What is physics? And for that matter, what exactly is astronomy?
Physics, in the words of The Professor, is a refinement of everyday thinking. The natural world around you is made up of countless seemingly disparate phenomena: waves on the ocean, lightning from the clouds, rainbows in the sky, sunspots on the sun. The list is endless. Yet in the last few hundred years, it has become evident that all of these effects can be understood in terms of strikingly few basic ideas. Reality is not what it seems. The "differentness" of things is often only on the surface; go a little deeper into the picture, and you find remarkable unity. This understanding is one of the great rewards afforded by an intensive study of the physical world.
In the last 100 years, physicists have found again and again that the standard human view of the universe is severely limited. On a normal day, we will directly observe things ranging in size from about 10 meters (a bit smaller than the size of the period at the end of this sentence) to about 10 meters (a decent sized mountain). This is about 8 orders of magnitude (order of magnitude = factor of 10). However, from quarks and electrons with diameters of ~10 meters to the observed universe with a "size" meters, we have now observed the physical world across 43 orders of magnitude. This means that our everyday slice of the universe is only 10 times that which is known to exist. For emphasis, the distance range that people typically experience is 1 / 100,000,000,000,000,000,000,000,000,000,000,000 of that which has been observed. Wow! This obviously is quite a change from everyday thinking. There's lots more, too. Relativity tells us that time is not absolute; the faster clocks travel, the slower they run. They also run more slowly in the presence of a massive object (like the Sun). Quantum mechanics informs us that matter that is blurry and wavy, not definite and deterministic. Chaos theory opens up a world that is infinitely complex and changing but fundamentally the same, constant. In each of these cases, we ask: "But how can real things be like that?" The answer is, real things are that way; the only reason we are surprised is that our everyday thinking is so limited.
Ultimately, physicists don't need to know a lot of things, they just need to have a solid hold on a few fundamental concepts. Of course, that's only a small bit of the picture, really. Physicists come up with the concepts too, and this is the tough part. Any motivated physics major can fully grasp special relativity.
But how many could have invented the theory?
Now for the astronomy part. Astronomy (NOT ASTROLOGY, OKAY??) got started long before physics and is the scientific study of the heavens. These days one must know a bunch of physics to be an astronomer, because so much of what goes on up there is rendered comprehensible through the language of physics. Everything from meteorites lying about on the Earth's surface to the most distant objects known (quasars, billions of light years away) fall under the astronomy/astrophysics heading.
Also, it should be said that a whole lot of practical stuff has come from the study of physics: cancer treatments, air conditioning, laser shows, and lots more are made possible only because some physicist has spent time uncovering nature's inner workings. Well, laser shows may not be all that practical, but they sure are fun.
Why would I EVER want to major in such a subject?
Because there are few things more enjoyable in life than having your thinking refined! Physics is challenging, no doubt about that. You must master some mathematics. But, for the daring, it's a fantastic ride. You will come to see the world around you in a way that, presently, is absolutely inconceivable.
Not only that, but physicists are respected in the job market. Industry and business people know that physicists are able to think and are reliable problem solvers. There are many jobs available to you right out of undergraduate school, many not directly associated with traditional physics. See the AIP employment page for more details. Not only is an undergraduate degree in physics important for getting accepted into physics and astronomy graduate programs, but it can be an important step along other paths. Like getting into law school, divinity school, and especially medical school. Medical schools love physics majors; a very high percentage of physics bachelor degree holders are accepted into medical school (see the Medical School Application Requirements (MSAR), published by the American Association of Medical Schools (AAMS).
Of course, if you already aspire to be a physicist or astronomer, this question is silly.
What goes on there? Why is Berry such a great place to study these subjects?
This is a very good question. Why not go to some large university where you can take a wider variety of courses and be taught by professors who are super-famous? Well, one answer is obvious: super-famous professors barely have time for their advanced graduate students; to most of them undergraduates are not much more than a pestilence. Now, while this is not totally true of every single super-famous professor at Large U., it is totally true of most of them. And who can blame them? They're there to publish, not to teach. Publishing, not spending hours teaching sophomores Lagrangian Mechanics, gets them raises and tenure. Not so here. If you want to learn, learn in a class (normally ten or less) with a professor who knows not just the subject, but you: your strengths and your weaknesses and when and how to push you. That's what happens here. And, although this may be true of many subjects, it is especially true of physics because most of physics is not obvious at all! You will need help. You will not become an expert as an undergrad; this is the time to establish a very firm hold on the basics. Go to Large U. for graduate school. But for first-rate undergraduate physics education, come here.
Students don't just solve blackboard problems at Berry, either. As upperclassmen you will have the opportunity to be co-authors on scientific papers with your professors. Jeff Griffis, a 1999 graduate of Berry, is a co-author with Dr. Wallace on a paper published in the Proceedings of the 5th International Compton Symposium on Gamma-ray Astronomy and a paper published in The Astrophysical Journal, the preeminent international journal of astrophysics. John Foreman, a 2002 graduate, presented a poster at the 199th meeting of the American Astronomical Society detailing research he carried out under the supervision of Dr. Wallace. John also worked with Dr. Timberlake to develop a parallel computing cluster at Berry, and he is a co-author with Dr. Timberlake on a paper detailing their research that was published in Physical Review Letters, the most prestigious physics journal in the world.
Now, why would I study anything else anywhere else?
It's not really clear, is it?