PIXA: Modular Pavilion Architecture for Flexible Public Spaces
PIXA explores modular pavilion architecture through lightweight fabric and steel systems that adapt to scale, function, and public use.
PIXA is an experimental approach to modular pavilion architecture, conceived as a flexible and replicable spatial system capable of generating structures of varying scales—from intimate shelters to expansive public canopies—using a single modular unit. Designed as a lightweight steel framework combined with organic fabric surfaces, PIXA redefines temporary and semi-permanent architecture through adaptability, ease of assembly, and spatial diversity.
The project investigates how repetition, aggregation, and modular logic can create meaningful public spaces without relying on fixed architectural typologies. Each PIXA module functions as an independent unit, yet gains architectural richness when combined with others, forming clusters that respond to social, environmental, and contextual needs.


Concept: Light, Shade, and Spatial Experience
At the core of PIXA lies the interplay between light and shade—two abstract natural elements that define the interior spatial experience. The translucent fabric envelope filters daylight, creating dynamic patterns of shadow that shift throughout the day. This changing light condition transforms the pavilion into a living environment, where architecture becomes responsive rather than static.
The organic, perforated fabric is layered over a steel skeleton, allowing each module to generate a unique micro-space. These variations encourage diverse activities such as gathering, relaxation, play, waiting, and informal social interaction, reinforcing the pavilion’s role as a catalyst for public life.
Modularity and Flexibility
PIXA’s strength lies in its modular logic. A single unit can be replicated, rotated, and connected to form configurations of different sizes and densities. This flexibility allows the structure to adapt to multiple contexts—parks, urban plazas, transport nodes, beaches, and event spaces—without altering its core construction system.
The modular pavilion architecture supports scalability: small clusters create intimate shelters, while larger aggregations form continuous canopies capable of hosting community events or large public gatherings. This adaptability makes PIXA suitable for both temporary installations and long-term urban interventions.


Material Strategy and Fabric Innovation
The pavilion combines a steel structural frame with an organic ripped fabric system. The fabric merges translucency with opacity, balancing visual permeability and solar protection. Its patterned surface not only enhances aesthetic appeal but also reinforces structural rhythm across the modules.
By integrating fabric as an active architectural element, PIXA challenges conventional notions of enclosure. The material defines space without fully enclosing it, maintaining visual continuity with the surrounding landscape while offering shelter and comfort.
Public Use and Social Engagement
PIXA is designed as a multi-use architectural system. Its modular pavilions accommodate a wide range of public activities including social gatherings, relaxation zones, children’s play areas, temporary restaurants, beach shelters, and bus stops. The open and inviting nature of the structure encourages spontaneous use, making it an inclusive and accessible public asset.
The pavilion’s colorful fabric variations further enhance user engagement, creating identity and visual orientation within larger installations. These chromatic differences help define zones while maintaining a cohesive architectural language.
PIXA presents a forward-looking vision of modular pavilion architecture—one that prioritizes flexibility, lightness, and human experience. By combining modular steel frames with responsive fabric systems, the project demonstrates how simple architectural units can generate complex, adaptable public spaces. PIXA ultimately positions modular design not as a constraint, but as a powerful tool for creating dynamic and socially responsive environments.
Project By: Hermann Kamte

