Learning Curriculum : self-study

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The discussion focuses on self-directed learning in mathematics, physics, and electrical engineering for prospective students. Key points include an inquiry into the curriculum structure and recommended textbooks for these fields. A participant expresses a desire to double major in physics and mathematics while saving for college, seeking effective self-study resources. Recommended books for mathematics include Morris Kline's "Mathematics for the Nonmathematician," Tenenbaum and Pollard for Differential Equations, and various texts for advanced topics like Linear Algebra, Real Analysis, and Abstract Algebra. For physics, introductory texts by Young and Freedman are suggested, along with advanced recommendations such as Griffiths for Quantum Mechanics and Mermin's "Boojums All the Way Through" for writing in science. The conversation emphasizes the importance of foundational courses and the value of self-study materials to prepare for university-level education.
watters1989
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This is for all those that have the will/motivation to learn outside of the classroom. I am a "prospective" student to the field of mathematics/physics/electrical engineering. I am curious as to what the curriculum you guys are taken is like? Like, what subjects are you learning from the day you start your degree to the day you graduate? The books you are assigned/recommended? And ultimately what institution do you go and/or best recommend?

Due to unfornunate circumstances, I'm not currently qualified for the majority of student aid, so I am saving up for college. I plan to double major in physics and mathematics. Possibly get masters in both (baby steps first right ... ) I would simply like to learn these subjects to the best of my ability before stepping into a university.
 
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For math, I always recommend Morris Kline. His Mathematics for the Nonmathematician is excellent, as is his Calculus: An Intuitive and Physical Approach. If you're wanting to do Differential Equations, I'd recommend Tenenbaum and Pollard. All those books are quite inexpensive.

For physics, just about any of the general intro books are good. I like Young and Freedman. Once you've done that, try out Marion and Thornton's Classical Dynamics of Particles and Systems, as well as Griffiths' Introduction to Electrodynamics.

I've found all these books to be good for self-study.

Have fun!
 
Ackbeet said:
For math, I always recommend Morris Kline. His Mathematics for the Nonmathematician is excellent, as is his Calculus: An Intuitive and Physical Approach. If you're wanting to do Differential Equations, I'd recommend Tenenbaum and Pollard. All those books are quite inexpensive.

For physics, just about any of the general intro books are good. I like Young and Freedman. Once you've done that, try out Marion and Thornton's Classical Dynamics of Particles and Systems, as well as Griffiths' Introduction to Electrodynamics.

I've found all these books to be good for self-study.

Have fun!

Thanks! I greatly appreciate this. I have heard good things about the Young and Freedman texts, so that'll probably be top of the list. @Ackbeet, for my future reference, what are some of the texts related to the more advanced topics from what you listed? Or, better yet, what would you recommend after these texts listed?
 
Well, let me see. For math, you'll want the following:

Linear Algebra: Nicholson is quite good.

Real Analysis: Rudin's Principles of Mathematical Analysis is the standard, but I also like Kirkwood quite a bit as well.

Complex Analysis: I'd go with Gamelin.

Abstract Algebra: Herstein.

Functional Analysis: Kreyszig.

Topology: Crossley

Numerical Analysis: Burden and Faires.

Summary: once you've done calc, DE's, and linear algebra, the big courses that are really important are Real Analysis, Abstract Algebra, and Topology. I would still hit the others on this list, especially Numerical Analysis, but those three are the ones all math graduate students, at least, are expected to have taken.

For physics, try this:

Quantum Mechanics: I like Griffiths for this, though others may differ.

At this point, you're talking about more specific courses like astrophysics, solid state physics, relativity, etc. I don't have terrific recommendations for those except that the Mermin book is excellent for solid state. Indeed, one of the very best books I've ever read is Mermin's book Boojums All the Way Through. It's about how to write science, and I can't recommend it too highly. This guy can actually write well!

That'll keep you busy for a while.
 
Hi all, Hope you are doing well. I'm a current grad student in applied geophysics and will finish my PhD in about 2 years (previously did a HBSc in Physics, did research in exp. quantum optics). I chose my current field because of its practicality and its clear connection to industry, not out of passion (a clear mistake). I notice that a lot of people (colleagues) switch to different subfields of physics once they graduate and enter post docs. But 95% of these cases fall into either of...

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