walking motion of the collection system
Friday, May 2, 2008
Animation of system growth and movement
the system of movement through a pilot site where it collects methane and selectively leaves behind the residue for a new energy self-sufficient settlement.
Thursday, May 1, 2008
Reinterpreting the Edge
Reinterpreting the Edge: A Response to Coastal Flood and Erosion, New Orleans Seacoast, LA
by: Asta Fivgas, Jung Im, and Paul Stein
by: Asta Fivgas, Jung Im, and Paul SteinCoastal flooding and erosion is only one factor that plays into the larger picture of "global warming". Our group became increasingly interested in it's effect on what we consider the "edge". Edge can refer to sea vs. land as well as urban vs. natural.
Our system deploys itself along the edge as a mediator (both between the city and the surrounding wetlands as well as the marshland and the sea) that capitalizes on natural sediment flow by capturing and redistributing the sediment to strengthen specific areas of the coastline as well as diverting and slowing wave currents. As the sediment is secured new "land" is created and a second phase of the system is deployed. Each phase builds upon the previous creating layers of build-up both natural (silt/sediment) and architectural (nested geometry). The growth pattern is dependent on scripted algorithms that orient the aperture of the cells toward desirable conditions as well as manipulate the cell based on inputs such as topographical depth and environmental context/needs.
Img 01: Precis, Context Mappings, Salinity / Erosion Rates / Wave Flow
Our system deploys itself along the edge as a mediator (both between the city and the surrounding wetlands as well as the marshland and the sea) that capitalizes on natural sediment flow by capturing and redistributing the sediment to strengthen specific areas of the coastline as well as diverting and slowing wave currents. As the sediment is secured new "land" is created and a second phase of the system is deployed. Each phase builds upon the previous creating layers of build-up both natural (silt/sediment) and architectural (nested geometry). The growth pattern is dependent on scripted algorithms that orient the aperture of the cells toward desirable conditions as well as manipulate the cell based on inputs such as topographical depth and environmental context/needs.
Img 01: Precis, Context Mappings, Salinity / Erosion Rates / Wave Flow
Img02: Context Geology, Site Selection
Img03: MRGO
The MRGO is currently under debate and there are plans to completely shut down this shipping channel and re-route cargo ships through the Mississippi. Heavy erosion rates based on poor design have widened the MRGO and contributed to the rapid decline of surrounding wetlands which serve as a barrier between the mainland and the Gulf of Mexico.
Img04: Context Mapping (site erosion without implementation)
Img05: Time Lapse Diagram: predicted wave diversion and sediment flow changes
Img06: Scripting
Img07: Site Implementation: Phase One
Img08: Site Implementation: Phase Two
Img09: Module Development
Img10: Phase Three: Introduction of Walkable Landscapes and Inhabitation/Pedestrian Use
Img11: Spanning Qualities, system vertical growth potential
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