Schools What Do Grad Schools Expect for Computational Physics and Nanotechnology?

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Graduate programs in computational physics typically prioritize a strong foundation in physics over computer science, emphasizing that students should primarily identify as physicists. While a minor in computer science can be beneficial, extensive coursework in computer science is generally not deemed necessary for computational modeling in physics. Applied mathematics classes are valuable, but the core focus should remain on physics.In the field of nanotechnology, a physics background is often preferred, although significant coursework in biochemistry and molecular biology is recommended, especially for areas like guided self-assembly. This interdisciplinary approach helps students understand the chemical and biological interactions at the nanoscale, which are crucial for practical applications. Students in nanotech labs often pursue physics degrees while supplementing their education with chemistry and biochemistry courses to enhance their research capabilities. The integration of these disciplines allows for a more comprehensive understanding of the complexities involved in nanotechnology.
cscott
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Comp. Physics and Nanotechnology Grad Schools

What do grad schools look for when picking up students in computational physics? Do they expect a degree in computer science with a minor in physics or the other way around? Either?

Same with Nanotechnology: Is physics the standard route? Should you be taking lots of chem classes as well?
 
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Good question. I wonder if a double major in physics and math would work as well.
 
For computational physics you are a physicist first, not a computer scientist. The majority of a comp sci program is not applicable to computer modeling in physics. You could take a look at Bowers's book "Numerical Modeling in Applied Physics and Astrophysics", its the only decent book I've found on the subject. Applied math classes would be useful, but first and foremost is the physics. Maybe a computer science minor as a physics major, but more comp sci than that is not really helpful for working in computational physics.

The professor who runs our nanotech lab generally recommends large amounts of biochemistry and molecular biology, but they're working on guided self-assembly. I'm not sure if those subjects would be as useful for other facets of nanotechnology.
 
franznietzsche said:
For computational physics you are a physicist first, not a computer scientist. The majority of a comp sci program is not applicable to computer modeling in physics. You could take a look at Bowers's book "Numerical Modeling in Applied Physics and Astrophysics", its the only decent book I've found on the subject. Applied math classes would be useful, but first and foremost is the physics. Maybe a computer science minor as a physics major, but more comp sci than that is not really helpful for working in computational physics.

Thanks for this!

franz said:
The professor who runs our nanotech lab generally recommends large amounts of biochemistry and molecular biology, but they're working on guided self-assembly. I'm not sure if those subjects would be as useful for other facets of nanotechnology.

I assume this means in conjunction with being a physics major? Also, does large amounts mean a minor in say biochem, or is that too specific?

What the main reason behind needing all the bio/chem anyway? What specifics do you get that you wouldn't get as a physics major?

Lastly, why is physics the standard route for nanotech over chemistry?

Thanks again.
 
cscott said:
Thanks for this!



I assume this means in conjunction with being a physics major? Also, does large amounts mean a minor in say biochem, or is that too specific?

What the main reason behind needing all the bio/chem anyway? What specifics do you get that you wouldn't get as a physics major?

Lastly, why is physics the standard route for nanotech over chemistry?

Thanks again.


Yeah, the students in the lab are physics majors that take chem/biochem classes.

In their case, they are working on guided-self assembly, using custom engineered DNA as a sort of velcro to attach and arrange polystyrene microspeheres into predetermined structures, so chem/biochem is pretty applicable. However, most of their lab work is more physics based. For example, the way they measure their yields is they use a flourescent molecule on the end of the DNA strand, pass light through the solution and measure the amount of light the DNA gives off to determine how much of the DNA is correctly binding to their microspeheres.
 
Hey, I am Andreas from Germany. I am currently 35 years old and I want to relearn math and physics. This is not one of these regular questions when it comes to this matter. So... I am very realistic about it. I know that there are severe contraints when it comes to selfstudy compared to a regular school and/or university (structure, peers, teachers, learning groups, tests, access to papers and so on) . I will never get a job in this field and I will never be taken serious by "real"...
Yesterday, 9/5/2025, when I was surfing, I found an article The Schwarzschild solution contains three problems, which can be easily solved - Journal of King Saud University - Science ABUNDANCE ESTIMATION IN AN ARID ENVIRONMENT https://jksus.org/the-schwarzschild-solution-contains-three-problems-which-can-be-easily-solved/ that has the derivation of a line element as a corrected version of the Schwarzschild solution to Einstein’s field equation. This article's date received is 2022-11-15...

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