July 11th, 2007 (10:36 pm)
current location:
Park Slope
current mood: accomplished
current song: They Might Be Giants
I ordered tickets online. I rushed to the movie theater an hour early. I wanted to see the fifth Harry Potter movie that badly. I know, I know—what is an intelligent mathematician like me doing watching a movie adaptation of a terribly written, albeit often enticing, children's book? Sure, the first two were absolutely abominable, but I must admit, they have gotten increasingly better and the child actors have also improved. The New York Times film critic A.O. Scott hit all the right points: Alan Rickman (Snape), Gary Oldman (Sirius Black) and Evanna Lynch's (Luna Lovegood) acting raised the movie to another level.
But anyway, after the movie, I headed back home to Park Slope with Liz and Dex, with whom I saw HP5. They're also professors at CCNY, specializing in differential equations and multivariate calculus. We stopped by Union Hall for the Secret Science Club. It was very interesting. Eugene Mirman, mainly known as a comedian, was discussing Euler's most famous theorem (e^iπ + 1 = 0) and applying it to nature. Isn't it amazing that raising a transcendental number to an irrational number can yield a rational number? It's just the most unlikeliest thing—and yet Euler figured it out.
I would now like to draw a parallel between Euler and me:
The other day, I met up with Liz and Dex at the Tea Lounge. We all live within walking distance from the hipster cafe, so we often run into each other there. And now that we're all teaching a high school math program at CCNY over the summer, we often hang out afterwards at the lounge and solve math problems. We like to give each other tough theorems to solve, and that day, Dex presented us with a theorem that Larry Z., possibly one of the most intelligent men alive and a former professor of ours when we were all grad students at Harvey Mudd, had shown him recently.
Dex said, "Larry said this is the most challenging theorem he's ever come across. There are only two ways to solve it. One is possibly the longest proof any theorem ever required and the other takes less than a page. I still haven't figured it out yet, but maybe you guys can help me?"
I rubbed my hands together, and snatched the pencil from behind my right ear. We all whipped out our giant composition notebooks and began scratching away. I think, having spent so much time together, Liz, Dex and I essentially started our proofs the same way: using calculus. But as I took a sip of my iced chai (by the way, the Tea Lounge makes delicious chai!), I thought about what Dex said. Suddenly, it dawned on me! Within moments, I had figured out the short proof. Instead of using calculus (derivatives and all that), whose tedious calculations would take forever and would be very susceptible to human error, I used Euler's theorem and some nonlinear algebra.
Like Euler, I reached within the recesses of my mind to find nontraditional ways to solve the problem. At first glance, Larry's theorem seemed to beg for a calculus-aided proof—but upon closer inspection and by thinking about the unlikeliest possibilities, I managed to solve this most challenging theorem. Larry would be proud of me. And, I like to believe, so would Euler.
Q.E.D