"Surely You're Joking, Mr. Feynman!" - unam.
"Surely You're Joking, Mr. Feynman!" - unam.
"Surely You're Joking, Mr. Feynman!" - unam.
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In the Princeton cyclotron lab they had a big carboy a monster bottle of water. I<br />
thought this was just great for the experiment. I got a piece of copper tubing and bent it<br />
into an Sshape. Then in the middle I drilled a hole, stuck in a piece of rubber hose, and<br />
led it up through a hole in a cork I had put in the top of the bottle. The cork had another<br />
hole, into which I put another piece of rubber hose, and connected it to the air pressure<br />
supply of the lab. By blowing air into the bottle, I could force water into the copper<br />
tubing exactly as if I were sucking it in. Now, the Sshaped tubing wouldn't turn around,<br />
but it would twist (because of the flexible rubber hose), and I was going to measure the<br />
speed of the water flow by measuring how far it squirted out of the top of the bottle.<br />
I got it all set up, turned on the air supply, and it went "Puup!" The air pressure<br />
blew the cork out of the bottle. I wired it in very well, so it wouldn't jump out. Now the<br />
experiment was going pretty good. The water was coming out, and the hose was twisting,<br />
so I put a little more pressure on it, because with a higher speed, the measurements would<br />
be more accurate. I measured the angle very carefully, and measured the distance, and<br />
increased the pressure again, and suddenly the whole thing just blew glass and water in<br />
all directions throughout the laboratory. A guy who had come to watch got all wet and<br />
had to go home and change his clothes (it's a miracle he didn't get cut by the glass), and<br />
lots of cloud chamber pictures that had been taken patiently using the cyclotron were all<br />
wet, but for some reason I was far enough away, or in some such position that I didn't get<br />
very wet. But I'll always remember how the great Professor Del Sasso, who was in charge<br />
of the cyclotron, came over to me and said sternly, "The freshman experiments should be<br />
done in the freshman laboratory!"<br />
Meeeeeeeeeee!<br />
On Wednesdays at the Princeton Graduate College, various people would come in<br />
to give talks. The speakers were often interesting, and in the discussions after the talks we<br />
used to have a lot of fun. For instance, one guy in our school was very strongly anti<br />
Catholic, so he passed out questions in advance for people to ask a religious speaker, and<br />
we gave the speaker a hard time.<br />
Another time somebody gave a talk about poetry. He talked about the structure of<br />
the poem and the emotions that come with it; he divided everything up into certain kinds<br />
of classes. In the discussion that came afterwards, he said, "Isn't that the same as in<br />
mathematics, Dr. Eisenhart?"<br />
Dr. Eisenhart was the dean of the graduate school and a great professor of<br />
mathematics. He was also very clever. He said, "I'd like to know what Dick <strong>Feynman</strong><br />
thinks about it in reference to theoretical physics." He was always putting me on in this<br />
kind of situation.<br />
I got up and said, "Yes, it's very closely related. In theoretical physics, the analog<br />
of the word is the mathematical formula, the analog of the structure of the poem is the<br />
interrelationship of the theoretical blingbling with the soandso" and I went through<br />
the whole thing, making a perfect analogy. The speaker's eyes were beaming with<br />
happiness.<br />
Then I said, "It seems to me that no matter what you say about poetry, I could find<br />
a way of making up an analog with any subject, just as I did for theoretical physics. I