23.02.2014 Views

Shape

Shape

Shape

SHOW MORE
SHOW LESS

You also want an ePaper? Increase the reach of your titles

YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.

389 Background<br />

and his current followers. They relish hard problems where things stay the same, yet<br />

sometimes problems are hard only because of the way they’re set up to start. It’s easier<br />

not to worry about this and to let things alter freely, as they do calculating with shapes<br />

or copying Wittgenstein’s ‘‘figures on paper.’’ An account of George Birkhoff’s aesthetic<br />

measure and its information-theoretic counterpart E Z is in Algorithmic Aesthetics. 17 For<br />

an incisive discussion of value in design, see March’s classic essay ‘‘The Logic of Design<br />

and the Question of Value.’’ 18 March goes on to consider C. S. Peirce’s famous trio of<br />

inferential categories in design—these are deduction and induction, as expected, and<br />

then, in addition, abduction. Roughly speaking, going from shapes to their descriptions<br />

corresponds to deduction, going from descriptions to shapes to abduction, and<br />

figuring out schemas and rules in the first place to induction. March puts this together<br />

in a cyclic model of design that applies in some telling ways. Peirce is keen on clarity,<br />

albeit each kind of inference holds alternative choices with a combinatorial (syntactic)<br />

uncertainty or ambiguity of its own. The lines I’ve quoted form Søren Kierkegaard<br />

are copied from my introduction. Mine Ozkar chronicles the artistic adventures of<br />

Denman Ross and Arthur Dow, and the incidental interactions of the former with<br />

William James at Harvard and the noteworthy relationship of the latter with John<br />

Dewey at Columbia. 19 More important, though, shapes and rules are compatible with<br />

open-ended experiment in the design studio.<br />

All this prevails in the distinctive pedagogical standpoint shared by Ross and Dow. . . . Individuals<br />

are encouraged in their unique ways, which can only be represented in temporary and discardable<br />

conceptual structures. 20<br />

Better still, every rule—even an identity—implies a new (original) conceptual structure<br />

every time it’s applied to a shape. The way topologies are redefined on the fly is a good<br />

example of how this works, but there are many other examples throughout this book.<br />

Ordinarily, design and calculating are worlds apart. Sometimes, a brief alliance is<br />

formed when calculating produces things designers want to use and can’t make on<br />

their own. Then it’s one way calculating and another way when design works its magic—there’s<br />

a discrepancy between what the computer does and what the designer sees.<br />

This exposes shortcomings in both calculating and design, and the divide between<br />

them. Yet now, the ‘‘two cultures’’ fuse. My initial metaphor is equality—<br />

design ¼ calculating<br />

—not because design is calculating in the usual way, but because calculating is more<br />

than it’s supposed to be. Design is calculating with shapes and rules. It’s seeing and<br />

doing, and all that follows as I go on.<br />

Today, there are far too many examples of shape grammars in design—including<br />

architecture and engineering—to be cited item by item. Most of this material is in<br />

Environment and Planning B: Planning and Design from 1976. Nonetheless, there are<br />

two pioneers of the subject whose work has been widely influential—Ulrich Flemming<br />

and Terry Knight. 21

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!