Theoretical Physics: Is Proving Theorems Essential?

In summary, the conversation discusses the importance of mathematical methods in theoretical and experimental physics. The individual is currently in their second year of a theoretical physics course, which does not have a separate course for the subject. Instead, they attend math and physics courses and struggle with the tediousness of proving theorems and lemmas. The conversation concludes that while mathematical rigor may be useful in building a logical framework, it is not crucial to becoming a successful theoretical physicist. Instead, learning computer languages and modeling techniques is more important in this field.
  • #1
nolanp2
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i'm currently in my 2nd yr in a course in theo phys, but my college hasn't put a course aside for the sublject so instead we sit in on maths and physics courses. I'm having a problem with real and complex analysis as while i find the principles dealt with in them useful the only areas we're tested on in the subjects is our ability to prove theorems and lemmas, which i find very tedious.

what I'm wondering is is this ability crucial to a theoretical physicist, or are we only being tested on it because we are being taught as mathematicians?
 
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  • #2
I've had some research experience in theoretical physics (numerical modeling of electromagnetic waves with specific boundary conditions). In my experience, theoretical physics usually means coding and computer modeling. But mathematical methods are useful to both theoretical and experimental physicists, since we need to properly the theory in order to do any kind of research. If you're currently a second year undergraduate, you'll see that starting next year, mathematical methods will become exceedingly important to your studies. Separable differential equations, Legendre polynomials, spherical harmonics, perturbation theory, and various other things will start popping up all over the place. And these are things that are important whether you go into the theoretical or experimental side of physics.

Of course, any time the word "lemma" is used, that usually refers to mathematical rigor. There's a big difference between the math that you encounter in physics, and the kind that comes up in mathematics classes. Believe it or not, physics math tends to be more difficult than math math. In physics, you need to use math to get some sort of practical result. In mathematics, the rigor is used to build a logical framework so that theorems can be built upon axioms and other theorems. Proving theorems and lemmas is certainly a worthwhile exercise, but I never found it particularly useful in my undergraduate physics classes, nor was I ever required to employ mathematical rigor.

So I guess the short answer to your question is: no, proving theorems and lemmas isn't all to useful in physics. If you're planning on going into theoretical physics, then based on my personal research experience, I'd say that you should focus more on learning computer languages and modeling techniques.
 
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  • #3


As a fellow theoretical physicist, I can understand your frustration with the emphasis on proving theorems and lemmas in your current courses. While it may seem tedious and disconnected from the more practical applications of theoretical physics, I can assure you that the ability to prove theorems is essential in our field.

Theoretical physics is all about understanding the fundamental principles and laws that govern our universe. In order to do this, we must have a strong foundation in mathematics, including the ability to prove theorems. This allows us to rigorously analyze and test our theories, ensuring that they are logically sound and consistent.

Furthermore, the ability to prove theorems also helps develop critical thinking and problem-solving skills, which are crucial in theoretical physics. As we encounter complex and abstract concepts, the ability to break them down and prove their validity becomes essential.

It is true that theoretical physicists may not spend their entire careers proving theorems, but the ability to do so is still important. It allows us to communicate our ideas and theories effectively, and to collaborate with mathematicians and other scientists in the pursuit of understanding the universe.

So while it may seem tedious and disconnected from the more practical aspects of theoretical physics, I encourage you to see the value in developing your ability to prove theorems. It will undoubtedly benefit you in your future studies and research in this field.
 

1. What is theoretical physics?

Theoretical physics is a branch of physics that focuses on developing and testing theories to explain the fundamental laws and principles that govern the behavior of the universe.

2. Why is proving theorems essential in theoretical physics?

Proving theorems is essential in theoretical physics because it allows us to validate and refine our theories, ensuring that they accurately describe the physical world. It also helps to identify any flaws or inconsistencies in our theories, which can lead to new discoveries and advancements in understanding.

3. What is the process of proving theorems in theoretical physics?

The process of proving theorems in theoretical physics involves using mathematical equations and logic to derive conclusions from a set of assumptions or axioms. These conclusions are then tested and validated through experiments and observations in the physical world.

4. Are there any challenges in proving theorems in theoretical physics?

Yes, there are several challenges in proving theorems in theoretical physics. The complexity of the mathematical equations involved can make it difficult to find a solution, and the assumptions or axioms used may not always accurately reflect the physical world. Additionally, new evidence or observations may require existing theorems to be revised or even disproven.

5. How does proving theorems in theoretical physics contribute to scientific progress?

Proving theorems in theoretical physics is essential for scientific progress as it allows us to build upon existing knowledge and theories, leading to new discoveries and advancements. It also helps to create a strong foundation for future research and understanding of the laws and principles that govern the universe.

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