Sound to Space

Thu, 07 Jan 2016 16:34:00 +0300

Digital design 2 (dm2) is a week-long course taught to third-semester architecture students at the Institute of Architecture with the aim of introducing computational design thinking and related practices. The course was originally taught using MEL scripting in Maya.

The course theme for 2016 was “Sound to Space” and aimed at using sound input to generate geometry. In January 2016 I ran an iteration of the course using the programming language Processing. For this purpose I also wrote a short booklet introducing basic programming concepts in Processing (see Processing Booklet). This workshop iteration used FFT over a live sound input to generate interactive graphics.

Teacher
Constantinos Miltiadis

Teaching assistants
Markus Bartaky, Ludwig Grimm, Martin Schrotz

Porocity

Mon, 30 Sep 2013 12:26:43 +0300

Porocity is a collaborative procedural design project implementing shape grammars in Processing. Produced by the 2013 MAS CAAD class at the Chair for Digital Architectonics (née Chair for CAAD), during a programming course taught by Benjamin Dillenburger.

Interactive Kinetic Structures

Wed, 10 Oct 2012 11:13:53 +0300

Interactive Kinetic Structures is a prototype for an interactive architectural structure developed in 2012 as a diploma thesis project at NTU-Athens. The aim of the project was the production of a proof-of-concept for an architectural structure able to interact and reconfigure itself according to parameters of its immediate environment and different use scenarios. The concept for this work departed from the design flexibility of parametric design methods, and the intention of maintaining such flexibility as responsiveness even after the course of the design process:

What if we could transform the object of architecture from the design of the defined to the design of the unpredictable?

Video demo

Project description

The main component of the project is a custom software written in the Processing programming language. The software was responsible for the computational modeling of the structure, real-time interaction, and visualization (see video demo). The project also includes a functional physical modeling prototype with stepper motors and custom extendable beams developed with Arduino-based electronics, and controlled in real-time by the Processing software (see image 9). Moreover, a parametric CAD model developed in Rhino and Grasshopper was responsible for generating 3D models of instances of the structure using data forwarded by the Processing software via OSC. These were used to generate 3D renderings and 3D prints.

The structure itself consists of two parallel grids: a triangular grid at the bottom and a hexagonal grid at the top. The two grids comprise of extendable beams. These are connected to each other with fixed-length beams, while all joints allow for free rotation. The structure is supported by vertical extendable beams at the outline of the lower grid. This configuration makes up a rigid spaceframe which can be deformed while maintaining structural integrity by altering the beam lengths of the two parallel grids (see image 3). The structural deformation solver was modeled using a mathematical equation based on triple-sphere intersection. The structural detailing of the project provisioned for pneumatic extendable beams, and explored three types of joints using antiprism nodes with universal mechanical joints, ball joints, and solid elastic polymers (see project booklet).

The project investigated two distinct use scenarios: playful interaction with people and adaptation to environmental conditions.
The first scenario produced continuous animations and transformations the structure according to the movements and densities of people under it in real-time, thus in a way encourage playful interaction between people in public space (see image 5). This was modeled virtually using a boid system, and was demonstrated live using a Kinect (spatial scanning) sensor.
The second made use of a solar radiation model that would calculate the position of the sun for a particular geolocation so that the structure would adapt accordingly to generate the maximum possible area of shade at any given moment of time (see image 6).
Moreover, the project explored a range of possible configurations of the structure based on various mathematical equations such as hyperbolic paraboloid and monkey saddle surfaces as well as various trigonometric equations (see 3D renderings below).

Project information

Interactive Kinetic Structures was developed in 2012 as a diploma thesis project at NTU-Athens, under the supervision of Prof. Dimitris Papalexopoulos. It was presented to a four-memeber jury in October 2012 and graded 10/10.

The project was one of the finalists of the international competition ALGODeQ: Algorithmic Design Quest in 2013.

A paper based on this project was presented at the 2013 eCAADE conference at TU Delft, in September 2013.

Credits

Concept & development
Constantinos Miltiadis
Supervision
Dimitris Papalexopoulos
Additional support
Petros Koutsolambros, Ero Papavasiliou, Spyros Efthymiou, Eliza Neophytou, Antonis Tzortzis, Serafeim Matzoufas, Antreas Alygizos

Processing | studio any