orambra
orambra
i/o Discourse No. 1
21C Necessity
Contents
Why Responsive?
(2004) Filamentosa
What?
Architecture
More About Why
(2003) Frais
When Architecture Bleeds
(2004) Lotus
(2004) Actuated Tensegrity Structures
Architectural Technologies Research
(2005) East Darling Harbour
Qualifications
Qualifications

THE OFFICE FOR ROBOTIC ARCHITECTURAL MEDIA & BUREAU FOR RESPONSIVE ARCHITECTURE
Copyright © 1998-2009 Tristan d'Estree Sterk

Paper
Shape control within architectural structures is a natural extension to the practice of engineering and architectural design. The knowledge needed for this builds upon two well understood foundations: 1) the long existing knowledge that building performance and function are intimately connected to the shape of built spaces; and 2) the relatively new idea that embedded computational systems may be employed to control devices in useful and beautiful ways. When combined each type of knowledge can be used to further architecture and engineering at both theoretical and methodological levels. Structural shape control is of major interest within architecture because it is the primary ingredient needed to produce building envelopes that change shape. Structural shape control also currently represents a major technological and methodological stumbling block for architects, posing many challenges that have theoretical and practical origins. Theoretically, responsive architectural structures demand a re-evaluation of existing notions of space making. Practically these systems demand a re-evaluation of construction and design methodologies across both engineering and architectural practice.
Shape Control in Responsive Architectural Structures - Current Reasons & Challenges:
Sterk, Tristan d'Estree (2006) Shape Control in Responsive Architectural Structures - Current Reasons & Challenges, 4 World Conference on Structural Control and Monitoring [4WCSCM - online], 11-13 July 2006, San Diego USA & The Proceedings of the 25th Association of Computer Aided Design In Architecture [ISBN 10: 0-9789463-0-8] conference "Sytnthetic Landscapes" Louisville Kentucky 12-15 October 2006, pp. 251-260

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CREDIT: Audio/Video Excerpt from the Association of Computer Aided Design in Architecture: a selection from the Technical Research Session at ACADIA 2006 (University Of Kentucky, Louisville Kentucky) 12-15 October 2006.

One cannot understand the relevance of shape control within architectural structures without coming to grips with the theoretical and practical position that designers find themselves in today. Shape control within architecture is significant because it provides a series of new technologies and methods that architects can apply to realize current theoretical positions - positions that have until now struggled to find any built resolution.

Theories represent the highest type of knowledge used within architecture. They provide specific knowledge that is distinct from the knowledge captured within methodologies or styles. Theories are used to build meaningful relationships between building forms and existing visions of the world. The values that underlie a significant portion of architectural design today have been undeniably shaped by general system theory. In the 1950s, system theory fundamentally changed the understanding that architects had of the world. The change was significant because it led architects to question concepts of space, structure, and time. Concepts of 'rationality' were also challenged.

General system theory demanded that the profession of architecture recast the assumptions that it had previously made about space and the relative influences people had over it. New more sophisticated models of our relationship to space were produced which, in turn, lead architects to question the way they designed for people. Though a gradual shift away from simple models of space, time, and rationality, new values and design goals resulted. It is from within these developments that feedback became a tool for use within architecture.

As a mechanism, architects discovered that feedback could be incorporated directly into buildings via the use of responsive systems and that these systems would enable spaces and people to enter into a dynamic relationship. With this shift the tradition of modernism within architecture was slowly eroded, until in the mid 1960s, responsive systems became a favorite topic of the discipline. Unfortunately this movement was short lived. It came to an end in the mid 1970s as architects struggled to build the computational and structural systems needed to implement their new architectures. By the 1980s the idea for using responsive systems within buildings had completely transferred from architecture into the domain of engineering.

Engineering precedents for the use of adaptive structural systems are varied and include now commonly known systems such as mass dampeners, piezoelectric structures, actuated tensegrity systems and deployable structural systems. References for the use of actuated tensegrity systems can be found within aeronautical, marine, space, and civil applications. Namesake works for other types of adaptive structures also exist with Chuck Hoberman's spheres providing one example. These precedents form an important part of the practical knowledge currently available for the development of shape control within architecture. It is worth quickly mentioning that this practical wisdom is encapsulated within methodological knowledge. Methodologies provide designers with ways to attack design problems and realize solutions against higher-level goals. Within architecture, methodologies typically constitute inside-out or outside-in approaches to design. Within engineering, methodologies constitute approaches for calculating how a particular element will perform within a larger system. Because shape controllable structures and building envelope systems are currently unsupported by architectural design methodologies, engineering methods provide an important starting point for the development of new types of architectural knowledge.

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EXHIBIT: MAKE IT WORK - Engineering Possibilities (2009)
The Center For Architecture, AIANY

PANEL: Multidisciplinary Innovation (4 Feb 2009)
The Center For Architecture, AIANY

MEDIA: Discovery Science TV (2008)
Weird Connections: Episode 10

Balkon Contemporary Art (2008)
Magazine Article: "Mechanikus ter, biologiai ido"

MEDIA: BBC World Service (2007)
BBC

MEDIA: ABC Radio National (2007)
ABC

Newsweek Polska (2007)
NEWSWEEK.COM

MEDIA: Wired (2006)
WIRED

MEDIA: The Economist (2006)
ECONOMIST

MEDIA: CNN Future Summit (2006)
CNN

MEDIA: Technik / Zeit Wissen (2006)
Zeit Wissen

MEDIA: Except from ACADIA (2006)
Link

MEDIA: ArchitectureWeek (2006)
Link

MEDIA: Radio Adelaide 101.5 (2005)
Radio Adelaide

PROJECT: Filamentosa Ultra-lightweight Skyscaper (2004)
Project

PROJECT: Lotus Environmental Sensor Network (2004)
Project

PROJECT: frais Chicago (2003)
Project

PROJECT: ideaCloud Grange Beach (1998)
Project

PROTOTYPE: Films 1 & 2 (actuated class 3)
Prototype

PROTOTYPE: Films 3 & 4 (actuated class 3)
Prototype

PROTOTYPE: Films 5 & 6 (actuated class 2)
Prototype

PROTOTYPE: Films 7 & 8 (actuated class 2)
Prototype

PAPER: Using Actutated Tensegrity (2003)
Paper

PAPER: Structural Shape Control (2006)
Paper

PAPER: CAAD for Responsive Architecture (2007)
Paper

PAPER: Hybridized Control (2003)
Paper

PAPER: User Centered Interactions (2006)
Paper

PAPER: Cybernetic Form (2000)
Paper