I love to build things out of scratch

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Discussion Overview

The discussion revolves around the various areas of focus within electrical engineering that incorporate significant elements of mathematics and physics. Participants explore different specializations, including Physical Electronics, Electromagnetics, Communications, Control, Signal Processing, Analog Electronics, and Digital Electronics, while considering their personal interests and career implications.

Discussion Character

  • Exploratory
  • Technical explanation
  • Debate/contested
  • Conceptual clarification

Main Points Raised

  • Some participants suggest that Communications may involve the most mathematics, while Physical Electronics is noted for its emphasis on semiconductor device modeling and physics.
  • Electromagnetics is highlighted as a field rich in mathematical physics, particularly involving vector calculus and theorems like Gauss's and Stokes'.
  • There is a view that Analog Electronics offers a more hands-on experience compared to other areas, which may be more theoretical or programming-focused.
  • Participants express curiosity about the differences between Signal Processing and Electromagnetics, with one noting that Signal Processing focuses on the analysis of signals after they are generated.
  • There is a debate regarding the future of electrical engineering versus bio-engineering, with some asserting that electrical engineering will remain relevant and evolve, particularly in optics and quantum mechanics.
  • Concerns are raised about the perception that electrical engineering is declining, with some participants emphasizing the ongoing need for electrical engineers in various applications.
  • Participants discuss the software tools used in the industry, with mentions of PSPICE and more advanced tools like Cadence Virtuoso and Synopsys Design Compiler.

Areas of Agreement / Disagreement

Participants express a mix of opinions regarding the relevance and future of electrical engineering compared to bio-engineering, with no clear consensus on which area has the most potential for breakthroughs. The discussion remains unresolved on this point.

Contextual Notes

Some participants note that the perception of electrical engineering as a declining field may stem from industry trends, but they emphasize the importance of being adaptable and aware of emerging technologies.

Swapnil
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Hi y'll. I am majoring in Electrical Engineering and I am currently in the 2nd year. I love to build things out of scratch (and unfortunately break precious electronic gizmos to see how they work). But I also love mathematics and physics. So I was wondering, which of these following areas should I focus on within electrical engineering so that I can get as much dose of math and physics as possible (don't worry about the engineering part because that's what jobs are for :wink: ).

*Physical Electronics
*Electromagnetics
*Communications, Control, and Signal Processing
*Analog Electronics
*Digital Electronics
 
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The most math you're probably going to see in EE is in communications. The most physics you're going to see is in semiconductor device modelling.

- Warren
 
chroot said:
The most physics you're going to see is in semiconductor device modelling.
Is that the area of physical electronics??

Also, I thought that Electromagnetism would be the place where I would see a lot of math since it puts a lot of emphasis on vectors...
 
electromagnetics will obviously give you a heavy dose of mathematical physics; so if vector fields, triple integrals, divergence and curl, Gauss/Green/Stoke's theorems, and flux are your thing, then e&m for you. Expect a lot more emphasis on antenna theory and other topics that are somewhat neglected in a standard physics-dept e&m course.

e&m of course would give you physics as well, but physical electronics(ie., semiconductors) will have more standard physics fare especially if you take a quantum electronics or semiconductor laser class. not so much advanced math in physical electronics; enough to understand the physics, and maybe some numerical analysis if so inclined. Lots of diffeq's, etc.

communications and signal processing is the most "pure" math area of EE to go into, definitely. Expect to see loads of linear algebra, probability and statistics, random processes, "modern algebra" (i.e., rings, groups, fields, etc), and some Fourier analysis etc. Also expect more formalism than elsewhere in engineering, with mathematical proofs etc.
 
Analog good too

If you like building things and working out complex problems, analog electronics should be considered too. It is a fun field. It is more hands on than EM or signal processing too. Signal Processing is mostly programming these days (or so it seems to me). Not that that is bad, but if you are a hands on person then analog would be more fun. EM is mostly math and plumbing... Stay away from digital, that is boring...
 
Thank you chroot, jbusc and interested_learner. You comments helped a lot.

But I do have one more question. What exactly in the difference between signal processing and electromagnetism. Before this discussion, I thought that they were more or less the same thing since signals are electromagnetic waves afterall...
 
Electromagnetism deals with the generation and propagation of electromagnetic fields. Antennas, for example, are at the heart of EM engineering.

Signal processing, on the other hand, deals with the analysis, conditioning, or enhancement of signals once they are on your circuit board.

- Warren
 
Don't worry about the math, you will have plenty of it in all your courses, trust me.

P.S. And don't worry about what kind of math, because essentially all Engineers use the same equations, the only thing that changes are what the variables represent. Said differently, they are all analogs of each other.
 
Last edited:
Thank you. One more question. Which one of the following areas has the most room for breakthroughs (perhaps also a lot of room for research)?
 
  • #10
All of them.
 
  • #11
cyrusabdollahi said:
All of them.
Really? Come on... They can't all have the MOST room for research. Anyone else thinks otherwise?
 
  • #12
Swapnil said:
Really? Come on... They can't all have the MOST room for research. Anyone else thinks otherwise?

Haven't you heard? Electrical engineering is dead.
The wave of the future is BIO-engineering.

At least that's what I keep hearing.
Honestly though, I'm in the same boat as you. I need to pick a focus next semester. Our school offers a series of "pathway seminars" where varoius professors who are doing research in that field talk about what they are doing, and are available for questions. It's kinda nice. A lot of them really are saying that a majority of you future EE's will be working in the bio-field in some way though.
 
  • #13
FrogPad said:
Haven't you heard? Electrical engineering is dead.
The wave of the future is BIO-engineering.

uh-huh.

bio-engineering may be what's "hot" now, but EE's not going to go anywhere for a long time.
 
  • #14
jbusc said:
uh-huh.

bio-engineering may be what's "hot" now, but EE's not going to go anywhere for a long time.

The professors basically said the same, but they stressed that one should be prepared, and it least take a few bio classes.
 
  • #15
Uh, right. I'm a senior integrated circuit designer for one of the most successful semiconductor companies on the planet. Trust me, EE's not going to change substantially in the next 50-100 years. If anything, it will become more intensive in optics and quantum mechanics, not in biology. If you study EE, you'll have a long, excellent career ahead of you.

- Warren
 
  • #16
chroot said:
Uh, right. I'm a senior integrated circuit designer for one of the most successful semiconductor companies on the planet. Trust me, EE's not going to change substantially in the next 50-100 years. If anything, it will become more intensive in optics and quantum mechanics, not in biology. If you study EE, you'll have a long, excellent career ahead of you.

- Warren


Um... does it sound like I'm disagreeing with everyone, and implying that EE is a disappearing field? I'm an EE student myself, so I hope I have a long, excellent career ahead of me in EE, not bio.

I was just relaying what was said. They were talking about flexible screens, implantable devices, power systems, etc... and saying that EE's are going to be needed to implement these devices. They weren't just talking about creating products with biological systems. And they never implied or said for everyone in EE to get out while they can, just to keep the play-book open and look ahead at the new job market that will be opening up.

oh I get it... hehe. I didn't show that I was joking when I said,

"Haven't you heard? Electrical engineering is dead.
The wave of the future is BIO-engineering."

this would be one of those cases of a,
my bad
 
  • #17
FrogPad said:
Um... does it sound like I'm disagreeing with everyone, and implying that EE is a disappearing field?

...

oh I get it... hehe. I didn't show that I was joking when I said,

Haven't you heard? Electrical engineering is dead.
The wave of the future is BIO-engineering.

Yeah, that didn't come off as a joke at all -- to me, anyway.

- Warren
 
  • #18
chroot said:
Yeah, that didn't come off as a joke at all -- to me, anyway.

- Warren

Just out of curiosity chroot, what software do you use? Is it PSPICE? Or is that just introductory stuff that is used for education?
 
  • #19
FrogPad said:
Just out of curiosity chroot, what software do you use? Is it PSPICE? Or is that just introductory stuff that is used for education?

Cadence Virtuoso Suite, AMS Ultra, Spectre, Ultrasim, ncsim, Verilog-XL, Encounter.
Synopsys Design Compiler.

PSPICE is sometimes used for little experiments, but rarely. Real device models from semiconductor fabs like TSMC are usually in formats only understood by more professional tools.

- Warren
 
  • #20
I have always been told by profs that worked in industry that the pros mainly use microcap.
 
  • #21
leright said:
I have always been told by profs that worked in industry that the pros mainly use microcap.

Maybe if they're doing board-level work. If they're designing integrated circuits, they prefer tools that are capable of doing layout and extraction. :smile:

- Warren
 
  • #22
My specialization is in the Communication Systems/DSP field, but I have done a decent amount of Control Systems work as well. It's very interesting stuff, but there is a lot of math involved. I did not do a mathematics minor, but I did take an extra probability class. There is so much work with random variables, complex variables, etc. You need to be pretty strong in math to work in the Comm./DSP field. Linear Algebra is also very useful.

As for physics, I've never taken anything other than the general physics classes, Semiconductor devices, and E&M.

PS -- For those who say EE is dying, and the future is Bio -- tell a BioE to work on a laser communication system or a satellite navigation system, lol.
:smile:
 
  • #23
I was wondering, what's the difference between digital signal processing and just signal processing. Is DSP a special area under signal processing or are they two different things?
 
  • #24
"Signal processing" may be done with either analog or digital methods.

- Warren
 
  • #25
I see. BTW, is there a thing as ASP (Analog Signal Processing)?:rolleyes:
 
  • #26
Swapnil said:
I see. BTW, is there a thing as ASP (Analog Signal Processing)?:rolleyes:

Of course. I actually work in a department called "Analog Signal Processing."

- Warren
 

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