Moving from electrical engineering to applied physics.

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Discussion Overview

The discussion centers around transitioning from a background in electrical engineering to a master's program in applied physics, specifically in "Physical Energy and Measurement Engineering." Participants explore the necessary foundational knowledge in physics and mathematics to prepare for the program, as well as resources for self-study during a preparatory period before the master's begins.

Discussion Character

  • Exploratory
  • Technical explanation
  • Homework-related

Main Points Raised

  • One participant expresses a need for a deeper understanding of physics and mathematics to succeed in the master's program, which typically requires a background in applied physics.
  • Another participant inquires about the specific courses included in the master's program to better tailor their preparatory studies.
  • It is suggested that the master's program may cover advanced topics such as fluid mechanics, quantum mechanics, solid-state physics, and nanosciences, along with measurement-related subjects like real-time analysis and embedded computing.
  • Participants recommend online courses from platforms like Coursera and edX, specifically mentioning courses in quantum mechanics and sensors.
  • One participant advises obtaining lecture notes or textbooks to build foundational knowledge, particularly in mathematical areas relevant to the courses.
  • A participant reflects on their own experience, noting the importance of having a strong mathematical background, such as real and complex analysis, for tackling analytical studies in graduate courses.

Areas of Agreement / Disagreement

Participants generally agree on the importance of strengthening foundational knowledge in physics and mathematics, but there is no consensus on the specific resources or study paths to pursue. Multiple viewpoints on preparation strategies and course content are presented.

Contextual Notes

Participants mention various subjects and resources without establishing a definitive list of prerequisites or a clear path for preparation. The discussion reflects individual experiences and suggestions rather than a unified approach.

Who May Find This Useful

Individuals transitioning from engineering to applied physics, students preparing for advanced studies in physics, and those seeking resources for self-study in related subjects.

arbrixv
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I have completed a bachelor in electrical engineering. Because of my interest in physics I have decided to move to applied physics and I have been accepted for a Master program ''Physical Energy and measurement engineering'' from a prestigious technical university in Europe, of course with some equivalence courses to take in addition.

I had good results on my Physics classes but the thing is that I feel that I need a deeper physics and mathematics foundation to follow the given program which normally requires a bachelor in ''applied physics''. This is also because the University I want to go is a very higher class compared to my first one. I have a 6 month period of free time before my master prog begins to prepare and I want to construct an intensive physics and mathematics self study program to follow.

Any help and suggestions is welcomed an appreciated.

Thank you!
 
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What types of courses are involved in a Masters in "Physical Energy and Measurement Engineering"? That would help in determining what to work on.
 
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Well, you can enroll in courses from coursera and edx. Generally as far as I have seen, a Masters in applied physics covers subjects like fluid mechanics(advanced), Quantum Mechanics, Solid State Physics and nanosciences. As you are saying a masters in measurement it should be having courses like real time analysis and sometimes embedded computing a bit.

As you are a bachelors from EE (like me), we would not have read much about Fluid Mechanics or Quantum Mechanics(we read only the applications like tunneling phenomenon as in Diodes). So its better to get your fundamentals clear.

There is a course offered in Coursera starting in October 7, (Quantum Mechanics) and another running now from Stanford edx(Quantum Mechanics for Scientists and Engineers). You can enroll in both of these.

Also start reading a bit about sensors (nano sensors).

Btw, I'm also in the same track as of you. While you have secured your admission, I'm in the process of applying :)
 
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X89codered89X, thanks for your reply. Some of the courses in my master prog are: atomic collisions, high temperature superconductors, nuclear engineering, sustainable energy supply, plasma physics, etc
 
Well arbrixv I don't know what to tell you. I'd get some lecture notes either from OCW (mit's open courseware) and/or cheap (text?)books from amazon and start learning. Or perhaps if there is a particular common mathematical background that is common to all those course (e.g. stochastic processes), maybe start studying the mathematical pre/co-requisites.

For myself, an EE grad student, I which I had a chance to take real/complex analysis as I do a lot of analytical sutdy now, and analysis courses weren't required by my ugrad engineering degree. I wish I would have beefed up on this. It wouldn't have directly cut the workload shorter on one class but rather every course just a little bit easier.

-x89
 

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