← Projects/Interlocking Membrane System
Pavilion design at the architecture building in Universidad Iberoamericanacana
Pavilion design at the architecture building in Universidad Iberoamericanacana
Physical prototype of a membrane with 6 interlocking plates
Physical prototype of a membrane with 6 interlocking plates
Interlocking Assembly Tests
Interlocking Assembly Tests
Design strategy for pavilion's global geometry
Design strategy for pavilion's global geometry
Triangular Mesh Generator produces meshes with consistent face sizes
Triangular Mesh Generator produces meshes with consistent face sizes
Manually modeled mesh as a base for pavilion design
Manually modeled mesh as a base for pavilion design
Mesh after dynamic relaxation
Mesh after dynamic relaxation
Discretized pieces follow the design of the mesh
Discretized pieces follow the design of the mesh
Segmentation of YYY plates
Segmentation of YYY plates
Segmentation of YY (edge) plates
Segmentation of YY (edge) plates
Physical demonstration of the system
Physical demonstration of the system
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Interlocking Membrane System

Material Research Project and Pavilion Design

System Overview

The Interlocking Membrane System (IMS) was developed through experimental research on thin membranes.

Elastically bent polypropylene pieces can be cut into polygonal sheets and assembled with an interlocking connection. Two sheet types were tested: “YYY” (internal component) and “YY” (edge component), which can be assembled manually without the need for additional fasteners or adhesives. The connection of multiple sheets results in a surface that can approximate different curvatures while displaying a multi-layered tectonic and translucency under light. Additionally, a logic for standardizing triangular mesh faces was devised to limit the geometric variation between different pieces.

Charge Field Pavilion

A prototype pavilion was designed to demonstrate the capabilities of the system as a ceiling addition in an existing space.

It was tailored for a double-height workshop in the QPB Building at Universidad Iberoamericana, Mexico City. Its geometry aims to enhance the current lighting setup of the space through a single undulating element that frames the 6 existing luminaries.

A workflow was developed to integrate all aspects of the design: surface edge forming, mesh generation and relaxation, mapping of piece locations and the generation of laser cutting DXF files. The pavilion was not built due to the Covid pandemic restrictions.

Materials
Polypropylene, Plastic
Team
Alan Eskildsen, Roberto Athie, Fernando Cebeira
Location
Mexico City, Mexico
Year
2019-2020
Status
Concept, Small-scale prototype
Course
Digital Design and Production Workshop
Tutor
Rolando Rodriguez-Leal
Institute
Department for Architecture, Urbanism and Civil Engineering
University
Universidad Iberoamericana
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