MCROH
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Microgrove
Ecological Site Plan

Microgrove

Site plan showing the MICROGROVE 3D printed housing community off-shore within the Biscayne Bay National ParkSite plan showing the MICROGROVE 3D printed housing community off-shore within the Biscayne Bay National ParkSite plan showing the MICROGROVE 3D printed housing community off-shore within the Biscayne Bay National ParkSite plan showing the MICROGROVE 3D printed housing community off-shore within the Biscayne Bay National Park
Site plan showing the MICROGROVE 3D printed housing community off-shore within the Biscayne Bay National Park

MICROGROVE evolves by adding housing branches extending from existing central nodes—expanding like the logic of a mangrove. Change is celebrated through its shifting form, with additional communal spaces for events, research, and permaculture farming, as a strategy to stay interconnected with the bay’s ecosystem and its inhabitants. Accessible only by boat, MICROGROVE connects to the local terrestrial campsite and research base, acting as an off-grid hub for exploration and ecological study.

Site plan showing the MICROGROVE 3D printed housing community off-shore within the Biscayne Bay National Park

Perspectives

Competitions

Housing

Infrastructure

Ecology

RELATED RESEARCH IMAGES

RELATED PROJECT IMAGES

Underwater perspective of divers enjoying and researching the local ecology of Biscayne Bay below the aquatic permacultureUnderwater perspective of divers enjoying and researching the local ecology of Biscayne Bay below the aquatic permacultureUnderwater perspective of divers enjoying and researching the local ecology of Biscayne Bay below the aquatic permacultureUnderwater perspective of divers enjoying and researching the local ecology of Biscayne Bay below the aquatic permaculture
Combination section and plan drawings of the MICROGROVE 3D printed housing community in MiamiCombination section and plan drawings of the MICROGROVE 3D printed housing community in MiamiCombination section and plan drawings of the MICROGROVE 3D printed housing community in MiamiCombination section and plan drawings of the MICROGROVE 3D printed housing community in Miami
Plan drawing of the private Crow’s Nest sleeping and meditation room at the top of the MICROGROVE 3D printed homePlan drawing of the private Crow’s Nest sleeping and meditation room at the top of the MICROGROVE 3D printed homePlan drawing of the private Crow’s Nest sleeping and meditation room at the top of the MICROGROVE 3D printed homePlan drawing of the private Crow’s Nest sleeping and meditation room at the top of the MICROGROVE 3D printed home
Interior view of a woman reading a book in the lounge of the 3D printed MICROGROVE home with a net lounge aboveInterior view of a woman reading a book in the lounge of the 3D printed MICROGROVE home with a net lounge aboveInterior view of a woman reading a book in the lounge of the 3D printed MICROGROVE home with a net lounge aboveInterior view of a woman reading a book in the lounge of the 3D printed MICROGROVE home with a net lounge above
Aerial perspective of the clustered MICROGROVE 3D printed house layout connecting units side by side with gangwaysAerial perspective of the clustered MICROGROVE 3D printed house layout connecting units side by side with gangwaysAerial perspective of the clustered MICROGROVE 3D printed house layout connecting units side by side with gangwaysAerial perspective of the clustered MICROGROVE 3D printed house layout connecting units side by side with gangways
Botanical concept sketch of a typical mangrove plant with roots below the water and thin structure rising aboveBotanical concept sketch of a typical mangrove plant with roots below the water and thin structure rising aboveBotanical concept sketch of a typical mangrove plant with roots below the water and thin structure rising aboveBotanical concept sketch of a typical mangrove plant with roots below the water and thin structure rising above
Axonometric diagram of the various components of the MICROGROVE 3D printed house unit with attached gangway and interiorAxonometric diagram of the various components of the MICROGROVE 3D printed house unit with attached gangway and interiorAxonometric diagram of the various components of the MICROGROVE 3D printed house unit with attached gangway and interiorAxonometric diagram of the various components of the MICROGROVE 3D printed house unit with attached gangway and interior
Diagram showing the construction methods and components within the MICROGROVE housing system of 3D printing aquatic homesDiagram showing the construction methods and components within the MICROGROVE housing system of 3D printing aquatic homesDiagram showing the construction methods and components within the MICROGROVE housing system of 3D printing aquatic homesDiagram showing the construction methods and components within the MICROGROVE housing system of 3D printing aquatic homes
Upper perspective showing residents and researchers walking on the gangway paths attached to the 3D printed concrete homesUpper perspective showing residents and researchers walking on the gangway paths attached to the 3D printed concrete homesUpper perspective showing residents and researchers walking on the gangway paths attached to the 3D printed concrete homesUpper perspective showing residents and researchers walking on the gangway paths attached to the 3D printed concrete homes
Sunset perspective from the upper balcony of the 3D printed Miami home on Biscayne BaySunset perspective from the upper balcony of the 3D printed Miami home on Biscayne BaySunset perspective from the upper balcony of the 3D printed Miami home on Biscayne BaySunset perspective from the upper balcony of the 3D printed Miami home on Biscayne Bay
Section drawing of an individual MICROGROVE 3D printed housing unit for use in Miami’s Biscayne BaySection drawing of an individual MICROGROVE 3D printed housing unit for use in Miami’s Biscayne BaySection drawing of an individual MICROGROVE 3D printed housing unit for use in Miami’s Biscayne BaySection drawing of an individual MICROGROVE 3D printed housing unit for use in Miami’s Biscayne Bay
Perspective of researchers studying the permaculture aquatic plants and algae growth farming integratedPerspective of researchers studying the permaculture aquatic plants and algae growth farming integratedPerspective of researchers studying the permaculture aquatic plants and algae growth farming integratedPerspective of researchers studying the permaculture aquatic plants and algae growth farming integrated
Interior perspective of a man cooking in the MICROGROVE 3D printed home with built in cabinetry and woodworkInterior perspective of a man cooking in the MICROGROVE 3D printed home with built in cabinetry and woodworkInterior perspective of a man cooking in the MICROGROVE 3D printed home with built in cabinetry and woodworkInterior perspective of a man cooking in the MICROGROVE 3D printed home with built in cabinetry and woodwork
Plan drawings of the dock, permaculture, and gangway system for the MICROGROVE 3D printed housing community in MiamiPlan drawings of the dock, permaculture, and gangway system for the MICROGROVE 3D printed housing community in MiamiPlan drawings of the dock, permaculture, and gangway system for the MICROGROVE 3D printed housing community in MiamiPlan drawings of the dock, permaculture, and gangway system for the MICROGROVE 3D printed housing community in Miami
Perspective of the Crow’s Nest reflection and resting zone of the 3D printed microhome in MiamiPerspective of the Crow’s Nest reflection and resting zone of the 3D printed microhome in MiamiPerspective of the Crow’s Nest reflection and resting zone of the 3D printed microhome in MiamiPerspective of the Crow’s Nest reflection and resting zone of the 3D printed microhome in Miami
Plan drawing of the cabin spaces of the MICROGROVE 3D printed house combining the lounge and galley kitchen/bathPlan drawing of the cabin spaces of the MICROGROVE 3D printed house combining the lounge and galley kitchen/bathPlan drawing of the cabin spaces of the MICROGROVE 3D printed house combining the lounge and galley kitchen/bathPlan drawing of the cabin spaces of the MICROGROVE 3D printed house combining the lounge and galley kitchen/bath

OTHER PROJECTS

Seating design is vital in fostering communal interactions in shared spaces. Rooted in the organic growth principles of the Metabolist movement and the transformational geometric language of digital Metaballs, Meta-Bench forms an experiential seating system which individuals can move and adjust.
The CART live/work housing prototype adds a vertical profile to downtown while converting an underutilized public path into an urban gesture by introducing of a specialized food cart zone in New Haven. The CART residents would rent and appropriate the moving space as a means of expanding their zone.
Coney Island will remain a MUTANT appendage at the farthest shore of New York City. Coney is an agglomeration of all of its histories and should continue to simultaneously move each agenda forward. Coney will continue to evolve through mutations— this vision will accelerate its hybridity.
The challenge of creating a pair of studio apartments that can fill a lifted 16'x16' void necessitates the creation of a quick, mobile, and opportunistic building system that can react to the found conditions of the site. Access to the site is limited and the ground must be free.
The GBN project sites itself as this link connecting the busiest night life district and revitalized neighborhood park in the north, the largest beach front in the city to the south, and establishes the cities first large public plaza and recreation fields adjacent to the new building.
The Urban Test Object (UTO) serves as a large-scale intervention that accelerates our relationship with the future city. Rather than solving issues like density, infrastructure, or access, the UTO heightens awareness of the rapid urban transformations shaping our future.
University Island is a swirling shapeshifter, in both the landscape and the architecture, that offers it’s undefined field of opportunities to the students and anticipates that each will discover and produce their own individual relationship with the island and their education.
In Tempe there are two pedestrian axes: Mill Avenue and Palm Walk. Mill Avenue is successful and Palm Walk is not. Is there a way to make the palm trees useful to the students? The PEP structure is powered by buried hydraulic pressure systems giving vertical movement to the layer/palm interface.

OTHER RESEARCH