Are any of you familiar with vacuum polarization beyond the standard model?

Started by Astner3 pages

Are any of you familiar with vacuum polarization beyond the standard model?

Because I need help simplifying this expression,

into this,

where the asterisk denotes that it's an irreducible single particle representation, and.

You need to carry the 1 into the tens place.

Can't tell if Dadudemon is being helpful or flippant... mhmm

g_serious

No

Originally posted by Omega Vision
Can't tell if Dadudemon is being helpful or flippant... mhmm

It's an algebraic expression, he's making an ass out of himself.

Did you try to reverse the polarity, though?

Have you tried wolfram alpha? 😉

But IDK why you think KMC forums has many people who can do this...

Originally posted by Master Han
Have you tried wolfram alpha? 😉

But IDK why you think KMC forums has many people who can do this...

I don't think receiving help was in any way, shape or form the intention of this thread.

If you can't do calculus you should be in a different line of work.

Re: Are any of you familiar with vacuum polarization beyond the standard model?

Originally posted by Astner
Because I need help simplifying this expression,

into this,

where the asterisk denotes that it's an irreducible single particle representation, and.

This equation is screwed up, I'm afraid. It deduces that pi exactly 3.

Never-mind, I was able to solve it.

Originally posted by Bardock42
Did you try to reverse the polarity, though?

The expression represents the sum of all connected graphs, with two external photon lines, and with polarization indices μ and ν carrying four-momentum q into and out of a diagram.

Originally posted by Master Han
Have you tried wolfram alpha?

I have Mathematica, and no, it can't be used to solve these type of problems.

Originally posted by Symmetric Chaos
If you can't do calculus you should be in a different line of work.

This isn't calculus, this is group field theory.

Originally posted by Astner
Never-mind, I was able to solve it.

I don't doubt you, but out of curiosity, would you mind posting how you did it?

Originally posted by Master Han
I don't doubt you, but out of curiosity, would you mind posting how you did it?

Yeah, I'm rewriting it in TeX right now. You might have to wait until tomorrow though because it's five pages on paper, and I have work in the morning.

does it make you feel superior to post calculus problems on a forum in which the most popular topics tend to be "which fictional character wins in h2h combat"?

Originally posted by focus4chumps
does it make you feel superior to post calculus problems on a forum in which the most popular topics tend to be "which fictional character wins in h2h combat"?

That's ridiculous.

It makes him feel superior to post group field theory problems on a forum in which the most popular topics tend to be "which fictional character wins in h2h combat"

oh right. what i meant to do was nod my head and pretend to understand like everyone else does in these threads. right ddm?

Originally posted by Astner
Yeah, I'm rewriting it in TeX right now. You might have to wait until tomorrow though because it's five pages on paper, and I have work in the morning.

Um, if you're just doing it for us, it's really ok, lol. But I assume you're not.

Originally posted by Astner
Because I need help simplifying this expression,

into this,

where the asterisk denotes that it's an irreducible single particle representation, and.

😐

This is the calculational equivalent of benching 400 pounds.

Actually, I do find the concept of vacuum polarization fascinating. For me, it really drives home the idea of an active vacuum and of the close relationship between spacetime, matter and energy (or so I think).

Originally posted by Astner
This isn't calculus, this is group field theory.

"This isn't addition, this is adding together the number of eggs in each hen house."

Originally posted by Master Han
Um, if you're just doing it for us, it's really ok, lol. But I assume you're not.

He's worried about his e-penis. This is the equivalent of flashing other dudes in a locker room.

Haha, someone wants to show off.