Digital Fabrication
Dynamics and Density
Explore the dynamic and density of fluidity within architecture
September 2023- January 2024
Research question
Research delves into the tectonics of “morpho-genesis” (Bio-inspiration organic design) and forms the focus based on: Explore the dynamics and density of fluidity within architecture
Abstract
This research investigates the application of morphogenesis principles to architectural design, focusing on fluid dynamics in an architectural context. Drawing inspiration from natural phenomena of fluid movement, the project explores density transitions in internal and external spaces. The research uses digital parametric tools to create adaptive and efficient designs that respond to environmental challenges while enriching the spatial experience.
Research focus
The core research question examines how the dynamics and density of fluidity can be integrated into structural systems beyond traditional architectural frameworks. The study aims to understand the morphological properties of liquid transitions, analysing how variations between light and dense forms impact spatial connectivity. A key aspect involves employing pattern-based thinking to develop geometric forms and modular elements using Rhinoceros and Grasshopper software. Additionally, the project explores how digital design strategies can enhance sustainability by minimising material use and addressing environmental conditions through adaptive responses.
Design Theory
The research draws heavily on the principles of morphogenesis, emphasising organic growth and adaptation. The design theory is rooted in controlled pattern differentiation, where modular components are replicated to form cohesive shapes. By adopting a performance-based digital approach, the project aligns architectural elements with environmental contexts. These principles enable designs that respond dynamically to climate challenges while ensuring structural and spatial coherence. The project also incorporates the "cell tissue" replication concept to create interconnected patterns that mimic natural growth processes, fostering ecological and functional design.
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The key concepts of design theory would be based on:
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Controlled differentiation and patterning of geometric elements.
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Replication of modular components to create interconnected fluid form.
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Adaptive responses to environmental conditions, particularly addressing climate challenges.
Concept Sketch
Extracted geometry
