Posted on 05/17/2007 10:53:43 AM PDT by neverdem
lol.....what?
You’re right, I should know how to spell precedents.
Anyway, the day that Harvard announced the new president and the curriculum changes (more post modernism), they also stated that the most dramatic changes would be to the law school and in the field of science. I was suspicious of what the changes would be and went to the Harvard Law School web site, where the change away from the freshman study of precedents was stated as the first real change in the freshman curriculum since... (I don’t remember the date, but I think it was some time in the 1800s.)
Unless you're going to be a researcher there isn't much need to know it. Even NASA uses the Newtonian equations.
By the way, the changes that Harvard is making in the science curriculum involved a new emphasis on current topics of interest and how they pertain to the community. (I think that stem cell research was mentioned, but not global warming)In other words, they are going to feminize science to make up for the gender gap.
I’d like a citation, if possible.
Looks like Shakespeare is out, and Foucault, Derrida, Marcuse, and Adorno are in.
I've a pretty good grasp of "basic" physics for an engineer. Taken courses in plasma physics, particle physics, nonlinear optics, acoustic physics, quantum, a bit of special relativity. I don't see general relativity as necessary for an undergrad physics degree.
RadioAstronomer was banned. He's over at Darwin Central.
Rubbish. At the speeds and densities that occur in the vicinity of a newly forming star, the difference between relativistic physics and classical Newtonian physics is negligible. Planets do form, of course. We know of planets around other stars, and we know that stars form. How could there be planets about young stars, if planets cannot form?
We know that there are young stars because we know about the rate at which stars go through their nuclear fuel. A hot, bright star cannot last nearly as long as a dim, red star. Any hot bright star we see today must have formed relatively recently.
Finally, how can there be a moon without a planet for that moon to orbit? Such a `moon’ would be a protoplanet, and over time, as it swept up the remaining mass in its vicinity, it would become a planet.
Course VIII Focused Option
The Course VIII focused option is designed to provide the best possible preparation for graduate study in physics. Many students have also found this program to be an excellent, broad based preparation for professional work in related fields such as astrophysics, biophysics, geophysics, and many engineering disciplines. The focused option is unusual among pre-professional programs at MIT in that it offers a particularly large amount of elective freedom: as many as six subjects may be chosen as unrestricted electives without exceeding the minimum requirements for an undergraduate degree. The Departmental program for the focused option consists of the following required subjects and restricted electives. The full requirements for the degree, including the General Institute Requirements, may be found in the MIT Bulletin.
Required Subjects
8.03 Physics III (vibrations and waves)
18.03 or 18.034 Differential Equations
8.033 Relativity
8.04 Quantum Mechanics I
8.044 Statistical Physics I
8.05 Quantum Mechanics II
8.06* CI-M Quantum Mechanics III
8.13* CI-M Experimental Physics I
8.14 Experimental Physics II
8.ThU Thesis (12 units)
Course VIII Flexible Option
This option is designed for students who wish to develop a strong background in the fundamentals of physics and then build on this foundation as they prepare for career paths that may not involve a graduate degree in physics. In the past many students have found an understanding of the basic concepts of physics and an appreciation of the physicist's approach to problem solving an excellent preparation for careers in business, law, medicine or engineering. This option should be even more attractive today in light of the growing spectrum of non-traditional, technology-related career opportunities.
The freedom of choice associated with the flexible option does not preclude the possibility of going on to graduate school in physics. The number of physics subjects in this program is still comparable to that required of physics majors at many of our peer universities.
The Departmental program for the flexible option consists of the following required subjects and restricted electives. The full requirements for the degree, including the General Institute Requirements, may be found in the MIT Bulletin.
Required Subjects
8.03 Physics III (vibrations and waves)
18.03 or 18.034 Differential Equations
8.04 Quantum Mechanics I
8.044 Statistical Physics I
and one of the following subjects:
8.05 Quantum Mechanics II, or
8.20 Introduction to Special Relativity, or
8.033 Relativity
and one of the following experimental experiences:
8.13 CI-M* Experimental Physics I
or a laboratory subject of similar intensity in another dept.
or an experimental research project or senior thesis
or an experimentally oriented summer externship
I'm not remotely suprised that Physics UGs, Graduates, etc don't need a course in General Relativity. Despite the article, it is a niche subject. Special Relativity is another matter - it's a simple enough course and forms part of what every physicist ought to know.
http://www.blockemf.com/catalog/product_info.php?cPath=758&products_id=4970
LOL. Before that (though not immediately before), Newton's principles of celestial mechanics were "known" to be the correct theory of gravity.
General relativity is our best theory, and a good one it is, but we don't know we won't stumble across a better one tomorrow.
This is what I was thinking. A standard 3 or 4 year undergraduate degree is probably just enough to get a real good handle on classical physics, including the classical model of elctromagnetism. In fact, I’m wondering, who does take an undergraduate degree in physics, and for what purpose? Short of the high energy and particle physics end of it, most of the practical aspects of physics are addressed by engineers, and for most of what they do relativistic and quantum effects just aren’t relavent.
Send $2.00 and a boxtop for a PhD. in physics to....
“Unless you’re going to be a researcher there isn’t much need to know it. Even NASA uses the Newtonian equations.”
I do wonder, though, what one would be studying in post-graduate physics other than things at either the quantum or relativistic scales? Of course, I don’t really know what the active areas of research are in the physics faculties of the world. And there’s a lot of crossover between physics and chemistry in the quantum/particle physics area.
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