authors 
Burry, M., Datta, S. and Anson, S. 
year 
2000 
title 
Introductory Computer Programming as a Means for Extending Spatial and Temporal Understanding 
source 
Eternity, Infinity and Virtuality in Architecture [Proceedings of the 22nd Annual Conference of the Association for ComputerAided Design in Architecture / 1880250098] Washington D.C. 1922 October 2000, pp. 129135 
summary 
Should computer programming be taught within schools of architecture? Incorporating even lowlevel computer programming within architectural education curricula is a matter of debate but we have found it useful to do so for two reasons: as an introduction or at least a consolidation of the realm of descriptive geometry and in providing an environment for experimenting in morphological timebased change. Mathematics and descriptive geometry formed a significant proportion of architectural education until the end of the 19th century. This proportion has declined in contemporary curricula, possibly at some cost for despite major advances in automated manufacture, Cartesian measurement is still the principal ‘language’ with which to describe building for construction purposes. When computer programming is used as a platform for instruction in logic and spatial representation, the waning interest in mathematics as a basis for spatial description can be readdressed using a leftfield approach. Students gain insights into topology, Cartesian space and morphology through programmatic form finding, as opposed to through direct manipulation. In this context, it matters to the architectprogrammer how the program operates more than what it does. This paper describes an assignment where students are given a figurative conceptual space comprising the three Cartesian axes with a cube at its centre. Six Phileban solids mark the Cartesian axial limits to the space. Any point in this space represents a hybrid of one, two or three transformations from the central cube towards the various Phileban solids. Students are asked to predict the topological and morphological outcomes of the operations. Through programming, they become aware of morphogenesis and hybridisation. Here we articulate the hypothesis above and report on the outcome from a student group, whose work reveals wider learning opportunities for architecture students in computer programming than conventionally assumed. 
series 
ACADIA 
email 
mark.burry@rmit.edu.au 
full text 
file.pdf (335,133 bytes) 
references 
Contenttype: text/plain
details 
citation 
check to select 

Fox, C.W. (1989)
Integrating computing into an Architectural Undergraduate program
, The Electronic Design Studio: Architectural Knowledge and Media in the Computer Era. Malcolm McCullough, W.J. Mitchell and P. Purcell (eds).The MIT press. 377386



Frew, R.S. (1989)
The organisation of CAD teaching in design schools
, The Electronic Design Studio: Architectural Knowledge and Media in the Computer Era. Malcolm McCullough, W.J. Mitchell and P. Purcell (eds).The MIT press. 387392



Knuth, D.E. (1968)
The art of computer programming
, AddisonWesley Publishing Company. Reading, Mass



Lynn, G. (1998)
Animate Form
, Princeton Architectural Press, New Jersey



Maeda, J. (1999)
Design by Numbers
, MIT Press, Cambridge



McCullough, M. (1997)
Abstracting Craft : The Practiced Digital Hand
, MIT Press, Cambridge



Mitchell, W.J. (1987)
The art of computer graphics programming: a structured introduction for architects and designers
, Van Nostrand Reinhold, New York



Streich, B. (1992)
Should We Integrate Programming Knowledge into the Architectís CAADEducation?
, CAAD Instruction : The New Teaching of an Architect eCAADe Conference Proceedings, Barcelona (Spain). 399406



Weizenbaum, J. (1976)
Computer power and human reason: from judgment to calculation
, W. H. Freeman, San Francisco



Winograd, T. (1986)
Understanding computers and cognition: a new foundation for design
, Ablex Pub. Corp., Norwood, N.J



Winograd, T. (1996)
Bringing design to software
, ACM Press, New York, N.Y



last changed 
2003/05/15 19:17 
