You mean besides the math you keep trying to get from me, and the C# code to play with if you're interested?
There's little to no math in my current post of interest. Also, I've already pointed out to you how useless that code is to me. See post
#71.
Ok, suppose we accept that the close galaxies are "pretty" sharp. How about the most highly redshifted galaxies? Are they just *as* sharp in your opinion?
In my experience, no. That doesn't make a difference though since even those observed, rather blurred, photons are still very near parallel in their paths. Read my arguments and you'll notice that I can (and probably should have) exchange the requirement of "sharp" to "relatively sharp" and still have valid arguments.
I'm trying to get you to "fess up" to the fact that "scattering happens", both in the lab, and in spacetime. What are the odds that every photon dodges every particle in spacetime to arrive on Earth unscathed and unredshifted due to *any* scattering effects?
I've never said (nor written) that scattering doesn't happen. I'm arguing about what the results would be if we were to try to explain the redshift with mainly scattering.
I'm not even personally convinced that simplified math formula applies to 'straight on' hits to the electron. It seems to preclude a "straight shot", as though two billiard balls cannot hit one another head on.
Then it wouldn't be Compton scattering, would it?
Even still, it is but *one type* of scattering, and there are many to choose from. As I said, I tend to prefer a predominantly field to field transfer process in the final analysis, with some particle scattering.
I haven't dealt with one scattering, I've dealt with them all! Notice the bolding:
Scattering - Wikipedia, the free encyclopedia
Scattering is a general physical process where some forms of
radiation, such as
light,
sound, or moving particles,
are forced to deviate from a straight trajectory by one or more localized non-uniformities in the medium through which they pass.
How so? I listed a bunch of known inelastic scattering methods that will produce basic photon redshift. Unless the laws of physics in space are different than they are in the lab, scattering will occur. It's a question of 'how much', not if.
I don't know where you've gotten the idea that I've said no scattering occurs. I've repeatedly stated against that notion.
As for your question, you insisted on Compton scattering occurring in some way that wasn't explain by Compton scattering. Doesn't that take you away from your precious "empirical" ideas?
You're asking me to do something that you could do yourself.
Argue with myself? Currently I haven't asked you for any math, that was an older post and it, although it lead to this, have little relevance.
I've tried to do exactly that.
And when I've changed my premises to fit your objection, my conclusions didn't change (since they are very general in their nature).
Include them in what exactly?
The subgroup of stars that are the group discussed.
If so, why are you asking me to calculate something that you can both measure and calculate yourself?
This is about the general arguments of post #71, link above, it contains no calculations (it does contain an angle, but that's just used as a hard cap as limit to the angles).
The point that I seem to have a tough time getting across is the fact that scattering and photon redshift occur in the lab. It is not empirically possible for photons to traverse millions and billions of light years of plasma and experience no scattering/redshift of any sort. It's just not even logical to begin with such an assumption. The problem with Lambda-CDM theory is that it *begins with that assumption*! It's a non starter of a claim in terms of what happens in the lab. It would take an act of God for every photon to dodge every encounter with every particle and heat/density/magnetic field change in the entire universe on it's way to Earth.
And guess what?
I'm not promoting that "Lambda-CDM" theory, I'm not even sure of what it says.
I'm not claiming that no photon scattering occurs.
I'm trying to discuss the unlikelihood of explaining a major bit of the redshift observed with scattering in a coherent way.
Read my arguments and you'll notice.