Examples of explorations in systems thinking.
ARCHITECTURAL DECAY AND REGROWTH, Spring 2023
*assisted through consultation at RISD’s Nature Lab to stage ideal groupings and plant sequencing.
This selection is based on the local soil and environmental conditions in Rhode Island.
PROBLEM
Buildings now have a fast turnover rate and short lifespan, and quickly falling into disrepair when left unattended.
NEED
To design structures that can harmoniously integrate with nature after abandonment.
GOALS
Create a spatial arrangement and time sequence of plants that encourage pollinators, and provide shelter and food sources for local animals over time.
RESULTS
A four-phased plan was developed that incorporated a specific selection of plants that support pollinators and local wildlife, with architectural elements evolving into natural habitats over time.
FUTURE GOALS
Further work needs to be done on how to retain a semblance of the original structure while ensuring there is non toxic decay. Life span and plant selection options need to be expanded depending on the needed intended use of the building and geographic location and soil.
PHASE 1
Architectural frameworks and infrastructures are built and last for a period of time.
PHASE 2
Cherry trees are planted between the beams and will not acidify the soil. These trees will communicate with each other over a 50 year span.
PHASE 3
Blackberry bushes are planted in between the trees with a 5ft radius gap. Additionally, wild concord grapes are planted along the beams when the trees are middle age.
PHASE 4
Lastly, wisteria is grown with the wild grapes. Eventually, as the infrastructure breaks down in addition to the trees, the vines and branches will retain a semblance of the initial structure and provide new homes and shelters for other animals and insects.
RAMMED EARTH REPURPOSED CONSTRUCTION, Fall 2023
PROBLEM
Raw materials are most valuable in their basic form; once processed or mixed, they become harder to reuse. Construction often relies on outsourced materials that end up discarded, and buildings are typically demolished rather than repurposed. This leads to significant waste and inefficiency in the construction industry.
NEED
Options for sustainable construction methods that prioritize local materials and reusability. Rammed earth constructions designed for New England's climate should prioritize materials throughout the construction process, reducing waste and environmental impact.
GOALS
Recognizing how often structures are destroyed, instead of a modular approach, explore how rammed earth structures can give flexibility in how and which sections can be disassembled and rebuilt using the existing material for evolving needs and use.
Left: Initial rammed earth structure, dwelling prototype.
RESULTS
A structure was built incorporating site and local materials. Construction materials and scaffolding were incorporated into the structure throughout the build, creating roof beams, window frames, and seating. Trass lime checks were spaced out through the build to monitor erosion and durability. This flexible rammed earth structure shifts from a dwelling to a pavilion.
FUTURE GOALS
To expand on ways buildings can be part of a closed-loop system from its initial site and construction, to its adaptive reuse, and final dismantling were materials are reused or safely returned to the environment. While this example explored the viability and benefits of sustainable rammed earth construction in New England and future ethical and environmentally responsible building practices, further explorations need to be done carefully monitoring initial inventory and materials and catalogued changes and alterations.
Right: Adapted rammed earth structure, pavilion
URBAN SHIFTS - Collective Development and Reorientation in Providence, RI, 2023
PROBLEM
Urban areas lack of diverse, native crops and sustainable land use. This deficit impacts local ecosystems and reliance on strained supply chains.
NEED
Encourage small agriculture solutions in urban contexts that reduce sterile seed purchases, and promote a reemergence of native and varietal seeds and crops that can be sustained.
GOALS
Develop urban agriculture initiatives, engage the community, and raise awareness about historical land use.
RESULTS
PHASE 1 - PLANTING INITIATIVE
Identify underutilized urban spaces for repurposing with edible, medicinal, or native plants that are low-maintenance and aid in erosion control. Establish a local seed bank within the neighborhood association for community collection and distribution.
PHASE 2 - COMMUNITY ENGAGEMENT
Develop a community app to locate, track, and update new satellite gardens throughout the city. Foster collective collaboration and community building through this participatory, interconnected system.
PHASE 3 - HISTORICAL AWARENESS
Utilize the Waterfire Festival in Providence to project images of the pre-colonized landscape onto buildings. This visual display acknowledges land exploitation and honors Indigenous communities while illustrating environmental changes over time.
FUTURE GOALS
Develop accessible tools to implement solutions that challenge conventional urban aesthetics and plant selection. Create community-building, interactive, and participatory projects that can be scaled and adapted to various locations, leveraging local events and initiatives to educate and engage the community in building a more sustainable and connected food system.
Marsh projection mock up