Question about biophysics, mathematical biology etc.

In summary: But again, this is entirely anecdotal and might not be relevant in the long run.In summary, an undergraduate major in neurobiology does not seem to be beneficial for someone who wants to work in the field of biophysics/theoretical neuroscience. However, if someone wants to focus on maths and physics, they might be able to learn the basics relatively easily.
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Right now I'm a 2nd year biology major, focusing on neurobiology. During my first year I noticed that biology outside neuroscience and some physiology doesn't really interest me that much. So I started taking some maths and programming already during my 1st year. Now I'm taking mostly maths and doing some bio courses on the side, and in the spring I'll have only physics and maths. Right now I'm taking Analysis I and a "physics maths" course on which we've gone through basics of all kinds of useful mathematical methods (calculus, some vector analysis, differential equations etc). I've been enjoying it all. My motivation to study has never been this high and I've gotten good results.

The maths courses and some programming I did as a hobby made me realize that I really enjoy doing maths and programming. I'd like to do more theoretical stuff (mathematical modeling, maybe simulations etc.). I understand the importance of experiments, but I've always felt that I wouldn't enjoy being an experimentalist (doesn't mean that I absolutely want a fully non-lab job).

All of this made me think that maybe I should take a second major from maths or physics. But I also have considered switching majors to maths or physics and doing minor in neurobiology. I don't yet really know if I'd like to focus more on (applied) mathematics or physics (trying to figure this out while taking the basic maths&physics courses). But it's very certain that I enjoy solving mathematical problems much much more than reading about biology.

Now to the question: would a major in neurobiology benefit in the field of biophysics/theoretical neuroscience/something similar? I feel like the biology related to those fields is much easier to pick up than the maths and physics. If that's the case, I probably should drop the bio major rather than doing double major. Plus, if I fail to combine these subjects, I'd rather work on something maths/physics related than non-quantitative/experimental biology.

I'd also like to mention that in my country the standard route to PhD is to go from BSc to MSc and then PhD. I'm in a BSc+MSc program, and it's possible to do one BSc and then two MSc degrees in two different majors.
 
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I am in a theoretical neuroscience program for my PhD, but it lies on top of a traditional department (math, in this case). My education started with a B.S. in Physics.

Talking to the biologists who now make up half of my academic circle, they say that it seems much easier for me coming from physics than for them trying to understand math coming from biology. I think the point is that mathematical concepts really need to be developed rigorously at a basic level in undergrad, but biology you can learn much easier outside of the classroom.

Of course, this is entirely anecdotal, so take it with a grain of salt.
 
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  • #3
Pythagorean said:
I am in a theoretical neuroscience program for my PhD, but it lies on top of a traditional department (math, in this case). My education started with a B.S. in Physics.

Talking to the biologists who now make up half of my academic circle, they say that it seems much easier for me coming from physics than for them trying to understand math coming from biology. I think the point is that mathematical concepts really need to be developed rigorously at a basic level in undergrad, but biology you can learn much easier outside of the classroom.

Of course, this is entirely anecdotal, so take it with a grain of salt.

I don't think an absolute right answer exists to my question so experiences and thoughts from people who are working in this field is all I can ask for. Thanks.

Basics of neurobiology can be easily learned by reading a couple of books. There really isn't much need for lectures, not to mention the lack of maths (I'm talking about the kind of neurobiology they teach in bio departments). This makes me feel that it might be a bit inefficient to have a bio major.
 
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I still think article discussions in a class with an experienced prof are important for neuro.
 
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That's probably true. I haven't really had journal clubs/seminars yet because I'm still an undergrad, but there are a few graduate level courses in neuro that are like that. Those are some of the bio courses that I'm really looking forward to and I'll most likely take them no matter what I end up majoring in.
 
  • #6
Ok. It's probably true that a lot of the basic stuff that you'd learn in a intro neuro course you can learn on our own (and then find out that half of it is wrong or irrelevant when you take grad seminar, haha!).

Anyway, having the bio framework of the cell and genetic expression and all that is stuff I picked up along the way as I participated in seminars and researched things. My wife also has a B.S. in bio so I draw on her, too. I also picked a lot up from discussion on PF too, during my M.S.

Biology is probably the most interesting subject to me in the world, so I have always been motivated to study it, and that could be a factor, too: maybe more bio majors have decided they don't want to see math, while more physics/math majors haven't (yet) been turned off by biology.
 
  • #7
Do you have any book recommendations? I've considered reading Foundations of Cellular Neurophysiology by Johnston at some point. Maybe Hille's Ion Channels of Excitable Membranes too. I'll later have courses based on those books but I'd like to begin reading them once I have the sufficient maths and neuroscience knowledge (might already have).
 
  • #8
It's a huge field with lots of directions to go. I went the dynamical systems direction and, in that regard, Dynamical Systems in Neuroscience by Izhikevich was a fun book. There's also "Spikes, Decisions, and Actions" which is now out of print, but the author has a free copy available:

http://www.cvr.yorku.ca/webpages/wilson.htm

Some of the standard recognized books are Dyan and Abbot's "Theoretical Neuroscience" and Bard Ermentrout's "Mathematical Foundations in Neuroscience".

I've really only poked at pieces of each of them as I needed it. Most of my learning was through doing my graduate research and, as I said before, seminars.
 

1. What is biophysics?

Biophysics is an interdisciplinary field that combines principles and methods from physics and biology to study biological systems. It focuses on understanding the physical processes that govern living organisms, from the molecular level to the whole organism level.

2. How is biophysics related to mathematical biology?

Mathematical biology is a subfield of biophysics that uses mathematical and computational tools to study biological systems. Biophysics provides the foundation for understanding the physical processes in living organisms, while mathematical biology uses quantitative techniques to model and analyze these processes.

3. What are some applications of biophysics in the real world?

Biophysics has a wide range of applications in areas such as medicine, bioengineering, and biotechnology. Some examples include developing new medical treatments, understanding the mechanics of cells and tissues, and designing new materials inspired by biological structures.

4. What skills are needed to work in the field of biophysics?

To work in biophysics, one needs a strong foundation in physics, biology, and mathematics. Additionally, skills in data analysis, programming, and experimental techniques are also important. Critical thinking, problem-solving, and communication skills are also essential for success in this field.

5. How is biophysics research conducted?

Biophysics research can be conducted in both experimental and theoretical settings. Experimental biophysicists use a variety of techniques such as microscopy, spectroscopy, and computational methods to study biological systems. Theoretical biophysicists use mathematical and computational models to understand and predict the behavior of biological systems.

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