Architecture project // Pneumatic Habitat Utilizing Inflatable Silicone and Regenerative Systems for Sustainable Living

Pneumatic Habitat Utilizing Inflatable Silicone and Regenerative Systems for Sustainable Living

Authors:

Yi Han Zhang, Junye Zhong

Utilizing a pneumatic structure crafted from inflatable silicone, this habitat integrates adaptive design and regenerative life support systems to create a self-sustaining living environment for extended habitation in extreme conditions.

5 key facts about this project

Pneumatic structure allows for dynamic shape adjustment in response to environmental conditions.

Inflatable silicone panels provide thermal insulation and structural integrity.

Tessellated geometry maximizes both modularity and space efficiency.

Integrated regenerative life support systems ensure self-sufficiency for occupants.

Transformable interior spaces facilitate multiple functions within a compact footprint.

General keywords

mars habitat sustainability pneumatic tessellation modularity self-sufficiency life support regenerative innovative

Project specific keywords

silicone inflatable tessellated modular skylight regenerative ecosystem adaptive pneumatics self-sustaining

## Analytical Report: PATH // Pneumatic Adaptive Tessellation Habitat

### Overview

The PATH: Pneumatic Adaptive Tessellation Habitat is conceived for potential deployment in extreme environments, specifically targeting conditions found on Mars. The design focuses on sustainable living solutions that are adaptable to the unique challenges of extraterrestrial habitation. The habitat emphasizes swift deployment and functional versatility, enabling it to respond effectively to the harsh and unpredictable climate of space.

### Structural and Functional Innovations

#### Adaptive Pneumatic System

The habitat incorporates an adaptive pneumatic system, utilizing inflatable silicone padding that adjusts to external environmental changes. This system enhances thermal insulation and structural integrity while providing a dynamic response to temperature variations and radiation exposure. The tessellated geometric configuration, resembling a rhodontriacontahedron, distributes stresses efficiently, allowing the habitat to expand or contract based on occupancy and environmental conditions.

#### Ergonomic Interior Design

Internally, the layout is designed to optimize ergonomic efficiency and utility through transformable spaces that accommodate various functions, seamlessly transitioning between living and working areas. A regenerative life support system is embedded within the design, facilitating oxygen generation, waste recycling, and space for food cultivation, essential for long-term habitation. Additionally, circadian skylights are positioned strategically to mimic natural light cycles, promoting occupant well-being, while integrated storage solutions maximize space within the compact environment.

This architecture demonstrates the potential for a closed-loop ecosystem, prioritizing sustainability and autonomous living. The mobility aspect, characterized by a dual-layer mechanical system, enhances its capability to navigate diverse terrains while maintaining structural stability, further supporting future colonization efforts on Mars and similar planetary bodies.