PHYTOSIS

Project idea

Phytosis is an adaptive, bio-responsive architectural system designed to bridge the gap between nature and interior environments. Inspired by the self-regulating mechanisms of forest ecosystems, the project acts as a "living" machine that redefines traditional interior furniture typologies. By integrating biomimetic geometry with active hydraulic management, Phytosis creates a regenerative space that responds to user presence and environmental variables.
Goals and Objectives:
Environmental Regeneration: To convert stagnant interior spaces into active, oxygen-rich environments through a localized micro-climate created by micro-nozzle misting arrays.
Resource Autonomy: To achieve a fully off-grid operation by integrating flexible thin-film photovoltaic (PV) cells into the ETFE membrane canopy, capturing solar energy to power pumps and sensors.
Human-Nature Synergy: To enhance the physical and mental well-being of the user by providing a restorative, multi-sensory experience that promotes environmental awareness.
Sustainable Fluid Dynamics: To implement a closed-loop water cycle that collects ambient moisture and precipitation, processes it through a multi-stage filtration module, and ensures zero water waste.
Phytosis challenges the conventional perception of furniture by proposing a future where interior elements actively contribute to the sustainability of the built environment.

Project description

The scope of Phytosis encompasses the development of an adaptive, bio-inspired interior furniture system that integrates mechanical, electrical, and hydraulic components into a unified structural unit. The solution is scalable and applicable to various interior contexts, including:
Public and Commercial Spaces: Enhancing indoor environments in airports, shopping malls, and office atriums where large volumes of people require climate-controlled, restful zones.
Residential Application: Providing a sophisticated, sustainable solution for large-scale residential lobbies or winter gardens, fostering a direct connection to nature
Environmental Impact: The scope extends beyond aesthetic furniture design to active environmental management, aiming to mitigate the "sick building syndrome" by improving indoor air quality and thermal comfort through localized misting and moisture collection.
Technological Integration: The solution defines a framework for off-grid modularity, demonstrating how interior design can function as an independent ecological unit without requiring connection to central utility grids.

Technical information

Structural & Material Framework:
Canopy Membrane: ETFE (Ethylene Tetrafluoroethylene) membrane structure with integrated thin-film photovoltaic (PV) cells for energy conversion.
Structural Support: Lightweight, high-strength tubular steel frame housing the internal plumbing and electrical routing.
Foundational Base: Modular reinforced composite platform containing the primary storage reservoir and filtration modules.
Hydraulic & Climate Control System:
Collection mechanism: ETFE canopy surface acts as a catchment area for ambient humidity and precipitation, directing water to the central intake.
Filtration Module: Multi-stage mechanical and sediment filtration system, ensuring water purity before reaching the misting arrays.
Misting Arrays: High-pressure circulation pump delivering purified water to micro-nozzle arrays embedded within the furniture, facilitating evaporative cooling.
Control Unit: Integrated sensor network monitoring tank levels, filter status, and pressure, with an adaptive regulation algorithm to optimize misting frequency based on user presence and real-time environmental data.
Energy Systems:
Power Generation: PV canopy converts solar radiation into DC electrical energy.
Energy Storage: On-board battery storage system ensures 24/7 autonomous operation for sensors, pumps, and control logic.

Documentation

Show PDF 1