ESP Biography
MAX ZIMET, MIT junior: Math with Computer Science, Physics
Major: 8 (physics), 18C (math with cs) College/Employer: MIT Year of Graduation: 2014 |
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Brief Biographical Sketch:
I am from Aspen, CO. I like skiing a lot, as well as other sports. I was a policy debater in high school. I play the trombone and the tuba (not too well, though). I have been into computer science since about 6th grade, when I learned my first programming language. Since then, I've learned a lot of computer languages, built a calculator, and built a few websites. I also like math and physics. For about one year, I worked on math research (the inverse spectral problem for the ellipse). This year, I am working on understanding high-temperature superconductors using holography (a spin-off of string theory). Lastly, and most importantly, when I was in 6th grade I had a hamster. I called him Hammy. He (or she?) was awesome, because when I stuck my hand in the cage he (or she?) would crawl around on my hand, whereas when my brother stuck his hand in he (or she?) would bite him. I also had a fat-tailed gecko, whom I named Lumpy. Here are the classes I have taken/am taking at MIT, in case you want to ask me questions about any of them: Fall 2010 IAP 2011 Spring 2011 Fall 2011 IAP 2012 Spring 2012 Fall 2012 Past Classes(Clicking a class title will bring you to the course's section of the corresponding course catalog)S6241: Quantum Computing: When 0 and 1 Just Aren't Enough in Splash! 2012 (Nov. 17 - 18, 2012)
The universe is weird. But this weirdness is useful. Come have your mind blown and learn about how we can harness this weirdness to solve problems in ways that seem inexplicably fast. Gain intuition for why quantum mechanics is weird! Learn about computing with bits that aren't just 0 or 1, but somehow both at the same time, and how early versions of these computers have already been built. No prior knowledge of quantum mechanics will be assumed.
S5029: Entropy, and Deriving the Ideal Gas Law: Statistical Mechanics in Splash! 2011 (Nov. 19 - 20, 2011)
Have you seen people walking around MIT with shirts saying $$\frac{PV}
{nR}$$ and wondered why that was supposed to equal T? Have you ever
wondered why time moves forward; why cold things melt; how we are
supposedly running out of energy, despite the fact that scientists
tell us that energy is conserved; why engines cannot be perfectly
efficient? We will introduce the physical variable entropy and
describe some of its many uses in science. One of these will be to
derive the famous ideal gas law $$PV=nRT.$$
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