Philippe Fournier_Portfolio_2024
Portfolio, Philippe Fournier, 2024. A selection of personal, academic and professional projects in architecture & design. All rights reserved.
Portfolio, Philippe Fournier, 2024. A selection of personal, academic and professional projects in architecture & design. All rights reserved.
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<strong>Philippe</strong> <strong>Fournier</strong><br />
Selected Works <strong>2024</strong>
Hello,<br />
My name is <strong>Philippe</strong> <strong>Fournier</strong> and I am an aspiring architect,<br />
freelance designer, illustrator, book worm and guitarist. I hold<br />
a Master of Architecture degree from McGill University and a<br />
Bachelor of Architectural Studies degree from the Univeristy<br />
of Waterloo.<br />
I love architecture that solves problems, and strongly believe<br />
that architects have the responsibility to effect positive change<br />
in the world. Good design is not just about pleasing the<br />
eyes, but also about ensuring the societal and environmental<br />
impacts of our work are beneficial to all who live with our<br />
creations. Buildings represent such a massive allocation of<br />
materials, energy, labor and finances, and hold such a large<br />
physical and psychological presence in peoples’ day-today<br />
lives, that every project is an ethical statement. I aspire<br />
to create architecture that respects human needs, place,<br />
economy and sustainability at every step. The architect, like<br />
an alchemist, turns raw materials into gold.<br />
I am also a passionate advocate for affordable housing,<br />
and my master’s thesis focused on the design of multiplex<br />
housing in light of ongoing zoning reforms across North<br />
America to legalize multifamily homes. In 2022 co-won the<br />
inaugural Jack Layton Essay Prize for a Better Canada for an<br />
essay recommending public policy solutions for Canada’s<br />
housing crisis. My interest in this also led me to win the<br />
Arthur Erickson Travel Study Award in 2022, which I used to<br />
visit the Netherlands to study its multifamily housing stock<br />
and compact urbanism.<br />
I try to live the life of an audodidact always in search of his<br />
next lesson. Design and architecture are juggling acts that<br />
will always have something new to teach me. They keep me<br />
on my toes and keeps me moving forward, and I love every<br />
minute of it. I also believe good design should speak for<br />
itself, so I hope my work has something positive to say to<br />
you. Enjoy!<br />
+1 905-347-2346<br />
philippe.r.fournier@gmail.com<br />
https://ca.linkedin.com/in/philippefournier1<br />
637 Grandview Rd, Apt. B, Fort Erie, Canada<br />
L2A 4V2<br />
English (fluent) + French (intermediate)<br />
Master of Architecture<br />
McGill University, Peter Guo-Hua Fu School of<br />
Architecture<br />
Bachelor of Architectural Studies<br />
University of Waterloo, School of Architecture<br />
© <strong>Philippe</strong> <strong>Fournier</strong> <strong>2024</strong><br />
All copyrights for images and drawings provided by<br />
my employers are property of their respective owners<br />
where credited. All materials therein are from projects<br />
I worked on while I was working co-op terms at the<br />
respective offices and were provided by, and are the<br />
exclusive property of, said offices. I thank them for<br />
their support.<br />
2
Table of Contents<br />
The New Plex<br />
Final graduate project proposing multiplex home prototypes<br />
Amphibious Prototype<br />
A flood-resilient amphibious architecture prototype for the National Research Council of Canada<br />
4<br />
6<br />
The A.A.R.C.<br />
A facility to help coastal farmers adapt to climate change in Sainte-Flavie, Quebec<br />
8<br />
Montreal Holocaust Memorial Museum<br />
Museum proposal for the Azraeli Global Studio 2022<br />
10<br />
In Bloom<br />
A winning competition entry proposing architectural solutions for Seoul’s smog problem<br />
12<br />
Under Water<br />
A natural filtration swimming facility for Toronto Islands with a skyline view<br />
14<br />
Kayanase Pavillion<br />
A design-build learning pavillion for the Six Nations reserve<br />
26<br />
A Chair for M.C. Escher<br />
An “impossible” chair for the master of impossible illusions<br />
28<br />
Kigutu Hospital<br />
A maternity hospital in Burundi, Africa<br />
30<br />
Park Avenue Bike Path<br />
A proposal for bike paths along one of Manhattan’s largest corridors<br />
Jigsaw Table & Garden Signage<br />
A colourful table made of puzzle pieces & freelance sign designs for Cambridge Sculpture Garden<br />
32<br />
35<br />
3
The New Plex<br />
Final Graduate Project<br />
M.Arch, McGill University<br />
completed in 2023,<br />
Montreal, Quebec<br />
Full booklet, online<br />
88.8%<br />
100%<br />
GFA: 412.3 m 2<br />
GFA: 402.1m 2<br />
GFA per bed: 40.2 m 2<br />
Unit 6<br />
1-bd<br />
Unit 5<br />
3-bd<br />
Unit 6<br />
3-bd<br />
Unit 5<br />
studio<br />
Unit 4<br />
2-bd<br />
Unit 5<br />
3-bd<br />
Unit 6<br />
3-bd<br />
Unit 4<br />
1-bd<br />
Unit 3<br />
studio<br />
Unit 1<br />
studio<br />
Unit 2<br />
3-bd<br />
Unit 3<br />
1-bd<br />
Unit 5<br />
3-bd<br />
Unit 1<br />
1-bd<br />
Unit 6<br />
3-bd<br />
Unit 2<br />
1-bd<br />
Model 01<br />
‘Habitat Plex’<br />
3 storeys, 6 units, 9 bedrooms<br />
Model 02<br />
‘Sky Plex’<br />
3.5 storeys, 6 units, 10 bedrooms<br />
4
A multiplex is a low-rise multifamily residential building with two<br />
or more separately accessed dwelling units, built at a similar scale<br />
to a traditional house. To address severe housing shortages, many<br />
jurisdictions across North America and around the globe are reforming<br />
long-standing zoning laws to permit multiplex construction across<br />
vast areas of land which formerly only permitted building singlefamily<br />
houses. This opens up a new frontier of design possibilities for<br />
builders: how should these buildings be designed? As an example of<br />
‘missing middle’ housing, multiplexes have many advantages which<br />
make them opportune for addressing both the housing and climate<br />
crises simultaneously. This project revisits historical North American<br />
multiplex designs, argues for streamlining multiplex construction in<br />
contemporary infill suburban contexts, investigates their regulatory<br />
and practical constraints, and explores ways of designing the<br />
typology in order to improve its environmental performance, cost<br />
effectiveness, and above all the quality of life for residents.<br />
100%<br />
100%<br />
GFA: 332.9 m 2<br />
GFA per bed: 41.6m 2<br />
GFA: 500 m 2<br />
GFA per bed: 35.7m 2<br />
Circulation<br />
Unit 7<br />
studio<br />
Unit 5<br />
studio<br />
Unit 6<br />
studio<br />
Unit 3<br />
studio<br />
Unit 1<br />
studio<br />
Leasable Area<br />
Unit 8<br />
studio<br />
Unit 4<br />
studio<br />
Unit 2<br />
studio<br />
Unit 5<br />
2-bd<br />
Unit 3<br />
2-bd<br />
Unit 3<br />
2-bd<br />
Unit 1<br />
3-bd<br />
Unit 6<br />
2-bd<br />
Unit 4<br />
2-bd<br />
Unit 5<br />
2-bd<br />
Unit 6<br />
2-bd<br />
Unit 4<br />
2-bd<br />
Unit 2<br />
3-bd<br />
Model 03<br />
‘Flex Plex’ - Maximum Units<br />
1.5 storeys, 8 units, 8 bedrooms<br />
Model 03<br />
‘Flex Plex’ - Maximum Bedrooms<br />
2.5 storeys, 6 units, 14 bedrooms<br />
5
Amphibious Prototype<br />
Academic research partnership with the National Research<br />
Council of Canada & Buoyant Foundation Project<br />
Design Collaboration w. Mitchell Martyn & other members of<br />
the Buoyant Foundation Project<br />
completed in 2018, Waterloo, Ontario<br />
Photos & drawings courtesy of the Buoyant Foundation Project<br />
6
The Buoyant Foundation Project, headed by Dr. Elizabeth English,<br />
is a nonprofit research organization dedicated to the development<br />
of amphibious foundation systems: a low-cost flood risk reduction<br />
and climate change adaptation strategy that functions passively by<br />
floating a structure safely on rising flood water and then returning it to<br />
its exact original position as flooding subsides. A buoyancy system<br />
installed beneath the building displaces water to provide flotation,<br />
while a vertical guidance system prevents any lateral movement.<br />
I have worked with the Buoyant Foundation Project since 2017 as<br />
both a student and then an undergraduate research assistant. This<br />
prototype, co-designed by myself and Mitchell Martyn, was built on<br />
a stormwater retention pond to research the effects of freeze-thaw<br />
cycles on buoyant foundations, and thus the viability of amphibious<br />
architecture in Canada. In particular, this protoype is intended as a<br />
proof-of-concept design to promote this type of construction with<br />
vulnerable First Nations communities nationwide.<br />
Flashing cap<br />
Roof decking<br />
DRY<br />
FLOOD<br />
lateral restraint<br />
Buoyancy system<br />
HOW AMPHIBIOUS ARCHITECTURE WORKS<br />
Amphibious architecture is any buidling that is retrofit or designed to passively<br />
float during flood conditions, then return to the same stationary position when<br />
dry. Buoyant foundation systems work best with buidlings that are already<br />
elevated above ground and in flood conditions that have fairly low flow rates and<br />
wave activity. In addition to this prototype, the Buoyant Foundation Project has<br />
successfully amphibiating buidlings in Vietnam and Louisiana, and is currently<br />
working on projects in Canada and America.<br />
Top of A-frame<br />
Railing<br />
Floor deck<br />
Joists for floor deck<br />
Beams tying A-Frame<br />
Courtesy of CTV News, Kitchener<br />
PROTOTYPE DESIGN & RECOGNITION<br />
The simple A-Frame design was chosen for its stability, ease of modular assembly<br />
and resistance to wind loading. Though originally designed to accomodate<br />
dock floats, the final structure uses hollow barrels to provide buoyancy. The<br />
stormwater retention pond’s small size and shallowness meant we could eschew<br />
a vertical gudiance posts, instead providing some lateral stability with tethering.<br />
The project has been featured on local CTV News in Kitchener, Ontario as well<br />
as TVO’s The Agenda with Steve Paikin. An academic account of the project was<br />
published in the proceedings for the International Conference for Amphibious<br />
Architecture & Engineering held in Warsaw, Poland in October 2019.<br />
Bottom of A-Frame<br />
Dock floats<br />
7
The A.A.R.C.<br />
M1 Arch 672 Design Studio Final Project<br />
Instructed by Salmaan Craig, Philip Tidwell & Daniela Leon<br />
Collaboration w. Laura Titolo-Robitaille, Calina Olari, Guillaume<br />
Croteau, JJ Zhao<br />
proposed location: Sainte-Flavie, Quebec<br />
typology: research facility, workshop, tourist accomodation<br />
Honourable Mention, ARCH 672 Design Studio Final Project<br />
Full booklet, online<br />
PHASE 1<br />
PHASE 2<br />
PHASE 3<br />
TYPICAL COASTAL FARM LOTS<br />
8<br />
SECTION THROUGH A.A.R.C SHOWING THERMAL NESTING
The town of Sainte-Flavie, Quebec is threatened by rising sea waters<br />
and erosion due to climate change. At the same time, climate change<br />
is projected to increase local crop yields, providing a silver lining for<br />
the local farm economy. The Agricultural Adaptive Research<br />
Centre (A.A.R.C.) is a proposed new research facility, to be run by a<br />
co-operative of local farmers, in order to support the local agricultural<br />
and social networks as they adapt to climate change. Farmers own<br />
most of the land in the town, and many of their properties traverse<br />
an escarpment between the coastal floodplain and higher ground.<br />
The project proposes using these ‘typical coastal farm lots’ as the<br />
site for relocating waterfront residents safely inland. Coastal homes<br />
would be disassembled, while the reclaimed materials are used<br />
to build new ones on these lots uphill. The facility itself would be<br />
built in three phases. Phase 1 will process reclaimed material from<br />
disassembled buildings. Phase 2 will accommodate agri-tourism<br />
and community events. Phase 3 will facilitate agricultural research<br />
and resource-sharing among farmers.<br />
PHASE 3<br />
PHASE 2<br />
PHASE 1<br />
COAST<br />
UPHILL<br />
A.A.R.C. SITE<br />
BUOYANCY VENTILATION<br />
9
M.H.M.M.<br />
M1 Arch 673 Design Studio Final Project<br />
Instructed by Howard Davies<br />
Collaboration w. Adam Mahieddine<br />
proposed location: Montreal<br />
typology: museum<br />
Published in the Azrieli Global Studio 2022 compilation.<br />
Exterior View | Saint-Laurent Boulevard<br />
3<br />
5<br />
2<br />
1<br />
4<br />
9<br />
space<br />
ea of Reeds 10<br />
anagement
The design for the second location of the Montreal Holocaust<br />
Memorial Museum was open to competition in 2022, and the<br />
Azrieli Global Studio invited students to propose their own theoretical<br />
proposals. Our design is deliberately contextual on the outside while<br />
minimalistic on the inside. Saint Laurent Boulevard is a historic hub<br />
of Montreal’s Jewish community that is now a major nightlife and<br />
commercial arterial, full of murals, window shoppers and patios<br />
especially when pedestrianized in the summer months. We sought<br />
to find a way to balance the gravity of the tragedy that the musuem’s<br />
content displays with Saint Laurent’s role as a symbolic place of<br />
refuge and ultimately survival and thriving of the Jewish community<br />
even after the Holocaust. The building’s design is therefore extremely<br />
contextual, mimicing the existing street fabric pattern of transparent<br />
ground floor retail (which contain the brighter public programs) with<br />
opaque masonry upper floors (which contain the darker, private<br />
exhibits.<br />
Interior View | Mimicing Agora the existing street fabric pattern of transparent ground floor retail<br />
with masonry upper floors, the building draws people in through a through a<br />
three storey atrium with a large commemorative mural visible from passerby<br />
on the sidewalk. Inside, visitors circulate through exhibits around a central<br />
commemorative exterior space which also brings in the relief of natural light<br />
between the darker exhibits.<br />
2<br />
6<br />
7<br />
8<br />
Exterior View | Memorial Garden - Reflection Space<br />
11
In Bloom<br />
Seoul Clean Air Competition Se16<br />
3rd Place Prize Winner<br />
Collaboration w. Marco Chow, Nathanael Scheffler &<br />
Ethan Schwartz<br />
Algae Colours:<br />
AFTER<br />
BEFORE<br />
A TITANIUM-DIOXIDE-COATED<br />
PANEL SYSTEM<br />
is easily mounted to the exterior walls. The titanium<br />
dioxide converts organic pollutants in the air into C02 and water,<br />
which is then transferred to the algae system. The transparency of<br />
the coating means the aesthetic possibilities for colour and form are<br />
endless. Our design is an undulating parametric pattern.<br />
1<br />
Gravity tank evenly distributes<br />
the water and algae to the<br />
louvres<br />
Algae drains through<br />
the louvres, absorbing<br />
sunlight and undergoing<br />
phtoosynthesis<br />
algae drains into aeration<br />
tank<br />
outside air is pressurized and<br />
bubbled through aeration<br />
tank<br />
pump moves algae to gravity<br />
holding tank on top of<br />
building<br />
algae is filtered out for<br />
processing<br />
water is reclaimed<br />
12
The city of Seoul, South Korea, is plagued by dangerous levels of<br />
air pollution. As the city is constantly growing and changing, city<br />
planners, developers and architects must play a role in solving this<br />
crisis. The Se16 Seoul Clean Air Competition called upon architects<br />
and designers to propose possible strategies.<br />
Our proposal is a 2-tiered, modular, mass-produceable and scalable<br />
facade system designed to clean air pollution on a mass scale by<br />
converting, through a chain of reactions, organic pollitants into<br />
algae biomass and oxygen. The facade system is designed as<br />
an architectural product that can be easily attached to much of<br />
the city’s existing residential buildings as an array of louvres and<br />
panels. The design capitalizes on the fact that much of Seoul’s built<br />
form is comprised of nearly identical soviet-block style residential<br />
typologies which offer a large amount of surface area with which to<br />
attach these panels and thus maximimize their effieiency.<br />
3<br />
2<br />
CAPITALIZING ON THE EXISTING<br />
BUILT FORM OF SEOUL<br />
Our facade system is designed as a pair of supplemental modular<br />
products tailored for mass production and assembly on the city’s definitive<br />
building types. Vast regions of Seoul’s urban fabric are defined by clusters<br />
of identical residential towers such as these shown in the suburb of Gaepodong.<br />
Proliferated on a mass scale, our system would cover a significant<br />
surface area of these towers as new urban “green space”, reducing pollution<br />
levels while simultaneously improving the asethetics of the built environment.<br />
A HORIZONTAL<br />
LOUVRE SYSTEM<br />
takes in CO2 and other organic particulates<br />
to grow algae within a system of water<br />
pipes. The pipes circulate the water and<br />
algae uniformly throughout the system. In<br />
sunnier weather the algae blooms become<br />
more opaque, providing shade for passive<br />
cooling, whereas in cooler tempertaures<br />
the pipes can be emptied to prevent<br />
freezing and allow unabated solar gain.<br />
This map show the green acreage of Seoul if our system was applied to every existing<br />
residential neighborhood of this typology. Light green = existing; Dark green = new.<br />
4 THE ALGAE IS HARVESTED<br />
and can then be sold for a variety of off-site uses, including:<br />
biofuel<br />
further reducing air pollution, by<br />
replacing fossil fuel energy use<br />
sewage treatment<br />
addressing water pollution and<br />
wetland degradation<br />
food<br />
5 SYSTEM PRODUCTIVITY<br />
biomedical/chemical uses<br />
manufacturing medicine,<br />
cosmetics, fertilizers,<br />
biodegradable plastics<br />
Via our system, for every day of average solar exposure, 1m 2 of titanium<br />
dioxide will convert 200m 3 of Nitrous Oxides and 60m 3 of other organic<br />
pollutants into oxygen and algae biomass.<br />
CARBON<br />
BASED<br />
POLLUTION<br />
TITANIUM<br />
DIOXIDE<br />
TREATED<br />
PANELS<br />
H20<br />
CO2<br />
ALGAE<br />
BIOREACTOR<br />
SYSTEM<br />
02<br />
ALGAE BIOMASS<br />
13
Under Water<br />
4B Design Studio Final Project<br />
Studio Instructed by Andrew Levitt<br />
proposed location: Toronto Islands, Ontario<br />
typology: recreation centre / swimming facility<br />
Jack Layton<br />
Ferry Terminal<br />
Ferry Path<br />
Building<br />
Lake Ontario<br />
Olympic Island<br />
FLOOD CONTROL<br />
The building is situated on the northernmost<br />
edge of Olympic Island, one of the lowest-lying<br />
areas of Toronto Islands, and thus a great flood<br />
risk. In order to protect the building, It is situated<br />
and built up around the highest contour of the<br />
site (+76m above sea level) with a gabion<br />
retaining wall, which is just above the 100 year<br />
flood line of Lake Ontario (75.7m).<br />
TORONTO ISLANDS MAP<br />
14<br />
N<br />
REINFORCED CONCRETE<br />
PAVERS ON GRAVEL BED<br />
REINFORCED CONCRETE STEPS<br />
LIMESTONE-FILLED<br />
GABION BASKET ANTI-<br />
EROSION RETAINING WALL<br />
W/ PLANTER<br />
100 YR FLOOD<br />
LEVEL<br />
LEVEL 1<br />
+2.00m<br />
GRADE<br />
+1.00m
Under Water is a project proposing a new low-energy, natural<br />
filtration swimming pool complex on the Toronto Islands. Situated<br />
on the shoreline directly across from the city skyline, the building<br />
takes advantage of this pristine view by having all of its pools<br />
located on the roof, while underneath, selective use of glass floors<br />
and walls in the pool tanks reveals swimmers to the programs<br />
below and allow underwater sunlight to passively light the interior.<br />
Sustainability principles were a key driver of the building’s design,<br />
as it heavily incoroporates passive lighting, cooling and heating with<br />
cross ventilation, solar gain and thermal mass and an east-west<br />
linear form which maximizes solar exposure. The exterior envelope<br />
is a consistent R-33 insulated concrete structural assembly with<br />
limestone filled gabion wall cladding that grow vines in the summer<br />
months, turning the exterior surfaces into a natural green wall.<br />
Water from the pools is filtered by a closed loop natural system<br />
incorporating hydrobotanic ponds and pathogen-eating plants.<br />
Original Site Condition; Olympic Island<br />
Contour line is reinforced w/ gabion walls<br />
and concrete to create a podium for flood<br />
protection, which is built to jut out into the<br />
lake and provide full panoramic views of the<br />
Toronto Skyline across the harbour<br />
1 2 3<br />
Building mass extrudes from podium;<br />
two volumes w/ a promenade around all<br />
perimeter walls<br />
4<br />
Existing path through site is rerouted along<br />
an arc tangential to the centreline of both<br />
bridges connecting Olympic Island to the<br />
rest of Toronto Islands<br />
New paths directly to the cafe, event space<br />
and main foyer entrances as well as the<br />
artificial beach are paved from tangents<br />
along the main path’s curve<br />
5 6<br />
Most existing vegetation is kept intact while<br />
trees removed during construction are<br />
replanted densely along the tangential paths<br />
to create a lush natural experience while<br />
approaching the building.<br />
15
29<br />
4<br />
4<br />
9<br />
16<br />
17<br />
2 5<br />
7<br />
18<br />
1<br />
3<br />
6<br />
8<br />
10<br />
11 12 13 14<br />
15<br />
8<br />
1ST FLOOR PLAN<br />
31 32<br />
8<br />
8<br />
ROOF PLAN<br />
1. Bike storage<br />
2. Cafe<br />
3. Kitchen<br />
4. Washroom<br />
5. First aid<br />
6. Meeting room<br />
7. Staff change room<br />
8. Roof Stair<br />
9. Change rooms<br />
10. Showers<br />
11. Storage<br />
12. Reception<br />
13. Coat check<br />
14. Coat room<br />
15. Foyer<br />
16. Wet sauna<br />
17. Dry sauna<br />
18. Wood storage<br />
19. Hot tub<br />
20. Event storage<br />
16
30<br />
19<br />
20<br />
21<br />
4 22<br />
23 24 25 26 27<br />
28<br />
34<br />
23<br />
26<br />
33<br />
21. Recycling<br />
22. Event admin<br />
23. Dive pool<br />
24. Event Space<br />
25. Mech room<br />
26. Gravel bed<br />
27. Hydrobotanic pond<br />
28. Poolkeeper’s house<br />
29. Pebble beach<br />
30. Boat drop-off<br />
31. Kid’s pool<br />
32. Large pool<br />
33. Dive tower<br />
34. Event storage<br />
N<br />
0 25m<br />
17
ROOF (+6.5m)<br />
LVL 1 (+2.0m)<br />
BEACH (+1.0m)<br />
NORTH ELEVATION<br />
ROOF (+6.5m)<br />
LVL 1 (+2.0m)<br />
BEACH (+1.0m)<br />
SOUTH ELEVATION<br />
ROOF (+6.5m)<br />
LVL 1 (+2.0m)<br />
BEACH (+1.0m)<br />
SECTION<br />
PROGRAMS<br />
SCHEDULE<br />
2<br />
1<br />
NATURAL FILTRATION SYSTEM<br />
1<br />
The first pool filling of each<br />
swimming season will come<br />
from the city grid’s treated<br />
water. After this initial filling<br />
the water will remain in a<br />
closed loop system for the<br />
duration of the season.<br />
2 Grey Water is drained from<br />
pools and hot tub<br />
Grey Water is pumped into<br />
a raised gravel bed with<br />
4<br />
filtration plants and sifted<br />
down through gravity<br />
Grey Water deposits into a<br />
hydrobotanic regeneration<br />
pond with plants that feed on<br />
bacteria and other organic<br />
matter<br />
18
9<br />
6<br />
3<br />
8<br />
7<br />
5<br />
4<br />
5<br />
Filtered water flows to<br />
Mech Room for testing<br />
6<br />
If tested for low quality,<br />
water is pumped back up<br />
7<br />
into the gravel bed<br />
If tested for acceptable<br />
quality, the fully filtered<br />
water is pumped back to<br />
the pools.<br />
8<br />
Unheated water is<br />
pumped into the<br />
perforated shower pipes<br />
around the perimeter of<br />
the hot tub<br />
9<br />
Unheated water is<br />
pumped into the<br />
perforated pipes around<br />
the perimeter of the<br />
hot tub<br />
19
ROOF (+6.5m)<br />
LVL 1 (+2.0m)<br />
GRADE (+1.0m)<br />
promenade foyer reception shower universal change rooms promenade<br />
1:200 MAIN FOYER SECTION N-S<br />
SEALANT @JOINT BETWEEN<br />
PLEXIGLASS SHEETS<br />
SEE DETAIL, LEFT<br />
100mm PLEXIGLASS<br />
STEEL ANGLE<br />
SEALANT<br />
CARBONCAST PRECAST<br />
CONCRETE PANEL ADHERED TO<br />
1/2in PLYWOOD<br />
WATERPROOFING MEMBRANE<br />
BRETON STONE TILES<br />
PILKINGTON LOW-E DOUBLE<br />
PANED ARGON FILLED GLAZING<br />
SHOWER KNOB<br />
150mm R33 XPS FOAMULAR<br />
HIGH-R CW PLUS RIGID<br />
INSULATION<br />
BRETON STONE TILES<br />
300mm X 500mm REINFORCED<br />
CONCRETE BEAM<br />
THINSET MORTAR BED<br />
WATERPROOFING<br />
MEMBRANE<br />
PERFORATED WATER PIPE<br />
BOLTED INTO 100mm X 100mm COVE<br />
REINFORCED 500mm<br />
CONCRETE SLAB ON GRADE<br />
SHOWER ROOM SECTION<br />
1:40 DETAIL<br />
SHOWER BEAM<br />
1:10 DETAIL<br />
20
pebble beach<br />
FOYER & RECEPTION DESKS<br />
SHOWERS<br />
The room is flooded with the dance of refracting sunlight through<br />
the pool skylight above, while turning the wall knob begins a<br />
cascade of water through the structure itself, creating the illusion<br />
that the pool itself is falling through the ceiling.<br />
UNIVERSAL CHANGE ROOMS<br />
The Change Rooms and Cafe are completely passively lit during the day by<br />
overhead Skylights through the swimming pools. The skylight assembly allows<br />
sunlight to fill the room below while the water and insulated glass cools the solar<br />
heat gain to prevent the interior from overheating and actually providing a degree<br />
of passive cooling in the summertime.<br />
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ROOF (+6.5m)<br />
LVL 1 (+2.0m)<br />
promenade<br />
dive tower<br />
corridor<br />
DIVE POOL<br />
roof deck<br />
hall<br />
promenade<br />
1:200 CAFE SECTION N-S<br />
ROOF (+6.5m)<br />
LVL 1 (+2.0m)<br />
GRADE (+1.0m)<br />
1:200 MAIN ROOF STAIR SECTION N-S<br />
roof lawns<br />
promenade corridor main roof stair staff change room promenade<br />
The roof deck and pools can be access<br />
by two main staircases which lead up<br />
from the change rooms. A sliding glass<br />
door can be completely retracted during<br />
open hours to make orientation obvious<br />
to visitors, while the doors can be shut<br />
in the cold weather to keep the building<br />
envelope sealed while providing a<br />
lightwell. The main staircase is built<br />
around a large existing tree, and rewards<br />
the visitor with a full, direct panoramic<br />
view of the Toronto skyline at the top<br />
step, establishing a connection between<br />
nature and the city.<br />
MAIN ROOF STAIR ENTRANCE FROM CHANGE ROOMS<br />
22
pebble beach<br />
DIVE POOL<br />
pebble beach<br />
SOUTH CORRIDOR, LOOKING TOWARDS MAIN STAIR<br />
TOP OF MAIN STAIR<br />
23
The hot tub room is an outdoor<br />
cube-shaped concrete volume with<br />
a lone planter and sakura tree in the<br />
centre. During warm seasons, The<br />
hot tub volume’s mass, as well as<br />
the cherry tree provides ample shade<br />
inside the room, allowing bathers to<br />
enjoy the temperature of the water<br />
without excessive solar gain from<br />
the sun. Some cross-breezing may<br />
be allowed by opening the sliding<br />
door in the north-east corner of<br />
the room as well as the operable<br />
transom window on the other side of<br />
the door, permitting a slight breeze<br />
to enter from the corner of the room.<br />
During cold seasons, the hot water<br />
contrasts nicely with the freezing<br />
air temperatures. Snow can filter<br />
into the space and melt on contact<br />
with the water, but the bather is<br />
completely sheltered from wind by<br />
the mass of the building around<br />
them if the doors and windows are<br />
kept shut.<br />
HOT TUB<br />
PHYSICAL MODEL<br />
24
NORTH CORRIDOR, LEAVING HOT TUB<br />
25
Kayanase Pavillion<br />
3A & 3B Design Build Studio Project<br />
Instructed by John McMinn and Paul Dowling<br />
Design & construction collaboration w. a team of over 15<br />
classmates for First Nations clients at Kayanase<br />
construction in progress, Six Nations Reserve, Ontario<br />
EXTERIOR RENDERING<br />
26
The Kayanase Pavillion is an ongoing Design-Build collaboration<br />
with a local indigenous community on the Six Nations Reserve near<br />
Brantford, Ontario. The actual design-build phase of the project<br />
took place over the course of two semesters with a varying team<br />
of students under the tutelage of John McMinn and local architect<br />
Paul Dowling. When completed, the building will serve as a learning<br />
pavillion for children from nearby communities to learn about the<br />
culture of the indigenous residents on the reserve, including arts and<br />
crafts, history, sports and food. Positioned on a sloping site with a<br />
view toward the Grand River, the pavillion will be a simple insulated<br />
wood frame construction with a sloped roof and glazed eastern<br />
wall braced by shelving for displaying the children’s creations. The<br />
local indigenous community was consulted closely at each stage<br />
of design. The wall, truss and floor modules were constructed by<br />
students in the school’s workshop and are in storage awaiting final<br />
assembly.<br />
27
Chair for M.C. Escher<br />
4B Chair Project<br />
Instructed by Dr. Elizabeth English<br />
Design Collaboration w. Wayne Yan<br />
completed in 2019, Cambridge, Ontario<br />
ESCHER’S ESCHER’S CONCEPT CONCEPT<br />
60<br />
1. 1. GEOMETRY 1. GEOMETRY 2. 2. REPEAT 2. REPEAT 3. 3. 3. 3. METAMORPHOSIS<br />
ESCHER’S CONCEPT<br />
28
M.C. Escher was a Dutch graphic artist and printmaker famous for<br />
drawing impossible shapes, optical illusions, tessellated patterns<br />
and other mathematically-inspired artwork. Over his lifetime he<br />
produced hundreds of lithographs and woodcut prints as well as<br />
thousands of drawings and sketches.<br />
This chair for M.C. Escher, like his artwork, challenges the user’s<br />
perceptions of what is “impossible” by repeating a simple geometric<br />
form, then manipulating it to create an illusion. The motifs of defying<br />
gravity and laws of perspective -- prevalent in Escher’s work --<br />
manifests in a chair that seems to magically suspend itself above the<br />
user’s head. Another recurring motif in Escher’s art is the disollution<br />
of geometries into fractals and tesselations. Likewise, our client’s<br />
chair begins as a solid monolith which deconstructs into three cubes<br />
as the user interacts with it, and which can potentially be completely<br />
separated from one another if desired.<br />
ROTATION<br />
ROTATION<br />
1:1<br />
SLEEVE C<br />
C C C<br />
SLEEVE C<br />
1:1<br />
ROTATION<br />
ROTATE -90<br />
1:10<br />
SLEEVE B DETAIL<br />
34 35<br />
ROTATE 90<br />
1:10<br />
SLEEVE C DETAIL<br />
36 37<br />
C<br />
ROTATION<br />
ROTATION<br />
ROTATION<br />
ned d<br />
e the<br />
ole.<br />
te. tate.<br />
90°<br />
per<br />
terrom<br />
m<br />
d ted<br />
any<br />
es - -<br />
to to<br />
ROTATION<br />
C<br />
B<br />
B B B<br />
B<br />
ROTATE 90<br />
1:10<br />
SLEEVE C DETAIL<br />
36 37<br />
SLEEVE B<br />
1:1<br />
ROTATION<br />
SLEEVE C<br />
SLEEVE B<br />
ROTATION<br />
SLEEVE B<br />
1:1<br />
ROTATE -90<br />
ROTATION<br />
1:10<br />
SLEEVE B DETAIL<br />
34 35<br />
tion n<br />
nse<br />
er’s<br />
A<br />
ROTATION<br />
CHAIR CONCEPT<br />
A A A<br />
SLEEVE A<br />
1:1<br />
SLEEVE A<br />
1:1<br />
POLE SECTION 1:5 1:5<br />
A<br />
SLEEVE A<br />
BOX 1 - FIXED<br />
1:10<br />
SLEEVE A DETAIL<br />
32 33<br />
SECTION THROUGH<br />
ROTATION MECHANISM<br />
32<br />
BOX 1 - FIXED<br />
1:10<br />
SLEEVE A DE<br />
CHAIR CONCEPT<br />
1. GEOMETRY 2. 2. REPEAT 3. METAMORPHOSIS<br />
3. METAMORPHOSIS<br />
29
Kigutu Hospital<br />
office: Bergen Street Studio<br />
office location: New York City, USA<br />
project location: Burundi, Africa<br />
project type: Women’s hospital<br />
All photos and drawings copyright of Bergen Street Studio,<br />
renderings co-produced by Stantec<br />
30
Kigutu Hospital is a women’s hospital recently completed in a rural<br />
area in Burundi, Africa, in partnership with Village Health Works<br />
as well as landscape architecture consulting from Stantec. The<br />
hospital will offer maternity and emergency care for women in an<br />
impoverished part of Africa. It was designed with passive design<br />
principles to reduce its energy intensity and construction costs.<br />
My role on the project was to help produce a set of working<br />
construction drawings as the design developed, as well as build<br />
some of the master digital Rhino model used for the renderings<br />
depicted here (produced in partnership with Stantec). I was also<br />
assigned to propose dffferent design iterations for the exterior pickup<br />
and drop-off area, seating and landscaping.<br />
31 80
Park Ave. Bike Lane<br />
Beyond The Centreline 2017 competition entry<br />
Collaboration w. Wayne Yan<br />
proposed location: New York City<br />
typology: cycling path<br />
32
Park Avenue is one of the widest and busiest streets in Manhattan,<br />
but stands out for its large planted medians in the centreline of the<br />
road. The ‘Beyond the Centreline’ competition called on designers<br />
to rethink this unused strip of urban fabric and propose possible<br />
interventions. Our proposal is to incorporate a new two-way cycling<br />
trail along the centre of the median, painted with bright rianbow<br />
colours. Buffered from the busy road on either side by the existing<br />
vegetation, this trail would be be a safe and easy for drivers to see,.<br />
The path would fill in a major existing North-South gap in Manhattan’s<br />
bike path network, connecting Spanish Harlem at 97th street all<br />
the way Union Square at 14th Street. The path would also pass<br />
through Grand Central Station at 42nd, the city’s busiest commuter<br />
transit node. The rainbow scheme is both an homeage to the city’s<br />
tolerance and diversity, and a visual attraction for instagrammers and<br />
New Yorkers alike, adding a fun splash of colour to an otherwise<br />
monochrome urban landscape.<br />
The bike lane would anticipate<br />
a large amount of cycling traffic<br />
due to its midway connection<br />
point at Grand Central as well as<br />
its uninterrupted, two-way North-<br />
South traffic flow. It would cost very<br />
little to build and maintain, and<br />
help reduce automobile congestion<br />
on one of the city’s most important<br />
commercial thoroughfares. Its<br />
physical separation from car and<br />
foot traffic also increases safety,<br />
embolden would-be urban cyclists<br />
to use it, as well as allow greater<br />
speeds and reduced travel times<br />
from roads which cyclists must<br />
share with automobiles.<br />
97<br />
55th<br />
54th<br />
51st<br />
MADISON AVE<br />
PARK AVE<br />
LEXINGTON AVE<br />
LEGEND<br />
GCS<br />
48th<br />
EXISTING SHARROWS<br />
EXISTING BIKE LANES<br />
PROPOSED BIKE LANE<br />
14<br />
GRAND CENTRAL<br />
STATION<br />
STUDY AREA; SEE MAP RIGHT<br />
PARK<br />
N<br />
33
Jigsaw Table<br />
2A Design Studio Project<br />
Instructed by Adrian Blackwell<br />
Design Collaboration w. Hagop Terzian, Sissi Li & Justin Ng<br />
completed in 2015, Cambridge, Ontario<br />
This table set was designed and built over the course of a weekend. As<br />
part of a design studio focused housing, the instructions of the project<br />
were to create some kind intervention in our own homes. The impetus<br />
for creating a table set was the observation that nobody in my house ate<br />
together in the same room. We came up with the idea of a fragmented<br />
table that by its design implied the need to be unified. Each puzzle piece<br />
has a deatchable third leg which can be attached to stand on its own, eand<br />
each has a different colour and corresponding chair to give each their<br />
own unique personality. The primary colour scheme gives the table set a<br />
youthful, playful character. The chairs were donated by local stores and<br />
painted to match the colour scheme of their table piece.<br />
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Freelance Project<br />
Client: Cambridge Sculpture Garden<br />
completed in 2022, Cambridge, ON<br />
Garden Signage<br />
Cambridge Sculpture Garden is a volunteer-maintained public park on the<br />
banks of the Grand River in Cambridge Ontario featuring beautiful gardens,<br />
sculptures and artworks. In 2022 I was hired to redesign their signage on<br />
a freelance contract. Made of painted aluminum with acrylic graphics, the<br />
sleek, minimalist new signs compliment the garden’s modern artworks,<br />
contrast nicely with the bright colours of the plants and feature the<br />
garden’s mission statements and QR codes to direct visitors their website.<br />
The signs were installed in late 2022.<br />
35
Thank You