San Antonio Low Impact. Development

Similar documents
Paraprofessional Training Session 1

A Role for Dispersed Groundwater Recharge Systems to Balance the Effects of Hydromodification

E nvi r o nm e nt a l Paving Solu tion s

Proposed Sustainability Plan Changes Document

LEED Credits. How FieldTurf Can Contribute To Obtaining

Low Impact Development USING LID TO SOLVE YOUR ERP, TMDL, NPDES, NNC (AND OTHER) PROBLEMS

MODEL STORMWATER MANAGEMENT GUIDELINES FOR INFRASTRUCTURE NEW DEVELOPMENT AND REDEVELOPMENT

TORONTO GREEN STANDARD v3

MODEL STORMWATER MANAGEMENT GUIDELINES FOR ULTRA-URBAN REDEVELOPMENT

Frugal Smart Solutions for Pan City Development

CHAPTER 7: guidance. categories: Pollutant Removal. Jordan Lake watershed) Cisterns. Bioretention Areas. Green Roofs. Dry. Proprietary Devices

LOW IMPACT DEVELOPMENT ( LID ) STANDARDS

low impact development demonstration project

A Case for the Design and Modeling of BMP Infiltration and LID Techniques. By: Bob Murdock

Decatur, Georgia Stormwater Management Policy Guidelines. DRAFT November 5, 2014

DoD Storm Water Policy

Lesson 37: Low-Impact Urban Development

and Green Infrastructure

Hydrology for Drainage Design. Design Considerations Use appropriate design tools for the job at hand:

June 27, 2012 Holly Galavotti U.S. EPA

ENGINEERED SOLUTIONS. low impact development application guide

Section 1 - Introduction

Introduction to Sustainable Infrastructure

Water Supply and Delivery

Rainfall, runoff and sediment transport in the Napa River watershed: now and a possible future

Planning for Resilient Cities: Climate Adaptation and Surface Water Plans

The MASMA and Sustainable Drainage Systems

Implementing Stormwater Management through Split-Flow Drainage Design

Design Example Residential Subdivision

Shirley E. Clark, Ph.D., P.E. October 5, /30/2012

Background / Regulatory Requirements

Mike Mitchell U.S. EPA Region 4

15A NCAC 02H.1005 STORMWATER REQUIREMENTS: COASTAL COUNTIES

Sustainable Design Plan

Nonpoint Source Storm Water Management Plan

Post-Development Stormwater Runoff Performance Standards

10/16/2013. The Big Picture of LID and Green Infrastructure. Learning Objectives

The Evolution of Stormwater and Rainwater Harvesting in Minnesota. The Minnesota Stormwater Manual Updates and Examples

BEE BRANCH WATERSHED GREEN INFRASTRUCTURE SUMMARY

Class V Well Definition

City of Langford Rainwater Management

Water Balance Methodology

Regulatory Perspective: Case for Gray and Green Infrastructure

STORMWATER MANAGEMENT AND IMPAIRED WATERS. Eric H. Livingston Watershed Management Services, LLC Crawfordville, FL

Matt Lundsted Principal Comprehensive Environmental Inc.

Pennsylvania Stormwater Best Management Practices Manual. Chapter 3. Stormwater Management Principles and Recommended Control Guidelines

Pervious Concrete and Construction

Suggested Stormwater Management Practices For Individual House Lots

Permeable Interlocking Concrete Pavements

Planning Considerations for Stormwater Management in Alberta. R. D. (Rick) Carnduff, M. Eng., P. Eng. February 20, 2013.

Texas Nonpoint Source Pollution Program Grant Cycle

Sizing Calculations and Design Considerations for LID Treatment Measures

WELCOME. Eastern Subwatersheds Stormwater Management Retrofit Study. Online Information Session

Best Management Practices for Stormwater Quality Treatment in Urban Settings. Lower Mississippi River WMO September 2017

CENTRAL COAST POST-CONSTRUCTION REQUIREMENTS IMPLEMENTATION GUIDANCE SERIES 1

Chapter 6. Hydrology. 6.0 Introduction. 6.1 Design Rainfall

Water Resources Management Plan

Webinar Overview. Presenter: Moderator: Length of Webinar: (1) hour Questions: For More Information or Comments: Amanda Ludlow Principal Scientist

Tier 2 Tier 3 Tier 4

Effectiveness of Non-Structural Measures in Watershed Restoration

New Orleans Stormwater Regulations and Green Infrastructure Toolkit

ORDINANCE # 854. Stormwater Management / Operation and Maintenance Requirements

Sustainable Water Resource Practices

Capturing Storm Water in Semi-arid Climate

LID Practices in Urban Areas Example Projects and Opportunities in Redevelopment

Pinellas County Stormwater Management Manual Training Workshop SMALL COMMERCIAL AREA CASE STUDY

Concurrent Session B: LID Design Specifications (Chapter 4 in Draft Manual)

IBS Site Drainage: Senior Design Project

Federal Net Zero Design-Energy, Water, and Waste. Net Zero Water. Kate McMordie Stoughton Pacific Northwest National Laboratory August 16, 2017

Scientific overview: Water quality functions of coastal buffers

Rosslyn Sector Plan Status Update. Environment and Energy Conservation Commission Meeting May 18, 2015

Latest MWELO Updates + Storm Water Requirements Kliffs Notes New Storm Water Permit and BMP Design Manual: Impacts on Future Development Presented

Hydrologic Assessment of LID Honda Campus, Markham, ON

EBL&S Development Station Park Green Preliminary Stormwater Quality Management Strategy REV 1

Appendix A. Compliance Calculator Guidance

or

Draft Plan for Carolina North Campus University of North Carolina at Chapel Hill Public Meeting August 28, 2007

Preliminary Stormwater Quality Mitigation Report

City of Texarkana, Arkansas. Storm Water Pollution

PERMECAPTURE DETENTION / RETENTION. The Smart Stormwater Management Solution. S ustainable B y D esign

Sustainable Stormwater Management for Compliance with the Energy Independence and Security Act of Section 438 Session 8015

Review of State and Federal Stormwater Regulations November 2007

Impacts From Development

Site Design Checklist and LID Calculations Worksheet. Draft Revision December 2004

WELCOME. Eastern Subwatersheds Stormwater Management Retrofit Study. Online Information Session #2 June 15 to July 13, 2018

City of San Diego Low Impact Development Design Manual

Stormwater Infiltration using Dry Wells as a Low Impact Development (LID) Tool

WEST WINDSOR TOWNSHIP GREEN DEVELOPMENT PRACTICES CHECKLIST

Conservation Design Approach for New Development

FORT COLLINS STORMWATER CRITERIA MANUAL Hydrology Standards (Ch. 5) 1.0 Overview

Low Impact Development (LID) Implementation and Site Development of NAVFAC Projects

100-yr Design Runoff (cfs) Basin ID 103b A a B B C Totals

Buffer Zone = Area of Undisturbed Vegetation

CENTRALIZED BMPS TYPICALLY PUBLICLY OWNED & MAINTAINED BMPS, TREATING A LARGE (>20 ACRES) URBAN DRAINAGE WITH MULTIPLE LAND

LEED-2009 Green Building Rating System. New Construction & Major Renovations

Water Resources Management Plan Appendix B

c h a p t e r 4 d e s i g n e x a m p l e s f o r s a n m a t e o c o u n t y A typical residential street intersection

Promoting Sustainable Building and Development

Appendix A Stormwater Site Plan Report Short Form

and Green Infrastructure

Transcription:

San Antonio Low Impact Our objective is to provide a redevelopment catalyst for the Kelly Center Property, the heart of Port San Antonio. The Billy Mitchell Village redevelopment is to drive inspirational and sustainable approaches and solutions for future redevelopment of the Port. Development

DEVELOPMENT CONCEPT

DEVELOPMENT CONCEPT

OPEN SPACE Sustainable Benefit Parks develop a sense of community Reduces pollutants Recreational facilities = increased property value. Residents feel safer. open spaces = more infiltration and filtration of runoff No urban heat effect

Description Addition of over 125,000 square feet of Retail/Office 82,900 sf Retail 44,800 sf Retail/Service Office Increased number of residential units by 164 (538 Total) 458 Flats 16 Live over Work Units 64 Townhomes LID and Billy Mitchell Village Hydrological Impacts/Benefits Existing (undeveloped) Developed Team 21825 Total Site Area (ac) 53.62 53.62 Sustainable Benefit Additional residential units increases demand for retail and services Retail and Office users also bring outside revenue into the community Added users adds more vitality to the area Impervious Cover Total Site 0% 59% Composite Curve Number (CN) 74 Without LID control 88.5 With LID controls 73 Storage available onsite (inches) 3.51 Without LID control 1.18 With LID controls 3.75 Rainfall - 100 yr (in) 10 10.00 Runoff Volume 6.49 6.25 Runoff Volume increase (-reduction) -0.24 Volume (ac-ft) 1.1 Percent Capture of 85% Storm 100% Water Quality No Structures - Just Vegetation LID "treatment train" - Superior TSS (% Removal Range) 60 95+ Dissolved (N and P) (% Removal Range) 20 60 Oil and Grease (% Removal Range) 5 90

LOW IMPACT DEVELOPMENT LID remediates polluted runoff through a network of treatment landscapes, with distributed redundant, and resilient properties. Our solution is to develop a stormwater infrastructure that is planned to deliver valuable ecological benefits to botanize the Billy Mitchell Village. Rainwater collection Bioswales and rain gardens offer a natural process of water filtration. These techniques allow water to flow through vegetation and meander down the treatment train allowing pollutants to be extracted from the water and caught by the various obstacles before it seeps back into the ground. In lieu of traditional end of pipe techniques, a kit of parts that includes but not limited to: Rain-gardens/Bio-filtration Wet Vaults Permeable Friction Course Pavement Vegetative Swales Rainwater Harvesting

LOW IMPACT DEVELOPMENT In lieu of traditional end of pipe techniques, a kit of parts.

LOW IMPACT DEVELOPMENT Description LID is an ecologicallybased stormwater management approach favoring soft engineering to manage rainfall on site with integrated landscaping. LID maintains predevelopment hydrology by using techniques that infiltrate, filter, store and evaporate stormwater runoff close to its source. Sustainable Benefit increased pollutant removal enhanced recharge enhanced aesthetics safety from hydroplaning flood attenuation improved water quality habitat re-establishment reduced long-term maintenance extended base flow reduced potable water requirements for irrigation reuse existing road materials Cost/Benefit Cost Conventional development and LID are comparable in overall costs. Benefit Total benefit LID features are smaller footprint features that are more flexible in position with treatment resulting in water quality improvements greater than single purpose treatment pond. Environmental address water quality at source decrease velocity reduce upland habitat impacts reduce downstream erosion improve groundwater recharge improve aquatic habitat reduced runoff volumes less pollutant loadings downstream extended base flow Social improve site aesthetics enhance public awareness expanded recreational opportunities Economic reuse existing road materials reduced long-term maintenance increased property values reduce potable water requirements for irrigation

CONSTRUCTION METHODS AND MATERIALS Description We propose the project utilize the following methods and materials to reach sustainable goals: Recycle Existing Materials on the Project Salvage Existing Materials for Reuse Minimize Construction Debris Zero Waste to the Landfill LID Stormwater Infiltration Precast Concrete Incorporate roundabouts LED Signals and Streetlights Renewable Energy Low Maintenance Landscaping Sustainable Benefit Reduced consumption of natural resources, energy consumption, emissions and water use Less erosion Recycles waste and construction demolition Promotes on-site renewable energy Cost/Benefit Cost Lower shipping cost. Less landfill costs. Reuse of material reduces costs for new materials. Benefit LEED certification Improves productivity and health Less energy consumption therefore less energy production costs

UTILIZING EXISTING URBAN FRAMEWORK Saves Money and Time Flexible Phasing options

RE-DEFINED RIGHT OF WAY ELEMENTS Green Streets help decentralize storm water collection. Permeable pavement allows for capture of water at the source.

RETAIL DEVELOPMENT

MULTI-MODAL SYSTEMS Sustainable Benefit Economic Development Decreases Traffic Congestion Reduces Sprawl Sustainable Benefit Households that use public transportation save more than $10k / year. Households near public transit drive an average of 4,400 fewer miles, thus saving 223 gal/year per household.

NEW TRANSIT AND PARK & RIDE Description The Transit and Park & Ride facility provides for reuse of existing tracks located within Billy Mitchell Blvd. allowing for trolley car to connect the entire Port along with possible future connection to the Lone Star Rail station. Billy Mitchell Village Sustainable Benefit Reduced air pollution Less vehicles = less congestion Reduced parking needs Walkable communities Increases densities Adds economic vitality Benefit Increased Safety Improved mobility for economically disadvantaged Improved access to education and jobs Promotes cluster development Enhances community cohesion Reduces costs of public services Increased commerce and property values

PHASE ABILITY

COST ANALYSIS Conventional L.I.D. Storm Drainage 25% Architecture 15% Landscape 15% Hardscape 30% Storm Drainage 10% Architecture 15% Site Elements 15% Landscape 40% Site Elements 15% Hardscape 20%

A new... Billy Mitchell Village Why We propose that the Billy Mitchell Village project utilize the following methods and materials to reach sustainable goals: Environmentally and Ecologically Sound Sustainable Meets mobility requirements Embraces the community Mobility + Access = Land Use Efficiency Enhances property values Improves community image Encourages new and future LID Improved access Improvements Context sensitive solutions Low impact development improvements Decrease in impervious cover Improved water quality and environment Community open space and connectivity Multi-modal transportation opportunities Improved traffic movement Increase of 164 residential units Addition of over 125,000 sf of retail space Enhanced Value Adds economic vitality Protects and adds trees Improves water and air quality Reduces impervious footprint Improved storm water management and treatment Improved mobility and property access Connects the community Socially Culturally Economically Contextually

Thank You! Images contained within this presentation were derived from personal photography and drawing from team members, company stock photography and the following websites: http://statebystategardening.com/state.php/in/articles/gardening_up_high/ ; http://picasaweb.google.com/103475418168864451709/greengraphics#5447104466131475602; http://blog.staygreen.com/awesome-feedback-on-valencia-town-center-landscaping; http://mediacache.homeimprovementpages.com.au/creative/galleries/445001_450000/445361/origina l_images/247043.jpg; http://mw2.google.com/mw-panoramio/photos/medium/1129527.jpg ; http://www.flickr.com/photos/thomasngo/226830896/ ; http://www.flickr.com/photos/stevenm_61/5087631016/ ; http://farm9.staticflickr.com/8287/7874485454_a6de42af34.jpg ; http://www.sustainablesites.org/medium/20120906110912.jpg ; http://theparkitproject.files.wordpress.com/2012/04/bioswale2.jpg ; http://www.santabarbaraca.gov/resident/community/creeks/what_we_can_do.htm ; http://www.apartmentninjas.com/wpcontent/uploads/2010/01/boardwalk-at-town-centerapartments-exterior-creek-view.png ; http://nl.penninckx.org/images/toiture_horeca_1.jpg ; http://www.greenroofs.com/projects/atl/atl1.jpg ; http://www.deeproot.com/blog/wp-content/uploads/stories/2012/10/green-roof-chesbay.jpg ; http://powertuningegypt.com/led%20parking%20light%20with%20sharp%20cut-off%20angles.jpg ; http://www.otak.com/images/imagebank/thumbnail%20stories/lid_salem.jpg ; http://3.bp.blogspot.com/_nfcgzzhwvzw/ts12ujezowi/aaaaaaaaafe/3v6we9865ko/s1600/mean der_lg%2b%2528crown%2bstreet%252c%2bvancouver%2529.jpg ; http://nationalsolar.blogspot.com/2010/04/national-solar-visits-solon-plant.html; http://email.asce.org/ewri/images/clip_image002_017.jpg ; http://www.pavestone.com/blog/paving-with-eco-priora-permeable-pavers-at-peterson-air-force-basein-colorado ; http://www.asla.org/2012awards/183.html ; http://www.greengaragedetroit.com/index.php?title=image:permeable-paver-installation.jpg ; http://v3.arkitera.com/spotlight.php?action=displayspotlight&id=70&year=&aid=903&o=900 ; http://www.kanapipeline.com/images/rain-tank-system.jpg ; http://jardin-alternatif.overblog.com/categorie-10355458.html ; http://negrowhite.net/uploads/2013/03/green-roof-layers2-e1325704132109.jpg ; http://www.epa.gov/brownfields/tools/cdbrochure.pdf