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Freshwater Bivalve Ecotoxicology [Kõva köide]

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  • Formaat: Hardback, 402 pages, kõrgus x laius: 254x178 mm, kaal: 530 g
  • Ilmumisaeg: 16-Nov-2006
  • Kirjastus: CRC Press Inc
  • ISBN-10: 142004284X
  • ISBN-13: 9781420042849
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  • Formaat: Hardback, 402 pages, kõrgus x laius: 254x178 mm, kaal: 530 g
  • Ilmumisaeg: 16-Nov-2006
  • Kirjastus: CRC Press Inc
  • ISBN-10: 142004284X
  • ISBN-13: 9781420042849
This summary makes good use of more than 75 laboratory studies of glochidia juvenile mussels to analyze damage from contaminants on freshwater ecosystems, and also gives a framework practitioners can use to establish priorities in rehabilitation and management. The 14 papers that work together as related chapters cover freshwater bivalve ecotoxicology, the use of such mussels as biological indicators of ecosystem health, mussels' biology and their propagation and culture, laboratory toxicity testing techniques, in situ testing, mussel sensitivity to environmental contaminants, the toxicokenetics of environmental contaminants, the conceptual framework for linking bioaccumulation and biological effects to chemicals in water and sediment, and biomarker responses. Case studies examine clams at a nuclear power plant, mussels in a river in trouble, mussel beds impacted by mine water, and a tale of mussels and mercury. Published by CRC Press in association with th eSociety of Environmental Toxicology and Chemistry (SETAC). Annotation ©2007 Book News, Inc., Portland, OR (booknews.com)

Responding to the growing need for an aggressive yet conservative approach to evaluating mussel populations, Freshwater Bivalve Ecotoxicology provides a collective review of the techniques and approaches for assessing contaminant impact on freshwater ecosystems. The editors incorporate coverage of research topics and management issues from a cross-section of scientists in the field. They explore current advances in general monitoring of population responses to stressors, fundamental concepts of ecotoxicology specific to burrowing bivalves, and useful insights that offer direction and priority for resolving specific problems challenging protection and conservation efforts.

This book lays the groundwork with discussions of topics such as impact assessment, toxicokinetics, biomarkers, and pollution tolerance. The authors then explore fundamental concepts surrounding responses measured in freshwater bivalves as a consequence of chemical exposures or accumulated contaminants in target organs or tissues. They highlight the difficulties encountered with the laboratory culture of these organisms for toxicity testing or other controlled experiments, and examine the use of surrogate test organisms to relate sensitivities of response and reduce pressure on already impacted fauna. The book also reviews innovative field research using in situ bivalve toxicity testing, discusses effects-oriented tissue contaminant assessment, and concludes with threefour specific laboratory or combined field/laboratory ecotoxicology studies.

A summary of methods from more than 75 laboratory toxicity studies conducted with freshwater mussels, the book provides an overview of a standardized method for conducting water-only acute and chronic laboratory toxicity tests with glochidia juvenile freshwater mussels. It focuses on studies that report measured contaminant treatments, had robust experimental designs, including replication of control and contaminant treatments, and were published in the peer-reviewed literature. The resulting array of viewpoints provides a framework that can be used to establish priorities in the rehabilitation and management of freshwater ecosystems.
Preface xv
Acknowledgments xvii
Editors xix
Contributors xxi
Freshwater Bivalve Ecotoxicology
1(18)
John H. Van Hassel
Jerry L. Farris
Scope of Freshwater Bivalve Ecotoxicology
1(6)
Need for a Freshwater Bivalve Ecotoxicology Book
7(3)
Importance of Research on Freshwater Bivalves
10(1)
Roots of Bivalve Ecotoxicology
10(1)
A Need for Fresh Paradigms
11(3)
Freshwater Bivalves as Ideal Biomonitors
11(1)
Freshwater Bivalves as the Most Sensitive Species
12(1)
Biomarkers as Surrogates for Traditional Response Measures
13(1)
Unionids as Drivers of Bivalve Research
13(1)
References
14(5)
A Review of the Use of Unionid Mussels as Biological Indicators of Ecosystem Health
19(32)
John H. Van Hassel
Jerry L. Farris
Introduction
19(1)
Review of Unionid Mussel Biomonitoring Literature
20(12)
Monitoring of Mussel Populations
20(1)
Collection Techniques
20(3)
Structural/Functional Indices
23(2)
Contaminant Body Burdens
25(4)
Laboratory Testing of Freshwater Mussels
29(3)
Effectiveness of Mussel Biomonitoring
32(5)
Mussels as Sentinels of Environmental Perturbations
32(3)
Mussels as Indicators of Ecological Integrity
35(2)
References
37(14)
A Brief Look at Freshwater Mussel (Unionacea) Biology
51(14)
G. Thomas Watters
A Brief History
51(1)
Ecology
52(1)
Reproduction
53(6)
Reproductive Strategies
56(2)
Reproductive Patterns
58(1)
Parting Comments
59(1)
References
59(6)
Propagation and Culture of Freshwater Mussels
65(30)
Cristi D. Bishop
Robert Hudson
Jerry L. Farris
Introduction
65(1)
Bivalve Life History: Understanding Early Life Stage Limitations
66(1)
The Need for Artificial Propagation
66(13)
Fish Host Techniques (in Vivo)
67(2)
Dependence on Fish Hosts---An Obligate Trait?
69(2)
Independence from Fish Hosts
71(1)
Artificial Media Culture (in Vitro)
71(1)
History
71(1)
Culture Media Techniques
72(1)
Modification of the Media
72(3)
Success of the in Vitro Cultured Juveniles
75(3)
Shipping Mussels and Glochidia
78(1)
Adult Holding
79(1)
Physiological Transformation---Phases and Comparative Sensitivities of Development
79(4)
Fitness Beyond the ``Drop Zone''
81(1)
Juvenile Culture: In-River Holding
82(1)
Juvenile Culture: Hatchery Conditions
82(1)
Restoring Declining Populations: Case Studies
83(4)
Pigeon River, Tennessee
83(2)
Shoal Creek, Alabama and Tennessee
85(1)
Leading Creek, Ohio
85(1)
Middle Fork Little Red River, Arkansas
85(1)
Clinch, Powell, Holston, and Cumberland Rivers, Virginia
85(1)
Clinch River
85(1)
Powell River
86(1)
Holston River
86(1)
Cumberland River
86(1)
Hiwassee River, Tennessee
86(1)
Federal Hatchery Goals
87(2)
Mammoth Spring NFH, Arkansas
87(1)
Propagation
87(1)
Lost Valley SFH, Missouri
87(1)
Warm Springs NFH, Georgia
87(1)
Refugia
87(1)
Propagation
88(1)
White Sulphur Springs NFH, West Virginia
88(1)
Refugia
88(1)
Propagation
88(1)
Genoa NFH, Wisconsin
88(1)
Propagation
88(1)
Critical Uses of Early---Lifestage Unionids for Monitoring
89(1)
References
90(5)
Laboratory Toxocity Testing with Freshwater Mussels
95(40)
Christopher G. Ingersoll
Nicola J. Kernaghan
Timothy S. Gross
Cristi D. Bishop
Ning Wang
Andy Roberts
Introduction
95(1)
Aquatic Toxicity Testing with Glochidia, Juvenile, and Adult Life Stages of Freshwater Mussels
95(15)
Methods for Conducting Acute Water-Only Toxicity Tests with Glochidia of Freshwater Mussels
95(1)
Review of Methods
95(4)
Issues Regarding Use of Methods
99(5)
Methods for Conducting Water-Only Toxicity Tests with Juvenile Freshwater Mussels
104(1)
Review of Methods
104(5)
Issues Regarding the Use of Methods
109(1)
Methods for Conducting Water-Only Toxicity Tests with Adult Freshwater Mussels
110(3)
Review of Methods
110(1)
Issues Regarding the Use of the Methods
110(3)
Methods for Conducting Sediment Toxicity Tests with Freshwater Mussels
113(4)
Review of Methods
113(3)
Issues Regarding Use of Methods
116(1)
Methods for Conducting Host Fish Exposure Toxicity Tests with Freshwater Mussels
117(2)
Review of Methods
117(1)
Issues Regarding the Use of Methods
118(1)
Would Glochidia, While Still in Marsupium of the Adult Female Mussel, Be Exposed to Waterborne Contaminants?
118(1)
Methods for Conducting Toxicity Tests Using Corbicula fluminea as Surrogate Species
119(9)
Review of Methods
119(1)
Aqueous Toxicity Testing
119(4)
Sediment Toxicity Testing
123(1)
Overview of Conditions Used to Conduct Toxicity Tests with Corbicula
123(3)
Issues Regarding the Use of the Methods
126(2)
Conclusions and Recommendations
128(1)
References
129(6)
In Situ Toxicity Testing of Unionids
135(16)
Mindy Yeager Armstead
Jessica L. Yeager
Introduction
135(1)
Benefits of in Situ Testing
136(1)
Limitations of in Situ Testing
137(1)
In Situ Methods
137(1)
In Situ Testing with Freshwater Mussels
138(6)
Adult Unionid Mussel in Situ Testing
139(2)
Juvenile Unionid in Situ Testing
141(1)
Kentucky Lake Study
141(1)
Clinch River Study
142(2)
St. Croix Riverway Study
144(1)
In Situ Testing with Nonunionid Bivalves
144(2)
Freshwater Clams
145(1)
Nonnative Taxa
146(1)
Conclusions
146(1)
References
147(4)
Unionid Mussel Sensitivity to Environmental Contaminants
151(18)
Anne Keller
Mike Lydy
D. Shane Ruessler
Introduction
151(1)
Metal Toxicity
152(6)
Acute Toxicity of Metals
152(5)
Sublethal Toxicity of Metals
157(1)
Organic Chemical Toxicity
158(4)
Acute Toxicity of Organic Contaminants
158(2)
Sublethal Effects of Organic Contaminants
160(2)
Other Pollutants
162(1)
Summary
162(1)
References
163(6)
Toxicokinetics of Environmental Contaminants in Freshwater Bivalves
169(46)
Waverly A. Thorsen
W. Gregory Cope
Damian Shea
Introduction
169(6)
Uptake and Elimination
170(1)
Bioconcentration
170(3)
Bioaccumulation
173(1)
Metabolism and Biotransformation
174(1)
Bioavailability and Biotic Ligand Models
174(1)
Hydrophobic Organic Contaminants
175(19)
Uptake
175(10)
Bioconcentration
185(2)
Elimination
187(5)
Attainment of Steady-State
192(1)
Bioaccumulation and Bioavailability
192(1)
Implications and Potential for HOC Toxicity
193(1)
Metals
194(1)
Uptake
194(1)
Toxic, Nonessential Metals
195(10)
Cadmium
195(1)
Uptake and Accumulation
195(4)
Steady-State and Bioconcentration
199(1)
Elimination
200(1)
Mercury
200(1)
Uptake and Accumulation
200(1)
Elimination
201(1)
Lead
201(1)
Uptake and Accumulation
201(1)
Elimination
202(1)
Silver
202(1)
Uptake and Accumulation
202(1)
Elimination
202(1)
Nickel
202(1)
Tin
203(1)
Uptake and Accumulation
203(1)
Elimination
203(1)
Metal Mixtures and Effects on Toxicokinetics
204(1)
Platinum Group Metals
204(1)
Essential Elements
205(1)
Zinc, Calcium, Copper: Environmental Interactions
205(1)
Bioavailability
205(1)
Metal Detoxification Mechanisms
206(1)
Implications and Potential for Metal Toxicity
206(1)
References
207(8)
Linking Bioaccumulation and Biological Effects to Chemicals in Water and Sediment: A Conceptual Framework for Freshwater Bivalve Ecotoxicology
215(42)
Michael H. Salazar
Sandra M. Salazar
Introduction
215(3)
Historical Perspective
215(1)
Existing Models
216(1)
Need for a Focused Conceptual Framework
217(1)
Bioaccumulation Model
218(3)
Bioaccumulation Links
218(2)
Tissue Residue Effects
220(1)
Developing Tissue Residue Guidelines---Data Application
220(1)
Copper as a Case Study
221(6)
CBRs for Freshwater Bivalves
223(1)
Copper CBRs for Marine Bivalves
223(1)
Using Caged Bivalves to Establish Tissue Residue Effects Relationships
223(2)
Changes in the Relationships among Exposure, Dose, and Response
225(2)
Caged Bivalve Model
227(6)
Space and Time, Site-Specific Conditions, Natural Factors
231(1)
Gradient Design
232(1)
Conceptual Bivalve Model
233(4)
Bivalves as Indicators of Exposure
234(1)
Bivalves as Indicators of Effects
234(2)
Biomarkers as Indicators of Exposure and Effects
236(1)
Refining, Integrating, and Harmonizing the Models
237(4)
Ecological Risk Assessment as an Umbrella Model
237(1)
The Exposure--Dose--Response Model
238(1)
Links between Tissue Residues and Effects
239(1)
Asking the Right Questions
240(1)
Examining Available Exposure--Dose--Response Data through a Different Lens
241(3)
Using Synoptic Data for Interpreting Results
241(1)
Using All Available Data
242(1)
Environmental Significance
243(1)
The Importance of Mechanistic Studies and Results from Different Species
244(4)
Dietary and Waterborne Metal Exposure in Elliptio and Mytilus
244(1)
Comparison of Effects on Elliptio, Musculium, and Mytilus
244(1)
Comparison of Sub-Cellular Partitioning in Pyganodon and Perca
245(1)
Integration of Unionids into a Comprehensive Monitoring Strategy
246(1)
Integrating Bivalve Ecotoxicology, Statistics, and Caging Studies
247(1)
Potential Pitfalls
248(1)
Summary and Conclusions
249(1)
Recommendations for Future Research
250(1)
References
250(7)
Biomarker Responses of Unionid Mussels to Environmental Contaminants
257(28)
Teresa J. Newton
W. Gregory Cope
Introduction
257(2)
Biomarker Concept
259(1)
Biotransformation Enzymes
260(3)
Oxidative Stress
263(2)
Amino Acids and Proteins
265(2)
Hematological
267(1)
Immunological
267(1)
Reproductive and Endocrine
267(1)
Neuromuscular
268(1)
Genotoxic
269(1)
Physiological and Morphological
270(8)
Histopathology
270(1)
Osmotic and Ion Regulation
270(1)
Digestive Processes
271(1)
Condition Indices
271(2)
Energetics
273(2)
Valve Activity
275(1)
Growth
276(2)
Summary and Recommendations
278(2)
References
280(5)
Case Study: Comparison of Asian Clam (Corbicula fluminea) in Situ Testing to Several Nontarget Test Organism Responses to Biocidal Dosing at a Nuclear Power Plant
285(26)
Donald S. Cherry
David J. Soucek
Introduction
285(1)
Materials and Methods
286(4)
Sampling Sites
286(1)
Biocide Description
286(1)
Laboratory Toxicity Testing with Standard Test Organisms
287(1)
Experimental Stream Experiments
287(1)
In Situ Toxicity Testing
288(1)
Benthic Macroinvertebrate Monitoring
289(1)
Statistical Analysis
289(1)
Results
290(11)
Effluent Chronic Toxicity
290(1)
Chironomus Sediment Toxicity
290(1)
Chironomus Testing in Experimental Streams
291(1)
Laboratory Experimental Stream Toxicity with Snails, Mayflies, Fish, and Clams
292(1)
Corbicula Growth in Situ
293(1)
Benthic Macroinvertebrate Monitoring
294(1)
Efficacy of Biocide
295(2)
In Situ 162-Day Asian Clam Test in 1992
297(3)
Sampling/Toxicity Testing Efficiency
300(1)
Discussion
301(4)
Bivalves as Indicator Species
302(3)
Acknowledgments
305(1)
References
305(6)
Case Study: Discrimination of Factors Affecting Unionid Mussel Distribution in the Clinch River, Virginia, U.S.A
311(24)
John H. Van Hassel
Introduction
311(1)
Methods
312(4)
Sampling Locations
312(2)
Water Chemistry
314(1)
Sediment Chemistry
314(1)
Faunal Surveys
315(1)
Tissue Measurements
315(1)
Toxicity Testing
315(1)
Data Analysis
316(1)
Results
316(6)
Sampling Locations
316(1)
Water Chemistry
317(1)
Sediment Chemistry
317(3)
Faunal Surveys
320(1)
Tissue Measurements
320(2)
Toxicity Testing
322(1)
Discussion
322(8)
Acknowledgments
330(1)
References
331(4)
Case Study: Impact of Partially Treated Mine Water on an Ohio River (U.S.A.) Mussel Bed---Use of Multiple Lines of Evidence in Impact Analysis
335(16)
Heidi L. Dunn
Jerry L. Farris
John H. Van Hassel
Introduction
335(1)
Methods
336(4)
Sampling Locations
336(1)
Water Chemistry
337(1)
Sediment Chemistry
338(1)
Mussel Surveys
338(1)
Toxicity Testing
339(1)
Data Analysis
340(1)
Results
340(5)
Water Chemistry
340(1)
Sediment Chemistry
341(1)
Mussel Surveys
341(3)
Toxicity Testing
344(1)
Discussion
345(3)
Acknowledgments
348(1)
References
348(3)
Case Study: Sensitivity of Mussel Glochidia and Regulatory Test Organisms to Mercury and a Reference Toxicant
351(18)
Theodore W. Valenti
Donald S. Cherry
Richard J. Neves
Brandon A. Locke
John J. Schmerfeld
Introduction
351(3)
Study Goals
353(1)
Methods
354(1)
Test Organisms
354(1)
Preparation of Mercury Test Solutions
354(1)
Toxicity Tests
354(1)
Reference Toxicant Tests
355(1)
Water Chemistry and Mercury Analysis
355(1)
Data Analysis
355(1)
Results
355(6)
Control Survivorship
355(1)
Mercury Salt Results
356(1)
Methylmercuric Chloride
356(5)
Reference Toxicant Results
361(1)
Standard Regulatory Test Organisms
361(1)
Water Chemistry and Mercury Concentrations
361(1)
Discussion
361(4)
Mercury Tests
361(3)
Sodium Chloride Glochidia Reference Test
364(1)
Acknowledgments
365(1)
References
365(4)
Index 369


Jerry L. Farris, John H. Van Hassel