DAS Students Win First Place in Canadian Centre for Architecture (CCA) Design Competition
Second and third-year undergraduate students Elizabeth Young, Shengnan Gao, Alvin Huang, Justin Arbesman, Nicole Burdynewicz placed first in this year's Housing One by One, external link CCA Interuniversity Design Charrette. Participants included undergraduate and graduate students from the University of Toronto, University of Waterloo, McGill University, and Cartleton University.
Why Architectural Science at Ryerson?
When asked why she chose architectural science at Ryerson, third-year student Elizabeth Young remarked, "I've lived in a small town my whole life, so I wanted to experience living in the chaos of a big city. I am particularity interested in the environmentally sustainable side of architecture. I believe it is one of the most important aspects of architecture today and for the future. The spaces we create in buildings today affect the way in which we perceive the world tomorrow."
Second-year student Alvin Huang says "A specific area in architecture I am interested in is how digital fabrication tools should be used to create the next generation of architecture. I wanted to study architectural science at Ryerson because of the combination of art and science in design."
I came to Ryerson because I wanted to be fully immersed and surrounded by architecture... I think it's so interesting how we are being taught how to design buildings that will shape people's lives on a daily basis. It's just such an intriguing field and I cannot wait to be a part of it.
Third year-student Shengnan Gao is especially interested in design-builds and architectural competitions, "before entering the university, I was always interested in solving problems in math and drawing. Architecture is a subject which requires logical thinking, both conceptual and aesthetic in nature, which is why I thought the architectural science program at Ryerson would be best suited to me."
Nicole Burdynewicz, in her third-year, is interested in building science, affordable housing, and sustainable design: "I was always curious about how things worked, and in elementary and high school, my favourite subjects were math, physics, and art. To me, architecture is the conglomeration of those subjects as well as critical thinking. It also allows me to address everything from climate change to social and community issues. Having this kind of influence on things that matter to me is inspiring. At Ryerson, I am able to explore these various facets of architecture, building science, and project management, and gain skills in each.
The 2018 Theme of Affordable Housing
E- This design was inspired by the need for flexibility and compactness which leads to the affordability of the units, given the 1m by 1m constraint we developed a system which was flat packable as to provide cheap and easy transportation. Once the packages arrived at site they could be easily assembled, installed, and furnished. We used materials that are sustainable which added the to aesthetic quality and overall environmental footprint of the housing units.
A- The theme of affordable housing was given as the competition brief. What inspired us within the challenge of “one by one” was the idea of ship packing components as if a house was like Ikea Furniture.
S- Initially, it was the idea of creating a compiled of walls that are connected together. It could be deployed on site easily to create walls, ceiling, and floor simultaneously, so it requires a minimal labour force that anyone can build their houses.
N- In today’s technology-filled world, prefabrication was a given. In creating this project, we needed to create many constraints for ourselves as the prompt was quite open-ended. We decided on using spaces between buildings as that was what most inspired use. The use of structure and utilities was efficient and therefore the new additions could have less material and less vertical structure. What our design also needed to be was customizable and easily alterable. However, just providing sticks and panels was problematic in terms of feasible structural stability as well as a proper construction practices in this climate. We therefore determined that having structured modules would be easiest to implement and having a basic line of them would be accessible to the general population. Those modules, of course, could then be easily customized by the inhabitant, components can be traded, and new objects and attachments could be created for individual needs. A precedent that inspired us was the world’s narrowest house located in Warsaw and we discovered the possibilities of using these kinds of spaces in a functional way. We didn’t want to go that extreme, but finding larger spaces and elevating them allowed for a more socially accessible way of living that still pushes to boundaries on housing while still using the space at grade for vehicular and pedestrian travel.
To meet the demand of affordability, we expected to minimize the material costs and on-site construction duration as apart of the design. At the same time, we considered the customization, aesthetic, and functionality.
The Hexagonal Shape
E- The key to the hexagonal shape was its ability to be folded for easy transportation. From there we developed an interesting series of levels for the different units. This then yielded the opportunity to make the series of units more flexible, so that the individuals who live in the spaces can personalize their space. The different sets of clusters would contain the essential program including the sleeping quarters, washroom, and kitchen. The rest is up to the individual to personalize. This personalization creates different clusters for wherever this system could be deployed, creating an interesting way to fill up unused empty spaces in between buildings. For the interior material palette, we chose to stick to a more cozy vibe since the spaces are already so small. For the exterior we chose to use material but express it in a different way, thus we used a fired wood cladding system which contrasts the interior coziness.
A- The Hexagonal shape was the result of a study of different geometries, but the stackability and simplicity provided by the hexagon rendered it as the best choice for creating dynamic housing patterns. Moreover, rather than vertically stacked homes, rooms are displaced at a diagonal path to allow for multiple stacked units that do not exceed height limits as would stacking rectangular boxes of the same height.
S- The configurable nature of the hexagonal shape fits in with our idea of creating a small community. For affordability, we wanted to minimize the material costs and on-site construction duration as a part of the design. Therefore we decided to use low-cost materials such as LVL and charred wood as the main structure and cladding system. Morevoer, the construction applies pre-fabrication in order to further decrease the cost of the units. We also designed the main structure that supports the hexagonal units in a way that minimizes damage to the existing building where the units attach to. The structure is also designed to require a few on-site assembly processes in order to reduce the overall construction time.
N- We found the hexagonal shape to be most efficient spatially as well as circulation between rows of modules. Having this ability to access four rows from one hallway allowed for a denser and more efficient configuration as well as shaving off lesser used space within the module. The widest part is typically where counters and work surfaces are located and so all that typically unused space in back corners were omitted and became working space for another row.
The modules were also designed to be disassemblable, reusable, and ultimately recyclable. We also were intent on using wood for its warmth as well as for its sustainable aspects. The interior is lightly finished to bring out its natural beauty and the exterior is flame treated to char the surface and creating a protective layer; a technique called shou sugi ban.
The Design Process
E- We had many ideas about different assemblies and how the system could be deployed in real life. Iterations before had many different components in which would have to be assembled on site. We chose to keep the process of assembly as clean and simple as possible so that anyone would be able to assemble their own units. This reduced many of our components or forced us to design them into the foldable structure.
A- In developing the design, the team had to work and make decisions together, rather than establish a single leader that will make decisions. In the design itself, we had to look at what type of unused spaces there was within Montreal to showcase. We thought that In-between buildings would be an interesting proposal for housing as it does not take up land space such as parking lots, rather the modules become apart of the streetscape it is installed in and utilizes the existing structure to hold itself together. We also thought about how the modules itself would be assembled on site from the 1m x 1m box and look towards developing digital tools to help with the process. Moreover, we intent that the site be scanned using 3D optical scanners that will accurately measure the 3D space so that fabricators in the factory can utilize the information to prefabricate the steel skeleton that will hold the modules in between the buildings. From there, the modules are unfolded and assembled on the skeleton.
N- We went through many iterations including the standard stick and panel idea with universal connectors, though it did not necessarily pique out interest and seemed very basic. We wanted to choose a site that interested us and creating constraints was crucial for such an open-ended design brief. We decided that the 1x1 meter constraint would be applied to the base a box and panels and components can be longer than that with the intention of transportation of components by truck. That gave us a bit more freedom in terms of construction and a proper ceiling height could be more easily achieved. One iteration of the design had the modules collapsible with two opposing sides being 3 meters to facilitate the sides folding inwards, but after looking back at the form, we questioned if it really needed to be 3 m. We settled on panels being 1.5 meters which created much neater and compact module designs and were neither spatially strained or overly large.