UNIVERSITY OF WATERLOO | ARCHITECTURE + DESIGN | PORTFOLIO 2016
DEAR READER I am a fourth year University of Waterloo Architecture student from Oakville, Canada looking for work across Canada and abroad. I hope this portfolio gives you a glimpse of who I am and what I am capable of. Enjoy reading, and please feel free to contact me!
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RESUME lara.isaac@hotmail.ca www.larasophiaisaac.com
SOFTWARE LANGUAGES
KPMB ARCHITECTS
Toronto, Canada | Fall 2014, Winter 2016
TURNER FLEISCHER ARCHITECTS Toronto, Canada | Winter 2013 ATELIER CHANG London, England | Summer 2015 FREELANCE CELLIST GTA, Canada | 2010 - 2013
UNIVERSITY OF WATERLOO Cambridge, Canada | 2012 - Present T.A. BLAKELOCK HIGH SCHOOL Oakville, Canada | 2010 - 2012 ROYAL CONSERVATORY OF MUSIC Oakville, Canada | 2010 - 2012
SKILLS
AutoCAD, Revit, Rhino, Grasshopper, V-Ray, Maxwell, Autodesk Cloud, Sketchup, Photoshop, Illustrator, InDesign, Word, Powerpoint, Excel Fluent Native in Canadian English Proficient in French Beginner in Mandarin (spoken and written)
EMPLOYMENT
Family of Man Centre Design Competition Team Midsummer Theatre Design Competition Team Globe and Mail Interior Fit-Out SD and CD Team University Economics Building DD Team Theatre Renovation SD Team Site Planning Department LCBO Site Planning Team CanStruction Installation Design Team Parry Sound Rexall CD Team Skymind Site Planning Team Nepal Earthquake Emergency Competition Team iLight Marina Bay Design Competition Team Morton Mews Predesign & SD Team sESAme String Ensemble manager, and cellist Oakville Suzuki Association cello group teacher, cello private teacher, piano private teacher Oakville Symphony Orchestra, cellist, Young Artists’ Scholarship
EDUCATION
Fourth Year Candidate for Bachelor of Architecture, class of 2017, with President’s Scholarship. Recipient of International Experience Award, 2016 Recipient of Ontario Global Edge Award, 2015 Graduate with top 10 Academic Standing Award for Top Standing in Fine Arts Award for Top Standing in Technological Design Recipient of Associate of the Royal Conservatory of Toronto (ARCT) Diploma for Cello Performance, with First Class Honours. Graduate of the Taylor Academy for Young Artists with Performance Scholarship. 3
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LETTER OF REFERENCE
Atelier Chang 33 Marloes Road W8 6LG London United Kingdom
01 Sep 2015 Dear Whom It may Concern, Lara Jing Yen Isaac worked as an intern in Atelier Chang during May till end of July in 2015. She was supporting Skymind Resort Masterplan project, Minihouse housing scheme, and lead an independent competition project for Light installation called Dreamweaver and Earthquake Emergency in Nepal. Also she put together a planning application for a residential project London in Kensington and Chelsea borough. Throughout the internship, she carried out each project with high standard of design and responsibility. She absorbed and acquired new set of skills in no time in order to fully perform her creative design potential. Her keen interest in sustainability was also very helpful to our projects. We believe she will exceed your expectation whenever she ends up going. If you have any questions, please feel free to email us at info@atelierchang.com. Bests, Soohyun Chang
Principal of Atelier Chang
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CONTENTS
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10 FUTURE FISHERIES
34 ATELIER CHANG
3b research and design project
Projects from a London Work term
22 PERSONAL PROJECTS
38 KPMB ARCHITECTS
Library Competition, Community Centre Design
Projects from a Toronto Work Term
26 A CHAIR FOR ISAAC ASIMOV
44 THE PERFECT STORM
design-build project
a GIS driven research project
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FUTURE FISHERIES Team Tomas Masidlauskas, Lara Isaac | Software Rhino, Revit, Adobe Suite Fall 2015 3B ‘Newfoundland’ Studio directed by Lola Sheppard
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NEWFOUNDLAND AND GLOBAL AQUACULTURE
“Tell me what you eat and I will tell you what you are” - Jean Anthelme Brillat Savarin
The Future Fisheries project was inspired by researching Newfoundland’s 600 year history and culture of fishing. From seasonal fishing in the 1490’s, to settling around 1700, to the industrialized fishing boom in the 1880s, to the slow decline of fishing and cod moratorium of 1992, fishing has always been a cornerstone of Newfoundland’s economy and culture.
water bodies, has gained popularity in recent decades for its low environmental impact. Additionally, because of their carefully curated environments, these fish are often sought after for their superior taste and flown hundreds of miles to be fresh at high-end restaurants. Newfoundland’s pristine waters and short flight times to Montreal, Toronto, and New York put it in a unique position for supplying high end aquaculture. This project draws from Newfoundland’s fishing history and the rise of the global Aquaculture industry to bring economic activity back to Newfoundland and reconnect the island’s culture to the ocean.
As fishing slowly declined, the productivity and prevalence of aquaculture has increased. It has fundamentally changed the fishing industry, which now grows 40% of all fish produced. Modern Extensive Aquaculture, a “free range” practice where fish are grown in low densities in natural
The Growth of Global Aquaculture
History of Fishing Employment
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Map of Newfoundland cod grounds and fisheries
Time line of cod yields in Newfoundland
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Newfoundland Fishing and Culinary Institutions Culinary School Aquaculture Research Institution Fish Market Fish Aquaculture
MAPPING NEWFOUNDLAND & SITE SELECTION To pick a site we considered geography, weather, proximity to populations, and transportation. We chose the Avalon peninsula because it has the densest population and the major airport. We picked Placentia region because the west coast of the Avalon peninsula has less severe weather, does not get winter ice, and has a disused airstrip for future transportation. We picked the inlet of the neighbouring town Fox Harbour because it has less boat and car traffic than Placentia and has deep, protected bays.
Aquaculture in Newfoundland has gradually increased since the Cod Moratorium of 1992. It is primarily focused into a region of salmonid farming on the south coast and shellfish farming on the north coast. As the industry employs fewer and fewer people, it is being lost from the culture. Despite having many unique plants and traditional dishes, Newfoundland does not have much culinary identity outside of St. John’s. This project would catalyze both industries to create cultural and economic capital. 14
Avalon Peninsula Transport Hubs
Placentia Region Towns
Site Plan
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Lower Level Plan
Upper Level Plan
1. Restaurant 2. Kitchen 3. Cooking Classroom 4. Processing & Storage 5. Cafe 6. Library 7. Marina 8. Mussel Strings 9. Floating Docks
10. Offices 11. Lobby 12. Boardwalk 13. Parking 14. Labs 15. Decontamination 16. Hatchery 17. Loading 18. Bird Islands
1. Hatchery
2. Nursing
3. Free Maturation
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4. Harvesting
5. Mussel Farming (purifying filter feeders)
Aquaculture Process 16
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Scuba Section
Long section through scuba outpost, artemia tanks, marina, and restaurant
Cross Section through fish pens, bird islands, marina, lobby, and access dock
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Sectional Perspective through Aquaculture Wing: Tanks above and boat mooring below, with loading dock at end.
Sectional Perspective of Culinary Wing: The restaurant, kitchen, and classroom are the most public. Storage and offloading on the right serve these spaces, and offices are above.
Sectional Perspective Across: Outdoor fish pens and indoor incubation tanks on left. Docks beneath become outdoor deck along the lobby in the centre, and the restaurant on the right.
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Above: Building underside docks walk and mussel strings Below: Scuba area, walking docks, and bird island
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Above: Lobby, cafe and library Below: Restaurant and Patio
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AWR Competition 2014
BOOK CRYSTAL
New Copenhagen Library | Team Lydon Whittle & Will Fu | Sketchup, Adobe Suite
This design competition was a call to propose Copenhagen’s 21st library, a modern library for the 21st century. Our design is based on one core realization: In this technological age, information and knowledge has shifted almost entirely away from the analog format of books, and toward the digital format of computers.
Intelligence is not about personal knowledge and private archives, but about collaboration and participation. Therefore we proposed a digitally oriented sharing space full of digital hardware, in a space designed for visibility between floors. This idea produces shifting floor plates and views, and a faceted, crystaline geometry.
PUBLIC SPACES
The grand steps and provide outdoor sitting space and the accessible roof gives a city view unavailable in the surrounding area.
STRUCTURE
The huge cantilever is suspended by the large upper truss box supported by a network of slanted columns
CIRCULATION
The circulation is provided by gentle ramps which intensify into tight switchback stairs on the upper levels, approaching the accessible roof.
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Cambridge Community Centre
CAMBRIDGE COMMONS Independent | 2A Design Studio with Adrian Blackwell | Wood & Acrylic Model
This Community Centre was designed for a narrow 16m wide riverside side in Cambridge, Ontario. The primary challenges were to feature non age or income specific program, create internal relationships along a long and narrow building and negotiate a two metre berm along the side for flood control.
To integrate ages and incomes I placed a community greenhouse in the middle of the centre and garden plots along the berm. Long, gradual ramps were used to connect spaces along the building and the berm’s half levels. The model was built from plexi, wood and veneers in our school workshop.
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MANIFESTO “So the universe is not quite as you thought it was. You’d better rearrange your beliefs, then. Because you certainly can’t rearrange the universe.” -Isaac Asimov There is no up or down in space, where gravity holds no domain. What is right becomes left a moment later. Space is free, space is fun, space is fluid. Without orientation, we can see clearly , we gain versatility; we become truly unbiased and open to all angles and points of view.
Isaac Asimov was a master writer and prominent intellectual from the golden era of science fiction. His populist humanist outlook and epic world-building writing were the draws and inspiration for this chair. The Chair Project is a cornerstone design-build project of the Waterloo Architecture program. The goal is to create a chair inspired by a famous client and to complete a structural analysis of it. My partner Ilhan and I chose Isaac Asimov as our client for his inspirational writing and philosophy.
In the Asimov Chair, celestial geometry and movement symbolize the openness of humanism and the optimism of space. In Orbit Mode, it is a gyroscope that simulates the disorientation of space. In Spin Mode, it is a satellite and seating for many.
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Design, Build and Structural Analysis Project for Fall 2015 3B Chair Workshop taught by Elizabeth English
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Spindly Lunar Lander
Space Station from 2001: A Space Odyssey
Traditional Wooden Wagon Wheel Construction
Spun Chair by Thomas Heatherwick
DEVELOPMENT The greatest challenges were comfort and buildability. The Spun Chair dimensions and reference to wagon wheel building informed our construction methods. Use of four spokes enabled us to attach a flat seat. The chair’s best innovation is the use of an axle so the wheels can spin separately rather than together, allowing two “modes”, or types of motion: “orbiting” like the spun chair, and “spinning” like a satellite.
The Asimov chair was developed through many iterations of sketches, physical, and Rhinoceros models. We were primarily inspired by science fiction iconography from Asimov’s time, and our primary chair precedent was the Spun Chair by David Heatherwick. Lunar landers, real and fictitious satellites, and 2001: A Space Odyssey were all inspirations. From the first, we always explored circular, armchair-like designs.
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CNC Router Cutting
Laminating Axle Hub
Clamping & Laminating Wheel
Laminating Spindle
CONSTRUCTION All our flat pieces were built from laminations of standard 18.5mm plywood sheets, cut by the CNC router. These flat pieces were set together with clamps as needed to build the larger pieces. The wheels were built using traditional axle hub, spoke and wheel construction and use only mortise and tenon joints. The spinning axle is achieved using two steel tubes.
The biggest challenge was adjusting to the narrow tolerances of friction fits. Despite the use of the CNC, not all pieces fit perfectly and we had to adjust the pieces post-routing by sawing or sanding. The complete construction process involved 5 hours of CNC milling and about 120 hours in the shop using saws, hammers, sanders and many clamps..
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SPIN MODE
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ORBIT MODE
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Spin Mode
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Orbit Mode
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iLight Marina Bay entry June, 2015
Team Soohyun Chang, Lara Isaac | Software Rhino, Grasshopper, Maxwell
an interactive, safely illuminated landscape above. I independently found the competition and designed the entry with the guidance of Soohyun Chang. The symmetrical, tensile geometry targets a modular, lightweight, and affordable construction. The source and size of the whole and parts were carefully tailored to meet to festival’s budget.
The Dreamcatcher was proposed and designed over three weeks as an entry for the iLight Marina Bay 2016 Festival In Pursuit of Shadows. The goal of our design was to engage the public in manners beyond simply looking, and invite play. The web of subtle lights aimed to also create a canopy of stars, celebrating the tranquility of cosmic shadows for those beyond, and Stars
Web
Frame
Outdoor, weatherproof, solar powered fairy lights capitalize on Singapore’s high sun exposure, approximately 6 hours per day in March (the time of the festival). Attached to the underside of the web, the lights create a floating, indistinct cloud of stars, which describe the geometry of the mesh and the ring. Cost Est: 710USD 5/8” playground grade polyester cargo nets with steel cores are stretched between steel tension rings to create a flexible, slightly elastic, and gently curved topography for hanging the lights, and walking over. The net’s black colour melts into the night, accentuating the stars. Cost Est: 1650USD
Six 100mm circular steel tubes define the undulating hexagonal form. The bases of each column are bolted to the ground and the tops bolted to each other. The members are all straight and equal length with identical angles and identical connections for easy prefabrication and assembly. Cost Est.: 2260USD 34
Front Elevation
Plan
Side Elevation
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Residential SD Tender Application
MORTON MEWS
Team Soohyun Chang, Monika Byra, Lara Isaac | Software Rhino, CAD, Adobe Suite
Morton Mews is a London row house interior renovation. The clients were a young couple who anticipated children. The primary challenge was to create an open, bright, and family friendly space though we could not chang or expend the windows and frames. Our design approach worked from the client’s desire for ample storage and used millwork elements as “frames”
for spaces to create the illusion of grandeur and size, and connect the inhabitants by drawing attention to the action within spaces. My role included surveying the existing building to produce existing drawings, researching precedents, meeting the clients, and preparing the schematic layouts and tender application drawings.
Front Elevation
Long Section
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Rear Elevation
Option 2:
Option 1:
Basement
Ground Floor
Basement
Kitchen
Kitchen
Home Cinema
Home Cinema
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Ground Floor
Mixed Use Design Competition, Winning Entry
MCLEOD TRAIL CENTRE Team Bruce Kuwabara, Chris Couse, Gabriel Fain, Lara Isaac, Nick Jones, Ronnie Kataki Consultants Gibb’s Gage, Norm Li, Jack Syzmoniak | Software Revit, CAD, Adobe Suite
This project is the winning entry of a 6-week competition to design a mixed-use office, hotel, and condo, and retail complex. The main challenge of the project was to provide open space throughout the site to preserve the publicness of the existing park space. The possibilities of several connections to a network of second floor public spaces made this project unique.
The project team was directly led by Bruce Kuwabara and each team member was given design responsibility. My work included designing the condo and hotel drop-offs and lobbies and the hotel’s upper floor event space. I also helped build the Revit model and produce the plans, diagrams, renders and physical model for the submission.
Office Plaza
Acrylic Model
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Design Strategies
Public Spaces
Checkerboard
Locating Primary Building Uses
Ground Floor Animation
Parking Entrance Retail A
Lobby
Retail B
Condo Lobby Office
Office Plaza
Bar
Condo
Hotel Court Hotel
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Copyright is that of the Architect. Any version of this drawing reproduced by a means from any media without prior written approval of the Architect is to be read for information only. The Architect is not liable for any loss or distortion of information resulting from subs reproduction of the original drawing.
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GENERAL NOTES: 1. Drawings are not to be scaled. Contracto verify all existing conditions and dimensio required to perform the Work and will rep any discrepancies with the Contract Documents to the Architect before commencing work. 2. The Architectural Drawings are to be rea conjunction with all other Contract Docum including the Project Manuals and the Structural, Mechanical and Electrical Drawings. In cases of difference between Consultants' documents with respect to th quantity, sizes or scope of work, the grea shall apply. 3. Positions of exposed or finished Mechan or Electrical devices, fittings and fixtures indicated on the Architectural Drawings. Locations shown on the Architectural Drawings shall govern over Mechanical a Electrical Drawings. Mechanical and Elec items not clearly located will be located a directed by the Architect. 4. Dimensions indicated are taken between faces of finished surfaces unless otherwis noted. 5. The architect has not been retained for supervision of construction and assumes responsibility for means, methods and techniques of construction. 6. These documents are not to be used for construction unless specifically noted for purpose.
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This project is an interior fit out for the Globe and Mail’s new offices in their new building. The project covers four floors and includes meeting rooms, recording studios, and event spaces for a staff of highly variable size. Due to the base building’s jogging perimetre, every floor was unique.
My role included rendering, managing schedules, and specifying materials, and extensive drawing and updating detail sections and elevations in Revit for the first CD deadline. One of my particular responsibilities was drawing millwork details for the Event Space storage and bar area, shown here. CAP1 4863
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Copyright is that of the Architect. Any version of this drawing reproduced by a means from any media without prior written approval of the Architect is to be read for information only. The Architect is not liable for any loss or distortion of information resulting from subs reproduction of the original drawing.
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Lakeside Front
Theatre
Side Garden
Theatre and Education Complex Design Competition
MIDSUMMER THEATRE Team Bruce Kuwabara, Chris Couse, Lara Isaac, Clementine Chang, Nick Jones, Jonathan Miura Landscape Consultants Micheal Van Valkenburg | Renders Adrian Pfeiffer, Norm Li
This centre is a re-imagining of an existing theatre. The design aims to preserve an intimate and countryside feel while expanding the program for public and educational use. The primary moves of the design were to separate the building into pavilions and allow views through the side and reflect the sinuous geometry
of the lakeshore in the porch, buildings, and landscape. The competition lasted seven weeks and directly involved two partners and a principal. My role involved developing the massing through digital model and render views, designing elevations and plans, and producing presentation sections and diagrams.
Cross Section through Theatre
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Aerial View
Long Section through Theatre
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STORMS AND SEWERS An ARCGIS Research Project investigating of Toronto’s water systems Winter 2015 Research Elective with Mona El-Khafif | Team Lara Isaac, Teresa Tran
Toronto’s Storm of a Century: July 8, 2013 This project uses GIS (Geogrpahic Information Systems) to show how weak points of Toronto’s storm and sewer systems converge to create the conditions for the “perfect storm” of flood conditions. The problem Toronto is facing is caused by confluence of many features that can be mapped, including topography, control features, insufficient plant capacity, high population density, and high impermeable ground area.
On July 8, 2013, about 9 billion litres of water fell on Toronto, and caused over 3800 basement floods city wide and billions in property damage. Such catastrophic storms have and will become more frequent as climate changes, and mitigation requires careful research and design. To understand these catastrophes, both the natural and man-made inputs must be studied. Storm events produce extreme volumes of water and put enormous short-term pressure on storm water infrastructure, forcing overflow to be bypassed into natural water bodies and watersheds. Because of Downtown Toronto’s archaic combined sewer system, many bypasses include raw sewage, which is dumped directly into Lake Ontario. This causes widespread ecological and health concerns and decreases the lake’s ability to filter out toxic chemicals.
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150 L/DAY
200 L/DAY
ce
Fr
an
250 L/DAY
en
Sw
ed
ly
343 L/DAY
Ca
US A
PLANT CAPACITY
Ita
BYPASS
1 litre of water
da
1m²
1 mm of rainfall over 1 square metre
WASTE PRODUCTION
383 LITRES/DAY
BYPASSES
na
THE RAINWATER EQUATION
Our project is inspired by the growing acknowledgment both in the press and in academia, that flooding is becoming a primary concern for landscape architects, urban planners, and architects, whom can minimize the impact of flooding through design. Through research we identify our problem, identify the site of greatest concern, explore control options, and propose a design solution.
Water Processing
Average Daily Domomestic Water Use (per capita) Producing Grey or Black water
FLOODING OF JULY 8TH, 2013
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NATURAL WATER SYSTEMS The Greater Toronto Area watershed encompasses all of Toronto and is broken into smaller watersheds corresponding to the major rivers. The natural aspect of catastrophic flooding can be understood in terms of rainfall, flooding control, and infiltration capacity. A mapping exercise reveals that more control structures exist farther up river than in the city. Fortunately, these areas have low percent impermeable ground, which means infiltration capacity is high. By examining maps of the regions’ rivers and topography, we can see how gravity diverts many small rivers and large rainfall areas into the main rivers. WATERSHEDS
Sewer System
GREATER TORONTO WATERSHED AREA
Green Areas
5km
10km
50km
Watershed Boundary River
TORONTO COMBINED WATERSHEDS DATA /Toronto Watersheds /Forest and Wetland Cover: 24.5% /Intact Natural Cover: 25% /Population: 7,000,000 /Ecological value/Hectare: $2,000 - $3,000 /Lake Ontario Volume: 1,640 km³
DON RIVER WATERSHED Natural Waterways
steeles avenue
905 Region (unknown)
DON RIVER WATERSHED
highway 401
5km 10km
Separated Sewer Area
50km
Stormwater Management Ponds Retention Ponds Flood Control Structures
Don River Watershed Data /Area 358 km² /Mean Stream Flow (mouth) 4.0 m3/sec /Population (2011) 1,211,350 /Surface Water Quality Grade: F Every millimeter of rainfall contributes 358,000,000 L of water to the Don River Watershed
Combined Sewer Area
Watersheds
HUMBER RIVER WATERSHED 905 Region (unknown)
steeles avenue
HUMBER RIVER WATERSHED 5km 10km
Topography
50km
Humber River Watershed
highway 404
Stormwater Management Ponds
HUMBER RIVER WATERHSED DATA Separated Sewer Area
Combined Sewer Area
/Area 911 km² /Mean Stream Flow (mouth) 6.8 m3/sec /Population (2011) 856,200 /Surface Water Quality Grade: C Every millimeter of rainfall contributes 911,000,000 L of water to the Humber River Watershed
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TORONTO REGION WATERSHEDS Floodplains, natural cover, watercourses, flood control structures
GROUNDCOVER BY REGION Building Footprints
25%
Paved Sidewalks
impermeable ground
Paved Roads
Paved Parcels
75%
TORONTO’S WATERSHEDS
Rivers and Waterbodies
green areas
Designated Parks
THE WATERSHEDS OF TORONTO are the areas around Toronto, which drain through Toronto’s main rivers and down into the lake. These regions, covering about 11,400km2, contains over 3,600km of rivers and watercourses, and 1,440km2 of designated parks. The Municipalities of Vaughn, Richmond Hill, Markham, Gormley, and Pickering.
FLOODPLAINS NATURAL COVERAGE DESIGNATED PARK SPACES COMBINED SEWER NEIGHBOURHOODS
Rivers and Waterbodies Designated Parks
WATERSHED BOUNDARIES
60%
Building Footprints
WATERCOURSES
impermeable ground TORONTO’S COMBINED SEWER SYSTEM AREA
40% unpaved
Paved Sidewalks
Paved Roads Paved Parcels
GTA PAVING: 43%
STORM
FLOOD CONTROL STRUCTURES
"
AND
HUMBER RIVER WATERSHEDS HUMBER RIVER PONDS
TORONTO’S COMBINED SEWER SYSTEM REGION has an area of 143 km2 or about 22.6% of Toronto’s total area. It is the only system which serves Toronto’s downtown area. This region contains Toronto’s densest wards and is home to 1,525,000 people. 11km2 of this region is paved parcels, 24.3km2 is paved roads as is about 16km2 paved sidewalks. Buildings represent about 32.2km2 of the total land area. In total about 58.3% of the land area within Toronto’s combined sewer system area is impermeable. Of the remaining 58km2 of land, 18km2, or about 12.5% is designated park space. There are 97km of rivers and watercourses. The people in this area generate about 660,000,000L of wastewater every day. Every mm of rainfall in this area generates about 166,000,000L of stormwater per mm of rainfall. The combined capacity of the sewage plants which serve this area is 852,000,000L
DON RIVER WATERSHEDS DON RIVER PONDS MUNICIPAL PONDS/STREAMS
RAINFALL SEVERITY
FLOOD CONTROL STRUCTURES OVERFLOW
Rivers and Waterbodies Designated Parks
Building Footprints
43% impermeable ground
July 8, 2013: 126.0mm
Paved Sidewalks
THE CITY OF TORONTO
57% unpaved Paved Roads
Paved Parcels
OVERFLOW
THE CITY OF TORONTO has an area of 632 km2. It is served in part by a combined storm and sewer system, and in part by a combined storm and sewer system. The total population is about 2,503,000 people. Unused paved parcels represent 74km2 of Toronto’s surface area. About 72.2km2 is paved road, 48.2km2 is paved sidewalk, and 99km2 of Toronto’s ground area is covered by building footprints. About 43% of Toronto’s total area is impermeable. Designated parks represent about 71km2, or about 11.2% of Toronto’s ground area. The people of Toronto produce about 1,078,793,000 of wastewater every day. The combined capacity of all the sewage plants serving Toronto is conservatively estimated to be about 1,650,000,000L.
Rest of 2013: 809.5mm
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INLET
INLET
OUTLET
RETENTION POND
DETENTION POND
A landscape feature that always contains water and has the capacity to handle excess rainwater. Often used to separate out sediments over long periods of time.
A dry landscape feature that has public use and can capture rainwater. They are designed to close access to sewers when necessary, and reopen after the rain.
ARTIFICIAL WATER SYSTEMS Toronto is served by four main sewage plants and divided into four sewer sheds. Through GIS mapping, we can see that the heart of the problem is that most of Toronto’s downtown core is served by an archaic Combined Storm and Sewer system. In addition to having low elevation and collecting rain water, the downtown also hasSEWAGE high paved surface area so little water is absorbed naturally, and SHEDS a high population density generating sewage. Water System
5km
10km
50km
Watershed Boundary
SEWAGE TRUNKS WATERMAINS
Sewer System
NORTH TORONTO 34,000,000 L
/opened in 1929 /27-hectare site /initial user of biological activated sludge process
Combined Sewer Area
HIGHLAND CREEK 219,000,000 L
/began operation in 1956 /59-hectare site /was upgraded from 18,000,000 L /operates 24/7
Paved Areas
HUMBER 473,000,000 L
/began operating in 1960 /45.3-hectare site /starting capacity was 227,000,000 L /serves Etobicoke, York... /operates 24/7
Water Shed
ASHBRIDGES BAY 818,000,00 L
/built in 1910 /40.5-hectare site /formerly called “main treatment plant” /primary digesters processing raw and activated sludge /operates 24/7
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DOWNTOWN TORONTO SEWER SYSTEM Treatment Plants, Water Systems, Sewer Systems, and Paved Areas
PAVED AREAS TORONTO MUNICIPALITY COMBINED SEWER NEIGHBOURHOODS WATERMAIN
GROUNDCOVER BY REGION
SEWER TRUNKS COMBINED SEWER TRUNKS
Building Footprints Paved Sidewalks
DRAINAGE BASINS
25%
" "
impermeable ground
WATER TREATMENT PLANTS SEWAGE TREATMENT PLANTS
Paved Roads
Paved Parcels
75%
TORONTO’S WATERSHEDS
Rivers and Waterbodies
green areas
Designated Parks
CITY OF TORONTO REGION GROUNDCOVER PAVING:BY 25% Building Footprints Paved Sidewalks
DOWNTOWN TORONTO PAVING: 60%
Paved Parcels
75%
Designated Parks Building Footprints
Designated Parks
TORONTO’S COMBINED SEWER SYSTEM AREA Paved Sidewalks
Paved Parcels
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60% impermeable ground
Rivers and Waterbodies
STORM
AND
TORONTO’S COMBINED SEWER SYSTEM REGION has an area of 143 km2 or about 22.6% of Toronto’s total area. It is the only system which serves Toronto’s downtown area. This region contains Toronto’s densest wards and is home to 1,525,000 people. 11km2 of this region is paved parcels, 24.3km2 is paved roads as is about 16km2 paved sidewalks. Buildings represent about 32.2km2 of the total land area. In total about 58.3% of the land area within Toronto’s combined sewer system area is impermeable. Of the remaining 58km2 of land, 18km2, or about 12.5% is designated park space. There are 97km of rivers and watercourses. The people in this area generate about 660,000,000L of wastewater every day. Every mm of rainfall in this area generates about 166,000,000L of stormwater per mm of rainfall. The combined capacity of the sewage plants which serve this area is 852,000,000L
10% Runoff to Sewers
50% Infiltration
Rivers and Waterbodies
Building Footprints
30% Evapotranspiration
60%
40%
THE WATERSHEDS OF TORONTO are the areas around unpaved Toronto, which drain through Toronto’s main rivers and down into the lake. These regions, covering about 11,400km2, contains over 3,600km of rivers and watercourses, and 1,440km2 of designated parks. The Municipalities of Vaughn, Richmond Hill, Markham, Gormley, and Pickering. Paved Roads
Designated Parks
40% Evapotranspiration
+75% IMPERMABLE GROUND
impermeable ground
TORONTO’S WATERSHEDS
Rivers and Waterbodies
PERMEABLE GROUND
Rivers and Waterbodies
25% impermeable ground
Paved Roads
green areas
THE WATERSHEDS OF TORONTO are the areas around Toronto, which drain through Toronto’s main rivers and down into the lake. These regions, covering about 11,400km2, contains over 3,600km of rivers and watercourses, and 1,440km2 of designated parks. The Municipalities of Vaughn, Richmond Hill, Markham, Gormley, and Pickering.
55% Runoff to Sewers 15% Infiltration
REVITALIZATION OF THE CONCRETE JUNGLE COMBINED SEWER AERIAL
Analyzing smaller areas within the highly paved downtown allowed us to look at ground cover carefully and identify Low Capacity Area sites for our intervention. Because these spaces are small and already developed, we proposed small scale flood mitigation that can reduce the volumes of runoff and severity of floods, and be introduced immediately and gradually.
Bioswales are a small scale, dispersed flood mitigation method that can be implemented carefully throughout already developed areas with little disruption and reduce flood damage across a co-ordinated system. These small scale design interventions both protect the city and improve the streetscapes.
COMPARE SECTIONS PERMEABLE SURFACES: HIGH CAPACITY AREAS Majority of permeable surfaces include: 1 Street side Tree Planting Grates 2 Landscaped Property Space (Lawns/Yards) 3 Park Spaces
MAP OF GREENERY
DOWNTOWN CORE
IMPERMEABLE SURFACES: LOW CAPACITY AREAS Majority of impermeable surfaces include: 1 Parking lots
MAP OF PAVING
FINANCIAL DISTRICT
2 Street paving 3 Sidewalks 4 Building roof tops
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TYPICAL BIOSWALE: SIDEWALK AND ROAD
DOUBLE BIOSWALE: WITHIN SIDEWALK
PRECIPITATION
PRECIPITATION
DRAINAGE BASIN
DRAINAGE BASIN BIOSWALE
STREET RUNOFF RUNOFF WATER
INLET
BIOSWALE DRAINAGE
BIOSWALE DRAINAGE
IMPLEMENTING GREEN ROOFS
Buildings take up a majority of the city surface in dense areas. Green roofs are not visible from street level. However, through aerial photos, the buildings appear to blend in with the street paving. Taking advantage of this surface areas captures rain water before it reaches the street level.
IMPLEMENTING BIOSWALES
Storm water run-off typically falls to the street and drains to the sewage systems adjacent to the sidewalk curbs. By creating bioswales along the sidewalks, the run-off is captured and stored until it has time to evaporate. This reduces the pressure on the artificial systems so they have the capacity to carry black water versus rain water.
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Thanks for reading! lara.isaac@hotmail.ca lsisaac@uwaterloo.ca
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