis Issues 163 W. Warren-Hicks 12.1 Study Duration 163 12.2 Replicates and Dosing 163 12.3 Long-Term Tests 164 12.4 Statistical Models 164 Chapter 13 Risk Mitigation and Performance Criteria 165 E. Johansen, M. Fry, and T. Moriarty 13.1 The Role of Risk Management in Pollinator Protection 165 13.2 Regulatory Risk Mitigation Methods167 13.3 Non-Regulatory Risk Mitigation Methods 169 13.4 Suggested Techniques to Mitigate Risks to Other Species of Bees 170 13.5 Pesticide Application Technologies to Mitigate Exposure to Bees 171 References 172 Chapter 14 Recommendations for Future Research in Pesticide Risk Assessment for Pollinators 173 14.1 Exposure 173 14.2 Effects 175 References 177 Appendix 1 Elements for a Chronic Adult Oral Toxicity Study 179 Appendix 2 Elements of a Larval Study 181 Appendix 3 Elements of Artificial Flower Test 187 Appendix 4 Elements of theVisual Learning Test 189 Appendix 5 Foraging Behavior with Radio Frequency Identification 193 Appendix 6 Detailed Description of the Proposed Overall Risk Assessment Scheme 195 Glossary of Terms 209 Index 211 Color plate section is located between pages 120 and 121.
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Pollinators play a vital role in ecosystem health and are essential to ensuring food security. With declines in both managed and wild pollinator populations in recent years, scientists and regulators have sought answers to this problem and have explored implementing steps to protect pollinator populations now and for the future. Pesticide Risk Assessment for Pollinators focuses on the role pesticides play in impacting bee populations and looks to develop a risk assessment process, along with the data to inform that process, to better assess the potential risks that can accompany the use of pesticide products. Pesticide Risk Assessment for Pollinators opens with two chapters that provide a biological background of both Apis and non-Apis species of pollinators. Chapters then present an overview of the general regulatory risk assessment process and decision-making processes. The book then discusses the core elements of a risk assessment, including exposure estimation, laboratory testing, and field testing.  The book concludes with chapters on statistical and modeling tools, and proposed additional research that may be useful in developing the ability to assess the impacts of pesticide use on pollinator populations. Summarizing the current state of the science surrounding risk assessment for Apis and non-Apis species, Pesticide Risk Assessment for Pollinators is a timely work that will be of great use to the environmental science and agricultural research communities. Assesses pesticide risk to native and managed pollinatorsSummarizes the state of the science in toxicity testing and risk assessmentProvides valuable biological overviews of both Apis and non-Apis pollinatorsDevelops a plausible overall risk assessment framework for regulatory decision makingLooks towards a globally harmonized approach for pollinator toxicity and risk assessment
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1.0  Introduction 2.0  Overview of Honey Bee Biology This chapter is intended to provide an overview of the, biology and behavior of individual constituents of the honey bee colony, and biology of the honey bee hive.  The overview is intended to provide understanding and context for exposure and effects tests. 3.0  Overview of non-Apis Biology This chapter is intended to provide a broad overview of the many non-Apis species, the essential differences between these and Apis species and, provide specific information on certain non-Apis species considered to be potentially most relevant for pesticide risk assessment. 4.0  Overview of Risk Assessment Process Overview of risk assessment process describes the framework, steps and requirements which are components of regulatory decision making.  This section also highlights the specific design needs and rigor expected of data conducted to support regulatory decision making. 5.0  Risk Assessment Protection Goals and Problem Formulation for Pesticide Risk to Honey Bees (Apis) and Wild Bees (non-Apis) Protection goals provide guiding purpose(s) and overall focus for risk assessment, and problem formulation provides parameters and direction for risk assessment.  This section discusses these elements so the reader understands the lens through which regulatory tests and their outcomes are considered. 6.0  Overview of Exposure Assessment This section provides an overview of current knowledge of exposure testing applicable to pesticide risk assessment for honey bees. 7.0  Overview of Effects (Toxicity) Assessment Provides an overview of current knowledge of effects testing applicable to pesticide risk assessment for honey bees. 8.0  Risk Assessment and Decision Making Process Provides an overview and discussion of a proposed decision pathway, highlighting considerations and criteria used to determine whether and how a product should be screened for potential effects, including interpretation of effects with respect to protection goals. 9.0  Use of Ecological Models in Assessments of Pesticide Risks to Honey Bees and Wild Bees Brief chapter on types and use of predictive and mechanistic models with the honey bee and the information needed for such models. 10.0  Statistical Considerations in the Design, Conduct, and Interpretation of Toxicity Studies and Risk Assessments 11.0  Summary of Recommendations and Research Needs 12.0  Appendix                 A.  Risk Mitigation and Monitoring Considerations Risk management is an essential component of regulating plant protection products, however, since this topic was not one of the central themes of the Workshop, it is proposed that a brief discussion of risk management be captured as an appendix. 13.0  Acknowledgements 14.0  References and Literature Cited
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Produktdetaljer

ISBN
9781118852521
Publisert
2014-07-01
Utgiver
Vendor
Wiley-Blackwell
Vekt
689 gr
Høyde
254 mm
Bredde
196 mm
Dybde
18 mm
Aldersnivå
P, 06
Språk
Product language
Engelsk
Format
Product format
Innbundet
Antall sider
248

Om bidragsyterne

David Fischer is Director of Environmental Toxicology and Risk Assessment at Bayer CropScience.

Thomas Moriarty is a Team Leader in the United States Environmental Protection Agency's Pesticide Re-Evaluation Division.