Accelerator Physics: EE vs Physics

In summary, the conversation discusses the differences between studying EE and Physics, specifically in the field of accelerator physics. The participants mention that in most cases, there is no difference between being a physicist or an EE in this field. They also suggest taking courses in electromagnetics, signal processing, and programming. They also mention the importance of attending specialized schools for accelerator physics and participating in internships. The participants ultimately recommend studying physics for a better preparation in graduate school.
  • #1
jbrussell93
413
38
I know there are about a million of these posts on here comparing EE and physics, but I'm interested in more specific information. I'm currently a biological engineering major who's planning on switching to EE or Physics after this semester. At this point, I'm leaning towards physics because I'm only interested in the physics oriented EE subjects anyway, and if I take some EE classes with a physics curriculum I could always go to grad school for EE if I choose to. But not necessarily the other way around...

I've heard that accelerator physics is a good field for people who are sort of on the fence between EE and physics. I'm curious about how the jobs & research differ between the two fields. It seems that there is a lot of overlap between them and I'm having trouble distinguishing between the roles that either a physicist or an engineer have, at say, a national lab. What might one do that the other couldn't? Also, what jobs might be in common between the two?

I appreciate any responses
 
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  • #2
In most cases, there is no difference between physicist and EE in the field of accelerator physics. You can major in either one.

Zz.
 
  • #3
Can you give me an idea of some classes that I should take as undergrad who is interested in pursuing this field? There is an electromagnetics emphasis in the EE department at my school which I will likely follow as a physics major that includes:

Intermediate electromagnetics (I will likely take E&M II from physics instead)
Intro to plasmas
Antenna theory and design
Light and modern optics

I'm not really sure what I should be focusing on but I'm assuming that E&M is very important. Other than that I would think some signal processing and programming would help. Any classes that I DEFINITELY should consider taking?
 
  • #4
You need to take as much E&M as your school/department can offer. The antenna class also sounds like it could be relevant, since it involves EM fields.

Other than that, you need to look at the Accelerator school courses that are offered periodically throughout the year and at various locations. The next one coming up is in January at Duke University. Check with your school's advisor and make sure that you can get credits for the classes that you take. Both undergraduate and graduate level classes are offered at this school.

http://uspas.fnal.gov/

I would also recommend you look into the Lee Teng internship if you have completed your Junior year. This internship is meant to give you a broad intro into the field of Accelerator physics, and for you to do a summer research work in this field.

http://www.illinoisacceleratorinstitute.org/

Zz.
 
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  • #5
Yea there really isn't much of a difference between EE and physics when it comes to accelerator physics. I would personally recommend taking physics because if you want to go to graduate school in accelerator physics, you will most likely enroll through physics departments in which case you will be required to take graduate level physics courses such as quantum mechanics, statistical mechanics, classical mechanics, and EM of course. You would most likely receive a better preparation for this in a physics undergrad.

That said, you could also go to grad school in EE and focus on say, RF engineering, and then work your way into accelerators through USPAS etc. There are many ways to get into the field, and its a pretty diverse field.

As for courses, the ones you listed look pretty good. Lots of EM. Optics is good also. Plasma may definitely have its uses, it's probably not something that is necessary in an undergrad though.

I can tell you what courses I am taking. I am in my Senior year of an Engineering Physics degree (EE and physics :) ). I will be applying for graduate school in accelerator physics this fall. The thing in brackets is what department it was taught through.

Fall courses:
Quantum Mechanics 2 (physics)
Microwave Circuits (EE)
Computational Electrodynamics or Computational Physics (EE or physics)
Engineering Design Course/Project (EE)

Spring:
Microwave and Wireless Systems (EE)
Statistical Mechanics (physics)
Continuum Mechanics (physics)
Relativistic Electrodynamics (physics)

I am also doing a full year thesis on Superconducting RF cavity design, which will give me a pretty thorough grounding in the field. I've also taken my basic electromagnetostatics (EE), EM fields and waves (EE), and optics (EE) courses in previous years.

Hope this helps.
 
  • #6
Thank you both for your help!

I had no idea that they had specialized schools for accelerator physics but that is definitely something I'm going to look into. I think at this point, I will probably just go with physics and see what happens. After all, I am in no way positive that I want to work in accelerator physics I just wanted to weigh my options.
 
  • #7
nicholls said:
Yea there really isn't much of a difference between EE and physics when it comes to accelerator physics. I would personally recommend taking physics because if you want to go to graduate school in accelerator physics, you will most likely enroll through physics departments in which case you will be required to take graduate level physics courses such as quantum mechanics, statistical mechanics, classical mechanics, and EM of course. You would most likely receive a better preparation for this in a physics undergrad.

That said, you could also go to grad school in EE and focus on say, RF engineering, and then work your way into accelerators through USPAS etc. There are many ways to get into the field, and its a pretty diverse field.

As for courses, the ones you listed look pretty good. Lots of EM. Optics is good also. Plasma may definitely have its uses, it's probably not something that is necessary in an undergrad though.

I can tell you what courses I am taking. I am in my Senior year of an Engineering Physics degree (EE and physics :) ). I will be applying for graduate school in accelerator physics this fall. The thing in brackets is what department it was taught through.

Fall courses:
Quantum Mechanics 2 (physics)
Microwave Circuits (EE)
Computational Electrodynamics or Computational Physics (EE or physics)
Engineering Design Course/Project (EE)

Spring:
Microwave and Wireless Systems (EE)
Statistical Mechanics (physics)
Continuum Mechanics (physics)
Relativistic Electrodynamics (physics)

I am also doing a full year thesis on Superconducting RF cavity design, which will give me a pretty thorough grounding in the field. I've also taken my basic electromagnetostatics (EE), EM fields and waves (EE), and optics (EE) courses in previous years.

Hope this helps.

nicholls,

Can you tell me more about your graduate school application process?

I have been looking into accelerator physics programs as well, but I am not really sure how to pursue them. I have a BS in physics and I am aware of the USPAS courses but my next step is to apply for graduate school and I am not sure what programs I should look into. The USPAS classes seem to be tailored to current grad students/post-docs but what program should I apply for as far as grad school goes? I can't seem to find many programs that are titled "Accelerator Physics".

Also, what schools have you been looking at? I know that Stony Brook has a good program, but any others that you recommend?
 
  • #8
nicholls said:
Yea there really isn't much of a difference between EE and physics when it comes to accelerator physics. I would personally recommend taking physics because if you want to go to graduate school in accelerator physics, you will most likely enroll through physics departments in which case you will be required to take graduate level physics courses such as quantum mechanics, statistical mechanics, classical mechanics, and EM of course. You would most likely receive a better preparation for this in a physics undergrad.

That said, you could also go to grad school in EE and focus on say, RF engineering, and then work your way into accelerators through USPAS etc. There are many ways to get into the field, and its a pretty diverse field.

As for courses, the ones you listed look pretty good. Lots of EM. Optics is good also. Plasma may definitely have its uses, it's probably not something that is necessary in an undergrad though.

I can tell you what courses I am taking. I am in my Senior year of an Engineering Physics degree (EE and physics :) ). I will be applying for graduate school in accelerator physics this fall. The thing in brackets is what department it was taught through.

Fall courses:
Quantum Mechanics 2 (physics)
Microwave Circuits (EE)
Computational Electrodynamics or Computational Physics (EE or physics)
Engineering Design Course/Project (EE)

Spring:
Microwave and Wireless Systems (EE)
Statistical Mechanics (physics)
Continuum Mechanics (physics)
Relativistic Electrodynamics (physics)

I am also doing a full year thesis on Superconducting RF cavity design, which will give me a pretty thorough grounding in the field. I've also taken my basic electromagnetostatics (EE), EM fields and waves (EE), and optics (EE) courses in previous years.

Hope this helps.

I'm guessing taking all 3 (EM 1&2, plasma, and optics) would leave one very well prepared? I'm taking the E&M sequence from physics as well as plasma physics right now. The first four chapters of bittencourt's plasma book is all advanced and some relativistic e&m.
 
  • #9
Moneer81 said:
Also, what schools have you been looking at? I know that Stony Brook has a good program, but any others that you recommend?

Well, I'm Canadian so I'm trying to stay within Canada. In Canada the only true places that do accelerator physics are UBC and UVictoria. I am applying to both those places, and hope to secure a position working at TRIUMF.

In the states I am applying to Stanford, Cornell and Stony Brook potentially. But there are many other places you could apply. Other places to look into are UCLA, Berkeley, College of William and Mary, Michigan, MIT (I think), Northwestern (I think?) plus there may be others that I never even considered.

It's hard to come by programs specifically in accelerator physics. However, they do exist and there are plenty out there. Many of them specialize in different aspects of accelerator physics. For instance, Cornell has a heavy investment in superconducting RF, while places like UCLA and Berkeley are more heavily involved in beam physics and plasma wakefield stuff.
 
  • #10
There are also plenty of other schools that have faculty members who specializes in accelerator physics, and thus, can supervise some who wish to go into such a field. Maryland is an outstanding school for accelerator physics and has produced a lot of accelerator prominent physicists. There is also Indiana University, Vanderbilt, etc. Even less well-known schools such as Northern Illinois University and Illinois Institute of Technology graduate accelerator physicists.

My suggestion is to go look at an accelerator conference proceeding (check JACoW) and look at the affiliations of the authors.

Zz.
 
  • #11
Thanks nicholls and ZapperZ!

I have a good list of schools to start with now...
 

1. What is the difference between EE and Physics in the field of Accelerator Physics?

EE (Electrical Engineering) focuses on the design and implementation of electrical systems, while physics focuses on understanding the fundamental principles and laws that govern the behavior of matter and energy. In the context of accelerator physics, EE is more concerned with the engineering aspects of building and maintaining the accelerator, while physics is focused on the theoretical and experimental aspects of studying particle beams and their interactions.

2. What background knowledge is needed for studying Accelerator Physics in EE?

A strong foundation in mathematics, particularly calculus and differential equations, is essential for studying accelerator physics in EE. Additionally, knowledge of electromagnetism, circuit analysis, and control systems is beneficial in understanding the design and operation of accelerators.

3. How does EE contribute to the advancement of Accelerator Physics?

EE plays a crucial role in the design, construction, and operation of accelerators. Electrical engineers are responsible for designing the complex electrical systems that power the accelerator, control the particle beams, and collect and analyze data. They also develop new technologies, such as superconducting magnets and advanced control systems, that push the boundaries of accelerator performance.

4. What are the main challenges faced by EE in the field of Accelerator Physics?

One of the main challenges faced by EE in accelerator physics is dealing with high power and high voltage systems. These systems require specialized knowledge and expertise to ensure safe and reliable operation. Additionally, designing and maintaining the complex control systems and data acquisition systems for accelerators can also be a challenge.

5. How does the collaboration between EE and Physics benefit the field of Accelerator Physics?

The collaboration between EE and Physics is essential in accelerator physics as it combines the expertise of both fields to tackle complex problems and advance the field. While EE provides the technical know-how to design and build accelerators, physics offers the theoretical understanding and experimental techniques to study and push the limits of accelerator performance. This collaboration leads to advancements in both fields and contributes to scientific breakthroughs in many areas, from particle physics to medical technology.

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