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classes in the form of a Socratic dialogue with his students.<br />

Typically, Steiner would present a problem in construction<br />

to his class; for example, how to map one circle onto<br />

another, so that for each point of one circle, there could<br />

be found a definite corresponding point of the other. The<br />

entire attention of the class would be directed toward generating<br />

the solution. Steiner would intervene only to direct<br />

a process of education through problem solving, largely<br />

carried out by the students themselves. The outcome was<br />

a process that made the most ordinary student capable of<br />

thinking with scientific rigor.<br />

Geometry and Socratic Dialogue<br />

The primary result of instruction was not that the<br />

students mastered individual problems, but rather that<br />

in solving problems, they began thinking in terms of<br />

relationships instead of fixed objects. Steiner emphasized<br />

that the relationships discovered to exist between<br />

geometrical constructions were primary to the individual<br />

constructions themselves. In order to encourage the<br />

students to make full use of their imaginations, Steiner<br />

"used no figures in his classes," Felix Klein reported.<br />

"The active thinking of the listener was supposed to<br />

generate such a clear picture in his imagination that no<br />

material image would be needed."<br />

Already while a student at Yverdun, Steiner had sought<br />

to advance the method of teaching geometry as well as<br />

the subject matter itself. He described the early evolution<br />

of his thinking in applications for financial support he made<br />

later in 1826 and 1827:<br />

The method brought into practice at the Pestalozzi<br />

Institute to treat the mathematical truths as subjects of<br />

free reflection (Nachdenken), caused me, as a student<br />

there, to search in place of the propositions put forward<br />

in the instruction, for other, where possible more<br />

profound grounds than those which my teachers at<br />

that time advanced, and in which I was often so successful<br />

that the teachers preferred my proofs to their<br />

own. . . . My many-sided occupation with mathematical<br />

instruction, combined with my own intense scientific<br />

efforts, gave my activity in this domain a direction<br />

which began early to depart from the usual one.<br />

As a student, what was thrust upon me, after I studied<br />

several textbooks of geometry, was the arbitrary<br />

nature of the order that, from the want of substantive<br />

connection, arose from relating individual propositions<br />

as such: I found somewhat arbitrarily, somewhat<br />

empirically, that the necessity of science is proven from<br />

its substantive content, and—according to a feeling<br />

mysteriously enlivening me—that the entire manifold<br />

of material must follow from its general unity and must<br />

be exhausted accordingly.<br />

It was clear to me, that so long as the synthetic method<br />

was sought in this external, arbitrary connection of<br />

individual propositions, we mislead the student in the<br />

presentation that the individual propositions as such<br />

were the object of science, and to him the perception<br />

of its general synthetic unity is so obscured, that he<br />

learns to comprehend its evidence always only as the<br />

<strong>21st</strong> <strong>CENTURY</strong> November-December 1988 51

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