Mballa

MBALLA Computational Design & Project management service

Alexandre Mballa - Ekobena

A selection of Experiments, Theories and Objects, showcasing what one does with and Architecture Background in an odd context. 

 

M.Sc in Integrative Technologies and Architectural Design Research,

ICD Institute for Computational Design and Construction

ITKE Institut für Tragkonstruktionen und Konstruktives Entwerfen

Universität Stuttgart.

structural force feedback winding

AME_BEH collab.png

Project Team : Bruno Knychalla, Federico Forestiero,

Prof.Achim Menges

Tutors: L. Nguyen, T. Schwinn, L. Vasey

 

Our aim was using core-less winding to to stabilise a flexible boundary using a behavioural fabrication loop.

This project is part of a wider ongoing research on Fabrication Agency at the Institute of Computational design of the University of Stuttgart. As part of a trio my contribution to the project primarily laid in hardware and sensing development.


The project had two phases as flaws in our initial setup led to a revisal of our proposal and informed the final and proposed fabrication loop.

 

For most production methods form work or frames are needed to create rigid structures. Generating a process that can react and adapt to flexible boundary conditions allows for great freedom in geometry and controlled rigidity in the system.

 

Furthermore, the processes allows to design a weak scaffolding that transform through elastic deformation into doubly curved structure. This structure will be reinforced while being deformed by a robot to create a framework that can take on external forces and can be space defining.

 

PART I

 

Robo-lab setup.

Sensing

Planning

Acting

Aim_01

Creation of a doubly curved rigid structure from a flexible boundary condition using core-less winding.

 

Hyphothesis

For most production methods form work or frames are needed to create rigid structures.

Generating a process that can react and adapt to flexible boundary conditions allows for great freedom in geometry and controlled rigidity in the system.

Furthermore, the processes allows to design a weak scaffolding that transform through elastic deformation into doubly curved structure.

This structure will be reinforced while being deformed by a robot to create a framework that can take on external forces and can be space defining.

 

Method

A boundary is created as a starting point for goal design that will be achieved through elastic deformation of the boundary from flexible material. 

Using coreless winding, real time robotic feedback and simulation methods, the weak structure is reinforced and deformed simultaneously. 

Constant updates of form and rigidity are necessary due to the flexible nature of the structure until the anticipated shape and a stable condition is reached.

 

PART II

AME_BEH_Chap2.png

Sensing

Aim_02

Creation of a rigid structure from a flexible boundary condition with least deformation.

 

Hyphothesis

For most production methods form work or frames are needed to create rigid structures.

Generating a process that can react and adapt to flexible boundary conditions allows for great freedom in geometry and controlled rigidity in the system.

Furthermore, the processes allows for humans to create and design just a weak scaffolding as the outline of a structure that the robot can act upon to create a framework that can take on external forces and can be space defining.

 

Method

A boundary is created according to a goal design from flexible material. Using coreless winding, real time robotic feedback and simulation methods, the weak structure is reinforced through an optimised path of least deformation. 

Constant updates are necessary due to the flexible nature of the structure until a stable condition is reached.


Workflow