m |
m |
||
Line 532: | Line 532: | ||
9. References | 9. References | ||
− | Chapter 12-9 - Stormwater Ponds | + | <u>'''Chapter 12-9 - Stormwater Ponds'''</u><br> |
− | 1. | + | 1. Suitability |
− | 1.1. | + | :1.1. General |
− | 1.2. | + | :1.2. Function Within Stormwater Treatment Train |
− | 1.3. | + | :1.3. MPCA Permit Applicability |
− | 1.4. | + | :1.4. Design Variants |
− | 1.4.1. Flow-through pond (no extended detention) | + | ::1.4.1. Flow-through pond (no extended detention) |
− | Stormwater Ponds Overview | + | Stormwater Ponds Overview |
− | 1.4.2. Wet extended detention pond | + | ::1.4.2. Wet extended detention pond |
− | 1.4.3. Micropool extended detention pond | + | ::1.4.3. Micropool extended detention pond |
− | 1.4.4. Dry pond | + | ::1.4.4. Dry pond |
− | 1.5. | + | :1.5. Retrofit Suitability |
− | 1.6. | + | :1.6. Special Receiving Waters Suitability |
− | 1.7. | + | :1.7. Cold Climate Suitability |
− | 1.8. | + | :1.8. Water Quantity Treatment |
− | 1.9. | + | :1.9. Limitations |
− | 2. | + | 2. Major Design Elements |
− | 2.1. | + | :2.1. Physical Feasibility Initial Check |
− | 2.2. | + | :2.2. Conveyance |
− | 2.2.1. Inflow Points | + | ::2.2.1. Inflow Points |
− | 2.2.2. Adequate Outfall Protection | + | ::2.2.2. Adequate Outfall Protection |
− | 2.3. | + | :2.3. Pre-treatment |
− | 2.4. | + | :2.4. Treatment |
− | 2.4.1. Permanent Pool and Water Quality Volume (Vwq) Sizing for New Impervious Area | + | ::2.4.1. Permanent Pool and Water Quality Volume (Vwq) Sizing for New Impervious Area |
− | 2.4.2. Pond Liners | + | ::2.4.2. Pond Liners |
− | 2.4.3. Grading and Site Layout | + | ::2.4.3. Grading and Site Layout |
− | 2.4.4. Pond Benches | + | ::2.4.4. Pond Benches |
− | 2.4.5. Maintenance Access | + | ::2.4.5. Maintenance Access |
− | 2.4.6. Riser in Embankment | + | ::2.4.6. Riser in Embankment |
− | 2.4.7. Spillway Design | + | ::2.4.7. Spillway Design |
− | 2.4.8. Non-clogging Low Flow Orifice | + | ::2.4.8. Non-clogging Low Flow Orifice |
− | 2.4.9. Trash Racks | + | ::2.4.9. Trash Racks |
− | 2.4.10. | + | ::2.4.10. Pond Drain |
− | 2.4.11. | + | ::2.4.11. Adjustable Gate Valve |
− | 2.4.12. | + | ::2.4.12. Riser Access |
− | 2.4.13. | + | ::2.4.13. Emergency Spillway |
− | 2.5. | + | :2.5. Landscaping |
− | 2.5.1. Landscaping Plan | + | ::2.5.1. Landscaping Plan |
− | 2.5.2. Pond Buffers and Setbacks | + | ::2.5.2. Pond Buffers and Setbacks |
− | 2.6. | + | :2.6. Safety |
− | 3. | + | 3. Construction Details and Specifications<br> |
− | 4. | + | 4. Operation and Maintenance |
− | 4.1. | + | :4.1. Overview |
− | 4.2. | + | :4.2. Design Phase Maintenance Considerations |
− | 4.3. | + | :4.3. Construction Phase Maintenance |
− | 4.4. | + | :4.4. Post-Construction Operation and Maintenance |
− | 4.4.1. Operation to Address Frozen Conditions | + | ::4.4.1. Operation to Address Frozen Conditions |
− | 4.4.2. Maintenance | + | ::4.4.2. Maintenance |
− | 5. | + | 5. Cost Considerations |
− | 5.1. | + | :5.1. Construction and Maintenance Costs |
− | 6. | + | 6. Design Procedure |
− | 6.1. | + | :6.1. Design Steps |
− | 7. | + | 7. Links to Other Manuals<br> |
− | 8. | + | 8. References |
− | Chapter 12-10 - Stormwater Wetlands | + | <u>'''Chapter 12-10 - Stormwater Wetlands'''</u><br> |
− | 1. | + | 1. Suitability |
− | 1.1. | + | :1.1. General |
− | 1.2. | + | :1.2. Function Within Stormwater Treatment Train |
− | 1.3. | + | :1.3. MPCA Permit Applicability |
Stormwater Wetlands Overview | Stormwater Wetlands Overview | ||
− | 1.4. | + | :1.4. Design Variants |
− | 1.5. | + | :1.5. Retrofit Suitability |
− | 1.6. | + | :1.6. Special Receiving Waters Suitability |
− | 1.7. | + | :1.7. Cold Climate Suitability |
− | 1.8. | + | :1.8. Water Quantity Treatment |
− | 1.9. | + | :1.9. Water Quality Treatment |
− | 1.10. | + | :1.10. Limitations |
− | 2. | + | 2. Major Design Elements |
− | 2.1. | + | :2.1. Physical Feasibility Initial Check |
− | 2.2. | + | :2.2. Conveyance |
− | 2.2.1. Inflow Points | + | ::2.2.1. Inflow Points |
− | 2.2.2. Adequate Outfall Protection | + | ::2.2.2. Adequate Outfall Protection |
− | 2.3. | + | :2.3. Pre-treatment |
− | 2.4. | + | :2.4. Treatment |
− | 2.4.1. Permanent Pool (Vpp) and Water Quality Volume (Vwq) | + | ::2.4.1. Permanent Pool (Vpp) and Water Quality Volume (Vwq) |
− | 2.4.2. Grading and Site Layout | + | ::2.4.2. Grading and Site Layout |
− | 2.5. | + | :2.5. Landscaping |
− | 2.5.1. Landscaping Plan | + | ::2.5.1. Landscaping Plan |
− | 2.6. | + | :2.6. Constructed Wetlands Buffers and Setbacks |
− | 2.7. | + | :2.7. Safety |
− | 3. | + | 3. Construction Details and Specifications<br> |
− | 4. | + | 4. Operation and Maintenance |
− | 4.1. | + | :4.1. Overview |
− | 4.2. | + | :4.2. Design Phase Maintenance Considerations |
− | 4.3. | + | :4.3. Construction Phase Maintenance |
− | 4.4. | + | :4.4. Post Construction Operation and Maintenance |
− | 5. | + | 5. Cost Considerations |
− | 5.1. | + | :5.1. Detailed Cost Estimate |
− | 6. | + | 6. Design Procedure |
− | 6.1. | + | :6.1. Step by Step Design Procedure |
− | 7. | + | 7. References |
<br> | <br> | ||
Line 643: | Line 643: | ||
:6. Costs | :6. Costs | ||
:7. Future Actions | :7. Future Actions | ||
− | *University of Minnesota Landscape Arboretum Case Study: Runoff Model and Rain Gardens | + | *University of Minnesota Landscape Arboretum Case Study: Runoff Model and Rain Gardens<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Background | + | :2. Background |
− | 3. Implementation | + | :3. Implementation |
− | 4. Costs | + | :4. Costs |
− | 5. Results | + | :5. Results |
− | 6. Future Actions | + | :6. Future Actions |
− | *Silver Creek Cliff Trail Case Study: Meeting Stormwater Discharge Requirements Using Compost | + | *Silver Creek Cliff Trail Case Study: Meeting Stormwater Discharge Requirements Using Compost<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Background | + | :2. Background |
− | 3. Implementation | + | :3. Implementation |
− | 4. Results | + | :4. Results |
− | 5. Costs | + | :5. Costs |
− | 6. Future Actions | + | :6. Future Actions |
− | *Minneapolis Chain of Lakes Case Study: A Stormwater Management Treatment Train Approach to Improving Lake Water Quality | + | *Minneapolis Chain of Lakes Case Study: A Stormwater Management Treatment Train Approach to Improving Lake Water Quality<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Background | + | :2. Background |
− | 3. Implementation | + | :3. Implementation |
− | 4. Costs | + | :4. Costs |
− | 5. Results | + | :5. Results |
− | 6. Future Actions | + | :6. Future Actions |
*Brown’s Creek Trout Habitat PreservationProject Case Study: Thermal Protection of a Trout | *Brown’s Creek Trout Habitat PreservationProject Case Study: Thermal Protection of a Trout | ||
− | 1. Stream Resource and Infiltration Within Land-Locked Basins | + | :1. Stream Resource and Infiltration Within Land-Locked Basins<br> |
− | 2. Issue | + | :2. Issue |
− | 3. Background | + | :3. Background |
− | 4. Implementation | + | :4. Implementation |
− | 5. Results | + | :5. Results |
− | 6. Costs | + | :6. Costs |
− | 7. Future Actions | + | :7. Future Actions |
− | *Stormwater Management in Bemidji Case Study: Retrofitting Leads to Proactive Planning | + | *Stormwater Management in Bemidji Case Study: Retrofitting Leads to Proactive Planning<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Background | + | :2. Background |
− | 3. Implementation | + | :3. Implementation |
− | 3.1. Cameron Park Project | + | ::3.1. Cameron Park Project |
− | 3.2. Tourist Information Center | + | ::3.2. Tourist Information Center |
− | 3.3. Comprehensive Planning | + | ::3.3. Comprehensive Planning |
− | 3.4. Public Education | + | ::3.4. Public Education |
− | 4. Results | + | :4. Results |
− | 4.1. Cameron Park Project | + | ::4.1. Cameron Park Project |
− | 4.2. Visitor’s Center | + | ::4.2. Visitor’s Center |
− | 5. Cost | + | :5. Cost |
− | 6. Future Actions | + | :6. Future Actions |
− | *State Highway 23 Through Spicer Case Study: Stormwater Management for Linear Projects | + | *State Highway 23 Through Spicer Case Study: Stormwater Management for Linear Projects<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Background | + | :2. Background |
− | 3. Implementation | + | :3. Implementation |
− | 4. Results | + | :4. Results |
− | 5. Costs | + | :5. Costs |
− | 6. Future Actions | + | :6. Future Actions |
− | *City of Wykoff Case Study: Stormwater Remediation in a Karst Area | + | *City of Wykoff Case Study: Stormwater Remediation in a Karst Area<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Background | + | :2. Background |
− | 3. Implementation | + | :3. Implementation |
− | 4. Costs | + | :4. Costs |
− | 5. Results | + | :5. Results |
− | *Lake Phalen Shoreland Restoration Case Study:Shore Restoration of a High-Use Urban Lake | + | *Lake Phalen Shoreland Restoration Case Study:Shore Restoration of a High-Use Urban Lake<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Stormwater and Shorelines | + | :2. Stormwater and Shorelines |
− | 3. Background | + | :3. Background |
− | 4. Implementation | + | :4. Implementation |
− | 5. Results | + | :5. Results |
− | 6. Costs | + | :6. Costs |
− | 7. Future Actions | + | :7. Future Actions |
− | *Tanners Lake Case Study: Alum Injection for Phosphorus Removal | + | *Tanners Lake Case Study: Alum Injection for Phosphorus Removal<br> |
− | 1. Issue | + | :1. Issue |
− | 2. Background | + | :2. Background |
− | 3. Implementation | + | :3. Implementation |
− | 4. Costs | + | :4. Costs |
− | 5. Results | + | :5. Results |
− | 6. Future Actions | + | :6. Future Actions<br> |
− | References | + | References<br> |
Submittals | Submittals | ||
You can find information from the old Manual by clicking on any of the linked items below. The topics are arranged in the exact order as in the hardback version of the Manual. The links take you to the page containing the topic you want. It does not take you directly to the section of interest. This was intentional. To find the topic of interest, scroll down on the page or use the Page Contents option in the upper right portion of the page. Topics that are not linked have not been migrated.
Chapter 1 - Use and Organization of the Manual
1. Manual Organization
2. Users of the Manual
3. The Regulatory Relationship of the Manual
4. This Manual’s Relationship to Other Manuals
5. Keep Updated About Manual Changes
6. Feedback
7. How Do I
Chapter 2 - Stormwater and the Minnesota Perspective
1. Stormwater Education
2. What is Stormwater
3. Why Stormwater Matters
4. Managing Stormwater in Minnesota
5. How This Manual Will Help
6. General Principles for Stormwater Management
7. References
Chapter 3 - Integrated Stormwater Management
1. What Is Integrated Stormwater Management?
2. Non-Structural vs. Structural BMPs
3. Link to Better Site Design
4. References
Chapter 4 - Better Site Design/Low iMpact Development
1. Introduction
2. Preserving Natural Areas
3. Disconnecting and Distributing Stormwater
4. Reducing Impervious Cover
5. The Benefits of Better Site Design
6. Overcoming Barriers to Better Site Design
7. Thinking Outside of the Big Box
8. References
Chapter 5 - Minnesota rules, regulations and programs
1. Relationship of Manual to Regulatory Programs
2. Stormwater Programs and Permit Requirements
3. Federal Level Implementation
6. Related Information
7. References
8. Other Tables and Figures
Chapter 6 - Introduction to Best Management Practices
1. Using the Treatment Train Approach to BMP Selection
2. Using the Manual to Select BMPs
3. Retrofitting To Achieve Better Stormwater Management
4. References
Chapter 7 - Choosing Best Management Practices
1. Process for Selecting Best Management Practices
2. References
Chapter 8 - Methods and models
1. Introduction
2. Selecting a Stormwater Modeling Tool
3. Minnesota Model Input Guide
4. References
Chapter 9 - Cold climate impact on runoff management
1. Background
2. Nature of the Cold Climate Problem
3. Challenges in Engineering and Design
4. Management Approaches
5. Design Adaptations for Cold Climates
6. Considerations for Design Sheets Based on Cold Climate Performance
7. References and Annotated Bibliography
8. References
9. Annotated Bibliography
Chapter 10 - Unified sizing criteria
1. Introduction
2. Overview of the Unified Stormwater Sizing Framework
3. Recharge and infiltration criterion (Vre)
5. Channel Protection Criteria (Vcp)
6. Overbank Flood Protection Criteria (Vp)
7. Extreme Flood Control Criteria (Vp)
8. Adapting Stormwater Criteria for Receiving Waters
9. Lakes
10. Trout Streams
11. Drinking Water Source Areas
12. Wetlands
13. Impaired Waters
14. Stormwater Sizing for Redevelopment Projects
15. References
Chapter 11 - Stormwater credits and development sites
1. Stormwater Credits
2. Better Site Design and Stormwater Credits
3. Stormwater Credit Categories
4. Establishing an Effective Local Stormwater Credit System
5. References
Chapter 12 - Best Management Practice details
1. Introduction
2. Fact Sheets and Design Guidance - General
3. Minnesota Design: Main Influences
4. Design Guidance - Overview
5. Design Procedures
6. The Role of Pre-Treatment
7. The Importance of Maintenance
8. References
Chapter 12-1 - Pollution Prevention Fact Sheets
Chapter 12-2 - Better Site Design / Low Impact Development
Chapter 12-3 - Runoff volume minimization
Using Compost as a Soil Amendment (Post-Construction Soil BMP)
1. Key Considerations
2. Material Specifications 3. Turf Establishment or Incorporation in Soil as an Amendment
4. Other Benefits and Emerging Uses of Compost
5. Additional Information
6. References
7. Literature Review
Green Roofs
Pervious Pavement
Rainwater Harvesting
Chapter 12-2 - Temporary erosion & sediment control
1. Introduction
2. Planning
3. Permits
4. Sequencing Activities
Temporary Erosion & Sediment Control Overview
5. Inspection and Maintenance
6. References
Chapter 12-5 - Supplemental Best Management Practices
Chemical & Biological Treatment
Filtration Devices
Hydrodynamic Devices
Chapter 12-6 - Bioretention
1. Suitability
2. Major Design Elements
3. Construction Details
4. Materials Specifications
5. Construction Specifications
6. Operation and Maintenance
7. Construction and Maintenance Costs
8. Links to other Manuals
9. References
Chapter 12-7 - Filtration
1. Suitability
2. Major Design Elements
3. Construction Details and Specifications 4. Operation and Maintenance
5. Construction and Maintenance Costs
6. Design Procedure: Media Filters
7. Design Procedure: Vegetative Filters.
8. Links to Other Manuals
9. References
Chapter 12-8 - Infiltration 1. Suitability 1.1. General 1.2. Function Within Stormwater Treatment Train 1.3. MPCA Permit Applicability 1.4. Design Variants 1.4.1. Infiltration Basin Infiltration Overview 1.4.2. Infiltration Trench (a.k.ainfiltration gallery) 1.5. Dry Wells (a.k.ainfiltration tubes, french drains, soak-away pits or soak holes) 1.5.1. Underground Infiltration Systems 1.6. Retrofit Suitability 1.7. Special Receiving Waters Suitability 1.8. Cold Climate Suitability 1.9. Water Quantity Treatment 1.10. Water Quality Treatment 1.11. Limitations 2. Major Design Elements 2.1. Physical Feasibility Initial Check 2.2. Conveyance 2.3. Pre-treatment 2.4. Treatment 2.5. Landscaping 2.6. Safety 3. Construction Details 4. Construction Specifications 4.1. Temporary Erosion Control 4.2. Excavation, Backfill and Grading 4.3. Native Plants, Planting and Transplanting 4.4. Construction Sequence Scheduling 4.5. Construction Observation 5. Operation and Maintenance 5.1. Overview 5.2. Design Phase Maintenance Considerations. 5.3. Construction Phase Maintenance Considerations 5.3.1. Avoid excessive compaction 5.3.2. Stabilize Vegetation Before and After Construction 5.3.3. Correctly Install Filter Fabrics 5.3.4. Carefully Finish Final Grading 5.3.5. Keep Infiltration Practices “Off-line” until Construction Is Complete 5.3.6. Establish Permanent Vegetation 5.4. Post-Construction Operation and Maintenance 6. Construction and Maintenance Costs 7. Design Procedure 7.1. Design Steps 8. Links to Other Manuals 9. References
Chapter 12-9 - Stormwater Ponds
1. Suitability
Stormwater Ponds Overview
2. Major Design Elements
3. Construction Details and Specifications
4. Operation and Maintenance
5. Cost Considerations
6. Design Procedure
7. Links to Other Manuals
8. References
Chapter 12-10 - Stormwater Wetlands
1. Suitability
Stormwater Wetlands Overview
2. Major Design Elements
3. Construction Details and Specifications
4. Operation and Maintenance
5. Cost Considerations
6. Design Procedure
7. References
Chapter 13 - Minnesota Case Studies: Examples of BMP Design
References
Submittals
Chapter 14 - Sensitive Areas Guidance
1. Introduction
2. BMP Constraints & Design Criteria for Special Soil/Geologic Conditions
3. Runoff Source Constraints
4. References
Appendix A - Minnesota Factors
Appendix B - Selection of Appropriate Computer Models
1. Hydrologic Models
2. Hydraulic Models
3. Combined Hydraulic and Hydrologic Models
4. Water Quality Models
5. Supplemental Graphics:TP- and Precipitation Frequency Graphs
Appendix C - Links to Other Resources and Manuals
Appendix D - Construction Support
Appendix D- Operation & Maintenance Checklists
Appendix D - BMP Cost Estimate Worksheet
Appendix E - Minnesota Plant List and Application
1. Sources for Stormwater BMP Plant Material Selection
2. Salt Tolerance
3. Green Roofs
4. References
4.1. Salt Tolerance
4.2. Green Roof Plant Material Selection
Appendix F - Special Waters and Other Sensitive Receiving Waters
Appendix G - Additional Regulatory Information
1. Agencies and Stormwater Authorities
2. State
Appendix H - Acronyms, Symbols and Glossary
1. Acronyms
2. Symbols
3. Glossary
Appendix I - Bibliography
1. Bibliography
2. Web References
2.2. Other Web References
Appendix J - Issue Papers
1. Topics
2. Access
Appendix K - Stormwater Research and Education
1. Introduction
2. Research Needs
3. Research Centers
4. Educational Resources on Stormwater Management
Appendix L - Simple Method for Estimating Phosphorus Export
1. The Simple Method
2. Calculating Pre-Development and Post-Development Phosphorus Load
3. References
Appendix M - Estimating Channel Protection Storage Volume
1. COMPUTING Vcp
2. Figures
Appendix N - Three-Tiered BMP Performance Range for TSS and TP
1. Introduction
2. Approach
3. Recommended Performance Measures
3.1. BMP Performance
3.1.1. Stormwater ponds
3.1.2. Stormwater wetlands
3.1.3. Filtration practice (grass filters/swales)
3.1.4. Filtration practice (media filters; includes sand filters, peat mixed with sand, and other)
3.1.5. Bioretention
3.1.6. Infiltration
3.2. Other Factors Influencing Performance
3.2.1. The effects of geographic location
3.2.2. Watershed configuration
3.2.3. Uncertainty of hydrologic measurements
3.2.4. BMP design criteria
3.2.5. BMP maintenance
3.2.6. Climate
4. References
Appendix O - Channel Protection Criteria Evaluation
1. Background
2. Methodology
3. Results/Discussion
4. CONCEPTS Erosion Modeling Results
5. Conclusions
Literature Review Summary