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9781566706254

Restoration and Management of Lakes and Reservoirs, Third Edition

by ;
  • ISBN13:

    9781566706254

  • ISBN10:

    1566706254

  • Edition: 3rd
  • Format: Hardcover
  • Copyright: 2005-05-09
  • Publisher: CRC Press

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Summary

It has been more than ten years since the last edition of the bestselling Restoration and Management of Lakes and Reservoirs. In that time, lake and reservoir management and restoration technologies have evolved and an enhanced version of this standard resource is long overdue. Completely revised and updated, the third edition continues the tradition of providing comprehensive coverage of the chemical, physical, and biological processes of eutrophication and its control. The authors describe the eutrophication process, outline methods for developing a pre-management and restoration diagnosis-feasibility study, and provide detailed descriptions of scientifically sound management and restoration methods.See what's new in the Third Edition:· New chapters on aquatic plant ecology and management· Emphasis on freshwater availability· A regional framework for water quality attainment· Methods of lake and reservoir restoration and management· Updates or revisions to all other chaptersThe book features in-depth discussions of techniques used to manage eutrophication in standing water bodies, procedures for using these techniques, the principles involved, and successes and failures through a selection of case studies and cost analyses. Each chapter includes an introduction to the scientific basis of the problem, a description of the methods and procedures, and presents several case histories. Potential negative impacts and costs, where known, are described. A useful classroom text, reference manual, and general guide, this is the text against which all other resources in this field are measured.

Table of Contents

SECTION I Overview
Introduction
3(20)
The Hydrologic Cycle and the Quantity of Fresh Water
3(4)
Status of Fresh Water in the United States
7(4)
Sources of Lake and Reservoir Problems
11(2)
Restoration and Management of Lakes and Reservoirs
13(2)
History of Lake Restoration and Management
15(8)
References
17(6)
Basic Limnology
23(24)
Introduction
23(1)
Lakes and Reservoirs
23(3)
Basic Limnology
26(2)
Physical--Chemical Limnology
26(2)
Biological Limnology
28(2)
Limiting Factors
30(1)
The Eutrophication Process
31(2)
Characteristics of Shallow and Deep Lakes
33(1)
Ecoregions and Attainable Lake Conditions
34(7)
Summary
41(6)
References
41(6)
Lake and Reservoir Diagnosis and Evaluation
47(42)
Introduction
47(1)
Diagnosis/Feasibility Studies
47(26)
Watershed
47(6)
In-Lake
53(4)
Data Evaluation
57(13)
Example 1
70(1)
Example 2
71(2)
Selection of Lake Restoration Alternatives
73(3)
Algal Problems
73(1)
Nutrient Diversion/Advanced Waste Treatment
73(1)
P Inactivation
73(1)
Dilution/Flushing
74(1)
Lake Protection From Urban Runoff
74(1)
Hypolimnetic Withdrawal
74(1)
Artificial Circulation
74(1)
Food-Web Manipulations
74(1)
Copper Sulfate Treatment
74(1)
Macrophyte Problems
74(1)
Harvesting
75(1)
Biological Controls
75(1)
Lake-Level Drawdown
75(1)
Sediment Covers
75(1)
Sediment Removal
75(1)
Hypolimnetic Aeration
75(1)
Guidelines for Choosing Lake Restoration Alternatives
76(2)
The Lake Improvement Restoration Plan
78(11)
References
80(9)
SECTION II Algal Biomass Control Techniques Directed toward Control of Plankton Algae
Lake and Reservoir Response to Diversion and Advanced Wastewater Treatment
89(24)
General
89(1)
Techniques for Reducing External Nutrient Loads
90(1)
Recovery of World Lakes
91(4)
Lake Washington, Washington
95(3)
Lake Sammamish, Washington
98(2)
Lake Norrviken, Sweden
100(1)
Shagawa Lake, Minnesota
101(2)
Madison Lakes, Wisconsin
103(1)
Lake Zurich, Switzerland
104(1)
Lake Sobygaard, Denmark
105(1)
Costs
106(1)
In-Lake Treatment Following Diversion
107(1)
Summary
108(5)
References
109(4)
Lake and Reservoir Protection From Non-Point Pollution
113(36)
Introduction
113(1)
In-Stream Phosphorus Removal
114(2)
non-point Nutrient Source Controls: Introduction
116(3)
non-point Source Controls: Manure Management
119(3)
non-point Nutrient Source Controls: Ponds and Wetlands
122(5)
Introduction
122(1)
Dry And Wet Extended Detention (ED) Ponds
122(2)
Constructed Wetlands
124(3)
Constructed Wetlands: Case Histories
127(3)
Pre-Dams
130(1)
Riparian Zone Rehabilitation: Introduction
131(1)
Riparian Zone Rehabilitation Methods
132(3)
Reservoir Shoreline Rehabilitation
135(2)
Lakeshore Rehabilitation
137(3)
Summary
140(9)
References
140(9)
Dilution and Flushing
149(16)
Introduction
149(1)
Theory and Predictions
150(1)
Case Studies
151(10)
Moses Lake
152(6)
Green Lake
158(2)
Lake Veluwe
160(1)
Summary: Effects, Applications, and Precautions
161(4)
References
162(3)
Hypolimnetic Withdrawal
165(12)
Introduction
165(2)
Test Cases
167(6)
General Trends
167(3)
Specific Cases
170(1)
Mauen See
170(1)
Austrian Lakes
170(1)
U.S. Lakes
171(1)
Canada
172(1)
Costs
173(1)
Adverse Effects
173(1)
Summary
173(4)
References
174(3)
Phosphorus Inactivation and Sediment Oxidation
177(62)
Introduction
177(1)
Chemical Background
178(4)
Aluminum
178(2)
Iron and Calcium
180(2)
Dose Determination and Application Techniques
182(13)
Aluminum
182(9)
Iron and Calcium
191(1)
Application Techniques for Alum
191(4)
Effectiveness and Longevity of P Inactivation
195(20)
Introduction
195(1)
Stratified Lake Cases
195(5)
Mirror and Shadow Lakes, Wisconsin (WI)
200(1)
West Twin Lake (WTL), Ohio
201(2)
Kezar Lake, New Hampshire
203(1)
Lake Morey, Vermont
204(2)
Shallow, Unstratified Lake Cases
206(2)
Long Lake, Kitsap County, Washington
208(1)
Campbell and Erie Lakes, Washington
209(1)
Green Lake, Washington
210(1)
Reservoirs
211(1)
Ponds
211(1)
Iron Applications
212(1)
Calcium Applications to Hardwater Lakes
213(2)
Problems that Limit Effectiveness of P Inactivation
215(1)
Negative Aspects
216(8)
Costs
224(1)
Sediment Oxidation
224(15)
Equipment and Application Rates
225(1)
Lake Response
225(3)
Costs
228(1)
Prospectus
228(2)
References
230(9)
Biomanipulation
239(24)
Introduction
239(1)
Trophic Cascade
239(4)
Basic Trophic Cascade Research
243(1)
Biomanipulation
244(1)
Shallow Lakes
245(2)
Biomanipulation: Shallow Lakes
247(5)
Cockshoot Broad (UK)
247(1)
Lake Zwemlust (and Other Dutch Lakes)
248(2)
Lake Vaeng (and other Danish Lakes)
250(1)
Lake Christina, Minnesota
250(2)
Biomanipulation: Deep Lakes
252(3)
Lake Mendota, Wisconsin
252(1)
Bautzen Reservoir and Grafenheim Experimental Lakes (Germany)
253(2)
Costs
255(1)
Summary and Conclusions
255(8)
References
256(7)
Copper Sulfate
263(12)
Introduction
263(1)
Principle of Copper Sulfate Applications
263(2)
Application Guidelines
265(1)
Effectiveness of Copper Sulfate
266(1)
Negative Effects of Copper Sulfate
267(2)
Costs of Copper Sulfate
269(6)
References
270(5)
SECTION III Macrophyte Biomass Control
Macrophyte Ecology and Lake Management
275(20)
Introduction
275(1)
Planning and Monitoring for Aquatic Plant Management
275(5)
Case Study: White River Lake Aquatic Plant Management Plan
276(4)
Species and Life-Form Considerations
280(1)
Aquatic Plant Growth and Productivity
281(4)
Light
281(1)
Nutrients
282(1)
Dissolved Inorganic Carbon (DIC), pH, and Oxygen (O2)
283(1)
Substrate
284(1)
Temperature
284(1)
Plant Distribution within Lakes
285(1)
Resource Allocation and Phenology
285(1)
Reproduction and Survival Strategies
286(1)
Relationships with Other Organisms
287(2)
The Effects of Macrophytes on Their Environment
289(6)
References
291(4)
Plant Community Restoration
295(30)
Introduction
295(1)
The ``Do Nothing'' Approach
296(2)
Case history: Lake Wingra, ``Doing Nothing''
297(1)
The Habitat Alteration Approach
298(9)
Case History: No-Motor, Slow-No-Wake Regulations
299(1)
Long and Big Green Lakes: Heavily Used Recreational Lakes in Southeastern Wisconsin
299(1)
Active Habitat Manipulation: Engineering and Biomanipulation Case Studies
300(7)
Aquascaping
307(8)
The Founder Colony: A Reasonable Restoration Approach
315(6)
Case Studies
316(1)
Founder Colonies in North Lake, Lake Lewisville, and Lake Conroe, Texas and Guntersville Reservoir, Alabama
316(1)
Cootes Paradise Marsh: Volunteers in Action
317(1)
Rice Lake at Milltown, Wisconsin: Lessons Learned
317(4)
Concluding Thoughts
321(4)
References
321(4)
Water Level Drawdown
325(18)
Introduction
325(1)
Methods
325(5)
Positive and Negative Factors of Water Level Drawdown
330(2)
Case Studies
332(5)
Tennessee Valley Authority (TVA) Reservoirs
332(1)
Louisiana Reservoirs
333(1)
Florida
333(1)
Wisconsin
334(3)
Connecticut
337(1)
Oregon
337(1)
Fish Management with Water Level Drawdown
337(1)
Case Histories
337(2)
Summary
339(4)
References
339(4)
Preventive, Manual, and Mechanical Methods
343(38)
Introduction
343(1)
Preventive Approaches
343(5)
The Probabilities of Invasion
344(2)
Education, Enforcement, and Monitoring as Preventive Approaches
346(1)
Barriers and Sanitation
346(2)
Manual Methods and Soft Technologies
348(1)
Mechanical Methods
349(25)
The Materials Handling Problem
349(1)
Machinery and Equipment
350(2)
Cutting
352(1)
Case Study: Water chestnut (Trapa natans) Management in New York, Maryland, and Vermont
352(1)
Case Study: Pre-Emptive Cutting to Manage Curly-Leaf Pondweed (Potamogeton crispus) in Minnesota
353(1)
Case Study: Deep Cutting, Fish Lake, Wisconsin
353(2)
Case Study: Cutting the Emergents, Cattails (Typha spp.) and Reeds (Phragmites spp.)
355(1)
Harvesting
355(1)
Efficacy, Regrowth, and Change in Community Structure
355(3)
The Nutrient Removal Question
358(4)
Environmental Effects
362(3)
Operational Challenges
365(1)
Shredding and Crushing
365(1)
Diver-Operated Suction Dredges
366(1)
Hydraulic Washing
367(1)
Weed Rollers: Automated, Untended Aquatic Plant Control Devices
367(1)
Mechanical Derooting
368(1)
Costs and Productivity
369(5)
Concluding Remarks
374(7)
References
375(6)
Sediment Covers and Surface Shading for Macrophyte Control
381(6)
Introduction
381(1)
Comparison of Synthetic Sediment Covers
381(3)
Polyethylene
381(1)
Polypropylene
382(1)
Aquascreen
383(1)
Burlap
383(1)
Application Procedures for Sediment Covers
384(1)
Shading of Macrophytes with Surface Covers
384(3)
References
385(2)
Chemical Controls
387(38)
Introduction
387(1)
Effective Concentration --- Dose, Time Considerations, Active Ingredients, Site-Specific Factors, and Herbicide Formulation
387(1)
Types of Chemicals
388(3)
Contact vs. Systemic
389(1)
Broad-spectrum vs. Selective Herbicides
390(1)
Persistent vs. Non-Persistent
390(1)
Tank Mixes
390(1)
Plant Growth Regulators (PGRs)
390(1)
Adjuvants
391(1)
Increasing Herbicide Selectivity
391(2)
Environmental Impacts, Safety and Health Considerations
393(6)
Herbicide Fate in the Environment
393(1)
Toxic Effects
394(1)
Direct Effects
395(2)
Indirect Impacts
397(2)
What Should a Lake Manager or Concerned Citizen Do?
399(1)
Ways of Minimizing Environmental Risks
399(2)
Case Studies
401(17)
Plant Management with Fluridone in the Northern United States
401(1)
Minnesota Experiences
401(3)
Wisconsin Experiences --- Potters and Random Lakes
404(2)
Michigan Experiences
406(3)
Vermont Experiences --- Lake Hortonia and Burr Pond
409(3)
Increasers and Decreasers
412(1)
2,4-D in Cayuga Lake, New York and Loon Lake, Washington State
412(1)
Cayuga Lake
412(2)
Loon Lake
414(1)
Triclopyr in Pend Oreille River, Washington State and Lake Minnetonka, Minnesota
415(1)
Pend Oreille River
415(2)
Lake Minnetonka
417(1)
Costs
418(1)
Concluding Remarks
418(7)
References
420(5)
Phytophagous Insects, Fish, and Other Biological Controls
425(34)
Introduction
425(1)
Hydrilla (Hydrilla verticillata)
426(1)
Water Hyacinth (Eichhornia crassipes)
427(2)
Alligatorweed (Alternanthera philoxeroides)
429(1)
Eurasian Watermilfoil (Myriophyllum spicatum)
430(3)
Grass Carp
433(12)
History and Restrictions
433(1)
Biology of Grass Carp
434(1)
Reproduction of Grass Carp
435(3)
Stocking Rates
438(2)
Case Histories
440(1)
Deer Point Lake, Florida
440(2)
Lake Conway, Florida
442(1)
Lake Conroe, Texas
442(1)
Smaller Lakes and Ponds
443(1)
Water Quality Changes
443(2)
Other Phytophagous Fish
445(1)
Developing Areas of Macrophyte and Algae Management
446(13)
Fungal Pathogens
446(1)
Water hyacinth
446(1)
Hydrilla
447(1)
Eurasian Watermilfoil
447(1)
Allelopathic Substances
447(1)
Plant Growth Regulators
448(1)
Barley Straw
448(1)
Reducing Algae Growth with Bacteria
448(1)
Viruses for Blue-Green Algae Management
449(1)
References
449(10)
SECTION IV Multiple Benefit Treatments
Hypolimnetic Aeration and Oxygenation
459(16)
Introduction
459(1)
Description and Operation of Units
459(5)
Unit Sizing
464(1)
Beneficial Effects and Limitations
465(5)
Undesirable Effects
470(1)
Costs
470(1)
Summary
470(5)
References
471(4)
Artificial Circulation
475(28)
Introduction
475(1)
Devices and Air Quantities
475(8)
Theoretical Effects of Circulation
483(7)
Dissolved Oxygen (DO)
483(1)
Nutrients
483(1)
Physical Control of Phytoplankton Biomass
484(4)
Effects on Phytoplankton Composition
488(2)
Effects of Circulation on Trophic Indicators
490(4)
Undesirable Effects
494(1)
Costs
494(2)
Summary and Recommendations
496(7)
References
496(7)
Sediment Removal
503(72)
Introduction
503(1)
Objectives of Sediment Removal
503(2)
Deepening
503(1)
Nutrient Control
503(1)
Toxic Substances Removal
504(1)
Rooted Macrophyte Control
504(1)
Environmental Concerns
505(2)
In-Lake Concerns
505(1)
Disposal Area Concerns
506(1)
Sediment Removal Depth
507(1)
Sediment Removal Techniques
508(6)
Mechanical Dredges
509(1)
Hydraulic Dredges
509(4)
Special-Purpose Dredges
513(1)
Pneumatic Dredges
514(1)
Suitable Lake Conditions
514(2)
Dredge Selection and Disposal Area Design
516(27)
Dredge Selection
517(1)
Plan to Optimize the Available Disposal Area
517(1)
Analyze the Production Capacity of Available Dredging Equipment
518(2)
Compute Dredging Days Required to Complete the Job
520(1)
Determine the Required Head Discharge Characteristics of the Main Pump When Pumping Material with the Specific Gravity of Lake Sediment (Approximately 1.20)
520(8)
Determine Minimum Head Conditions When Pumping to the Nearest Disposal Area
528(1)
Analyze Booster Pump Requirements for Pumping to Distances Beyond the Capacity of the Main Pump
529(6)
Disposal Area Design
535(1)
Flocculent Settling Procedure
535(1)
Zone/Compression Settling Test Procedure
536(1)
Design Procedures
537(6)
Case Studies
543(19)
Lake Trummen, Sweden
544(4)
Lilly Lake, Wisconsin
548(1)
Initial Diagnosis and Results
548(2)
Long-Term Effects
550(3)
Other WDNR Dredging Experiences
553(1)
Lake Springfield, Illinois
554(1)
Sediment Removal Guidelines
555(1)
Sediment Removal Techniques and Disposal Site Selection
556(1)
Permits
557(1)
Disposal Site
558(1)
Sediment Removal
558(1)
Lake Jarnsjon, Sweden
559(3)
Costs
562(5)
Summary
567(8)
References
567(8)
Index 575

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