Final Report: Appendix G. LID Driveway Retrofit and Teaching Tool at Bristol County Agricultural High School, Dighton - Supporting Information

Similar documents
Final Report: Appendix F. LID Driveway Retrofit at Ocean Spray Processing Facility, Middleboro Supporting Information

Final Report: Appendix C. LID Parking Lot Design and Teaching Tool at Bridgewater State University, Bridgewater Supporting Information

Bioretention. Matt Scharver Northeast Ohio Regional Sewer District. #ProjectCleanLake

Table 4.7.1: Swales Potential Application and Storm Water Regulation

The following general requirements will be met for all planter box installations:

PREPARED UNDER. The 319 Nonpoint Source Pollution Grant Program FUNDED BY. MA Department of Environmental Protection Boston, MA PREPARED BY

5. LOW IMPACT DEVELOPMENT DESIGN STANDARDS

Analyzing the Bioretention Construction Sequence

Structural Stormwater Best Management Practices

Low Impact Development Practices

6.1 Bioretention Areas

Final Report: Appendix D. Mill River park and Riverwalk at City Hall, Taunton Supporting Information

WQ-07 INFILTRATION TRENCH

4.5 City of Indianapolis Stormwater Green Infrastructure Guidance: Bioretention (rain gardens) Bioretention Fact Sheet Bioretention Technical Design

2.1.4 Roof Downspout Rain Gardens

Besides performing this function, they also look really nice

Guidance on Preparation of Construction and Maintenance Costs

Feet. Overland. Drainage Area Boundary. To Swale. Swale. To Catch Basin. Culvert Pipe. To Drain Outfall. NRCS Soil Area Boundary

BIORETENTION FACILITY

Please make the following changes in your copy of the bid proposal for the captioned project:

Rainwater and Land Development Manual Bioretention Design Specification Updates. Jay Dorsey & John Mathews ODNR-DSWR June 18, 2014

Post Construction BMPs

2008 SWMM, 2010 Revision City of Tacoma

Case Study Bioretention Installation and Maintenance

GREEN INFRASTRUCTURE DESIGNS RAIN GARDEN

Structural Storm Water Best Management Practices (BMPs)

Inspection and Maintenance of Stormwater Best Management Practices

Placement of the soil should be in lifts of mm and loosely compacted (tamped lightly with a backhoe bucket).

Appendix D - Technical Design Criteria for BMPs

RAIN GARDEN ILLINOIS URBAN MANUAL PRACTICE STANDARD. (feet) CODE 897 DEFINITION

Old Mill Community Association Bioretention Facility

Rain Garden Site Selection and Installation

Bioretention cell schematic key

A. Install all temporary erosion control measures (in accordance with MNDOT General Conditions 2573) prior to site disturbance.

ABBREVIATIONS: TABLE OF CONTENTS: REFERENCE MATERIALS: CITY OF SEATTLE COMBINED SEWER OVERFLOW GALLONS PER MINUTE POLYVINYL CHLORIDE SQUARE FEET

Use of Best Management Practices

BIORETENTION CELLS. Green Infrastructure For Stormwater Management WHAT ARE BIORETENTION CELLS? WHERE ARE BIOCELLS INSTALLED?

2014 Southeast NY Stormwater Conference October 15, John Dunkle, PE, CPESC, CMS4S

Types and Basic Design of Post-Construction BMPs

Chapter 2 Roof Downspout Controls

APPENDIX E DESIGN CRITERIA FOR POST-CONSTRUCTION WATER QUALITY BMPS


6.2 Flow-Through Planter

Severn River Sub-Watershed: BMP 09-Retrofit

Key Topics. Bioretention Crime Scene Investigation The Bioretention Construction and Maintenance Sequence

City of Stoughton Erosion Control Permit Application (effective 2/6/2018)

Beyond Rain Gardens Advancing the Use of Compost for Green Infrastructure, Low Impact Development, & Stormwater Management

Wisconsin Contractors Institute Continuing Education

Sustainable Sites. hblanarc.ca. RDN Workshop June 25, David Reid, FCSLA, Landscape Architect, Environmental Designer

Tree Pits Construction Guide

County of Prince Edward. Stormwater Management Plan. Agreement in lieu of a Stormwater Management Plan

City of South Portland Stormwater Manual

Stormwater Control Plan: Small (Tier 1) Land Development Project

Low Impact Development in Northern Nevada: Bioretention

Rainwater Management an issue for the 21 st Century. Hydrological Cycle

Small Town Sustainable Stormwater Solutions

Introduction to Low Impact Development. Dr Kathy Chaston Coral & Coastal Management Specialist NOAA Office of Ocean & Coastal Resource Management

EROSION & SEDIMENT CONTROL

Kearney Post-Construction Stormwater Program

Bioretention Systems

From and

Technical Guidance for Stormwater Treatment and Site Design Measures

Preparing a Stormwater Control Plan for a Small Land Development Project

My Soil Won t Drain, Can I Still Use LID? Rob Buchert, John Knutson, Erik Pruneda

Standard for Bioretention Systems

Pollutant Removal Benefits

SIMPLIFIED APPROACH TO STORMWATER MANAGEMENT FOR SMALL PROJECTS

EROSION PREVENTION BMP SUGGESTED USES MATRIX

SUPPORTING DOCUMENT STORMWATER POLLUTION PREVENTION PLAN (SWPPP) NARRATIVE

Post-Construction BMPs

- 33 Years. - HQ in Richmond VA. - New England Merrimack NH Compost Silt fence. - Product Distributors, Manufacturers and Innovators

Urban Rain Gardens: Capturing our local water. Martha Berthelsen The Watershed Project

Landfill Closure, Intermediate Cover & Post-Closure Care. Municipal League Meeting

Town of Essex Small Site Erosion Control Guide

USDA Rain Garden Video fluid_planet.html

Maintaining Your Neighborhood Stormwater Facilities How to identify stormwater facilities and keep them working

Construction Site Erosion Control

Local Stormwater Retrofit Case Studies. Westmoreland County Conservation District Updated 11/2011

BMP #: Recharge Garden/Rain Garden/Bioretention Garden

R1a: REINFORCED TURF TO REPLACE GRAVEL /GRASS PARKING ADJACENT TO SOUTH PENNSYLVANIA AVENUE.

STORMWATER MANUAL: A GUIDE TO STORMWATER REQUIREMENTS FOR LAND DISTURBING ACTIVITIES IN ARLINGTON COUNTY. March 2018

Low Impact Development (LID) and Bioretention Techniques

Rain Gardens: Are They the Answer? Holmdel Homeowner Education Program. Holmdel, NJ October 9, 2010

John F. Kennedy STEM High School Green Infrastructure Information Sheet

STORM WATER MANAGEMENT PLAN APPLICATION Manheim Borough

Evaluating Low Impact Development Practices for Stormwater Management on an Industrial Site in Mississippi

Homeowners Guide to Stormwater BMP Maintenance

5/15/2013. Basin Area. Vegetation. Rainfall & Runoff. Soil Type. Topics. Factors Influencing Erosion. Factors Influencing Erosion

STORMWATER MANAGEMENT DESIGN ASSISTANCE MANUAL. Guide to Choosing Stormwater BMPs

Attachment 2: Permeable Pavement Design Guidelines

SOP 6: Erosion and Sedimentation Control SOP 6: EROSION AND SEDIMENTATION CONTROL

Alternative Stormwater Management Practice RAIN GARDENS

Bioretention. Description: Shallow stormwater basin or landscaped area that utilizes engineered soils and vegetation to capture and treat runoff.

12/7/2007. Christopher B. Burke Engineering West, Ltd Aux Sable Creek Watershed Plan Update 1

4.6. Low Impact and Retentive Grading

BEST LOCAL LAND USE PRACTICES

Urban Water Management and Soils (ESRM 311 & SEFS 507)

Landscape Rebate: Rainwater Harvesting Rain Garden Installer Guidelines

SMALL PROJECTS SIMPLIFIED APPROACH

4. CONCEPT PLAN DEVELOPMENT

Transcription:

Bridgewater State University Virtual Commons - Bridgewater State University Phase II Final Report Taunton River Watershed Project 2011 Final Report: Appendix G. LID Driveway Retrofit and Teaching Tool at Bristol County Agricultural High School, Dighton - Supporting Information Horsley Witten Group, Inc. Recommended Citation Horsley Witten Group, Inc. (2011). Final Report: Appendix G. LID Driveway Retrofit and Teaching Tool at Bristol County Agricultural High School, Dighton - Supporting Information. Taunton River Watershed Project Phase II Final Report. Item 15. Available at: http://vc.bridgew.edu/taunton_riv_ph2/15 This item is available as part of Virtual Commons, the open-access institutional repository of Bridgewater State University, Bridgewater, Massachusetts.

APPENDIX G. LID DRIVEWAY RETROFIT AND TEACHING TOOL AT BRISTOL COUNTY AGRICULTURAL HIGH SCHOOL, DIGHTON - SUPPORTING INFORMATION

MEMORANDUM TO: Krista Paynton, Superintendent/Director Bristol County Agricultural High School 135 Center Street Dighton, MA 02715 FROM: Richard A. Claytor, Jr., P.E., Principal Engineer Ellie Baker, Project Manager DATE: December 4, 2009 RE: Demonstration Projects at Bristol County Agricultural High School Taunton River Watershed Management Plan As you know, Ellie Baker and I visited the Bristol County Agricultural High School on November 3, 2009 and met with you, the Principal, several teachers and a group of students to identify potential project sites for low impact development (LID) measures on campus. As you may recall, we spoke with the teachers and students about the potential to use the project as a teaching tool, and the potential for students to monitor the plantings and possibly become a supplier to others for native plants that are appropriate for these systems, but not necessarily currently commercially available. We identified five separate potential LID locations on campus with a variety of drainage characteristics (see attached figure). Sites were identified based on current drainage patterns and the potential to offer an improved stormwater management option. The LID stormwater management approach is designed to capture and manage runoff from relatively small areas and uses a natural approach to treat, and where feasible, infiltrate stormwater into the underlying soils. Each of the five identified locations employs a similar basic strategy, which is to collect runoff from the surface in a vegetated channel and then draining to a bioretention system (or rain garden). Bioretention is an alternative stormwater management practice that uses a soil matrix and landscaping to filter stormwater pollutants and, where possible, infiltrate into the underlying soils (see photo). The proposed design concept, approximate size of the project and approximate construction costs for each of the five sites are as follows:

Ms. Krista Paynton December 4, 2009 Page 2 Site 1: This area drains rooftop from the main campus building (Gilbert Hall) and the adjacent parking area to the rear. We propose to design a bioretention area with an overflow to the lower parking area. Drainage area to be managed: 0.22 acres. Bioretention surface area: 290 square feet. Planning level cost estimate: $8,700 Site 2: This area drains a portion of the access road, buildings and farm equipment repair building. We proposes to design a vegetated swale that leads to a bioretention facility, which would then overflow to the field below. Drainage area to be managed: 1.89 acres. Swale Length: 140 feet; Bioretention surface area: 1,360 square feet. Planning level cost estimate: $44,500 Site 3: This area drains runoff from the parking lot and rooftop from the greenhouse. We propose to design a vegetated swale that leads to a bioretention facility, which would then overflow to the field below. Drainage area to be managed : 0.48 acres. Swale Length: 35 feet; Bioretention surface area: 320 square feet. Planning level cost estimate: $11,500 Site 4: This area drains runoff from the large animal facility and the driveway in front of the small animal facility. We propose to design a swale that leads to a bioretention facility, which would then overflow back into the drainage gutter along the driveway edge. Drainage area to be managed : 0.48 acres. Swale Length: 25 feet; Bioretention surface area: 330 square feet. Planning level construction cost estimate: $11,000 Site 5: This area drains runoff from the driveway, the riding arena and the adjacent areas. We propose to design a swale that leads to a bioretention facility, which would then overflow into the existing drainage system. Drainage area to be managed: 0.96 acres. Swale Length: 80 feet; Bioretention surface area: 500 square feet. Planning level construction cost estimate: $20,500 Based on our initial assessment of the relative costs versus the size of the area treated for each location, as well as our project budget, we believe it makes the most economic sense to pursue sites 2 and 3. However, if you and the other school officials believe that any of the other sites would be a better selection (and are feasible and might offer different educational opportunities) please let us know and we would be happy to discuss this with you. H:\Projects\2008\8123 Taunton River WS PH II\Task 6 Final Report\Appendices\Bristol Aggie\091204_Bristol Aggie Memo1_8123.doc

Ms. Krista Paynton December 4, 2009 Page 3 Please review the attached map and this memo and let us know if you agree with our recommendation to pursue these 2 preferred locations, or if you would like us to concentrate our efforts on another location. If you have any questions, please do not hesitate to contact me at 508-833-6600 or Ellie Baker at 978-499-0601. We look forward to hearing from you. We hope to reach a final selection by the New Year, or sooner if possible, so that we can move forward with any necessary survey and test pits as soon as possible. H:\Projects\2008\8123 Taunton River WS PH II\Task 6 Final Report\Appendices\Bristol Aggie\091204_Bristol Aggie Memo1_8123.doc

5 North 4 0 120 Scale in Feet Horsley Witten Group Sustainable Environmental Solutions www.horsleywitten.com Location Plan for Alternative LID Practices Bristol County Agricultural High School 12/07/09 KK dighton-siteaerial.dwg 1 H:\Projects \2008\8123 Taunton River WS PH II\ Graphics \ Dighton \ dighton-siteaerial.dwg 3 2 last modified: 12/07/09 printed: 12/07/09 by kk

INSPECTOR: J. HENDERSON DATE: 3/2/2010 0.0 ' 92.5 A 1.5 ' LOAMY SAND 10 YR 4/4 91.0 B 2.0 ' C TP-1 LOAMY SAND 10 YR 5/6 90.5 LOAMY SAND 10 YR 5/4 INSPECTOR: J. HENDERSON DATE: 3/2/2010 TP-2 0.0 ' 95.0 A 1.5 ' LOAMY SAND 10 YR 4/4 93.5 B 2.5 ' LOAMY SAND 10 YR 6/8 92.5 C 1 4.0 ' C 2 MEDIUM SAND 10 YR 6/6 91.0 7.0 ' 85.5 WEEPING OBSERVED AT 84" ESHGW EL. 85.5 FINE SAND 10 YR 8/3 10.0 ' 85.0 WEEPING OBSERVED AT 100" ESHGW EL. 86.7

Bioretention Material Specifications Material Specification Notes Filter Media to contain: USDA soil types loamy sand or sandy loam. 85-88% sand Volume of filter media based on 110% of 8-12% soil fines (< 2% clay) plan volume to account for settling or compaction. Organic matter shall be well aged Bioretention 3-5% organic matter Soil (6-12 months), well aerated, leaf compost or approved equivalent. Mulch Layer Filter Fabric Fine shredded hardwood mulch. Well Aged (6 months minimum).. Non-woven geotextile fabric with flow rate of > 110 gallon/minutes/square foot. Class C apparent opening size (ASTM-D-4751) grab tensile strength (ATSM-D-4632) burst strength (ASTM-D-4833) A 2 to 3 inch layer on the surface of the filter bed. Mix half into soil filter media. For use over underdrains (extend 1 foot -1.5 feet each side) and side walls of bioretention excavation. Pea Gravel 3/8 washed stone For use between the Bioretention Soil and the approved subgrade/underdrain gravel. Gravel Underdrain Jacket Underdrain AASHTO M-43 4 rigid schedule 40 PVC pipe, with 3/8 perforations @ 6 o.c. meeting ASTMD 1785 or AASHTO M-278 (Or equivalent corrugated HDPE if shown in drawings). Washed, clean and free of all fines. Perforated pipe for length of bioretention cell, and non-perforated pipe as needed to connect with storm drain system. T s and Y s as needed depending on underdrain configuration. Underdrain Cleanouts Erosion Control Blanket Plant Material Non perforated schedule 40 PVC pipe, PVC elbow, cap, and all associated fittings Woven, 100% biodegradable jute fiber 7.70 lbs/1000 sqft. Bionet S150BN or approved equivalent All plant material shall conform, in all respects, to the guidelines of the American Standard for Nursery Stock, latest edition Extend cleanout pipes to surface with vented caps at Ts and Ys. To be used on 3:1 side slopes of bioretention area. Plant species and quantities as specified in the Drawings. Grass Seed New England Conservation/Wildlife/Mix or approved equivalent Application rate 25 lbs/ acres or per seed manufacturer s requirements. BIORETENTION SCHEDULE: Lowest Bottom Top No. Surface Elevation Area (sf) of Berm Design Freeboard OVF Crest Ponding Bottom Depth Elev. 1 OVF Type Depth Mulch Bottom Mulch Depth Planting Soil Bottom Planting Soil Depth Pea Gravel Bottom Pea Gravel Depth Stone Bottom Underdrain Stone 1 1,746 91.50 0.60 90.90 0.50 90.40 RIPRAP 0.25 90.15 1.80 88.35 0.33 88.02 0.50 87.52 2 560 99.00 0.50 98.50 0.50 98.00 RIPRAP 0.25 97.75 2.50 95.25 0.50 94.75 0.67 94.08 Abbreviations: SA Bottom Surface Area OVF Overflow Notes: 1 Bottom elevation = Surface of shredded organic layer (see detail) 2 See pipe schedule for outlet pipe size

ITEM NUMBER TAUNTON RIVER WATERSHED PLAN - BRISTOL COUNTY AGRICULTURAL HIGH SCHOOL DIGHTON, MA DESCRIPTION 75% DESIGN PLANS CONSTRUCTION COST ESTIMATE 8/6/2010 ESTIMATED QUANTITY UNIT UNIT PRICE TOTAL AMOUNT 1.0 STRAWBALES & SILT FENCE FOR EROSION CONTROL 610 LINEAR FOOT $10.00 $6,100 2.0 BIORETENTION FACILITY 2,300 SQUARE FOOT $27.50 $63,250 3.0 EROSION CONTROL MAT FOR REINFORCED SWALES 350 SQUARE YARD $16.00 $5,600 4.0 PAVED DRAINAGE FLUME 2 EACH $600.00 $1,200 5.0 RIPRAP OUTFALLS 2 EACH $2,000.00 $4,000 6.0 SEDIMENT FOREBAY W/ TIMBER CHECK DAM 300 SQUARE FOOT $15.00 $4,500 7.0 SWALE EXCAVATION 350 CUBIC YARD $13.00 $4,550 8.0 LOAM & SEED FOR SWALES 350 SQUARE YARD $9.00 $3,150 9.0 GRADING AROUND STORMWATER FACILITIES 1 EACH $3,000.00 $3,000 10.0 REMOVAL OF EXISTING UNDERGROUND STRUCTURE 1 EACH $2,500.00 $2,500 11.0 EROSION/SEDIMENT CONTROL 1 LUMP SUM $2,500.00 $2,500 SUB TOTAL $100,350 ESTIMATED BID PRICE $ 101,000 Owner Contingency 30% $ 31,000 ESTIMATED CONSTRUCTION BUDGET $ 132,000 NOTES: CONTINGENCY IS PROVIDED BASED ON 75% DESIGN PLANS REFLECTING THE FACT THAT UNCERTAINTY EXISTS BETWEEN THIS STAGE AND CONSTRUCTION STAGE DRAWINGS. FINAL CONSTRUCTION ESTIMATES WILL BE DEPENDANT ON FACTORS RESOLVED AT THE CONSTRUCTION BIDDING STAGE. Prepared by: Horsley Witten Group, Inc. Page 1 of 1