• This forum is strictly intended to be used by members of the VS Battles wiki. Please only register if you have an autoconfirmed account there, as otherwise your registration will be rejected. If you have already registered once, do not do so again, and contact Antvasima if you encounter any problems.

    For instructions regarding the exact procedure to sign up to this forum, please click here.
  • We need Patreon donations for this forum to have all of its running costs financially secured.

    Community members who help us out will receive badges that give them several different benefits, including the removal of all advertisements in this forum, but donations from non-members are also extremely appreciated.

    Please click here for further information, or here to directly visit our Patreon donations page.
  • Please click here for information about a large petition to help children in need.

Relativistic KE for omnidirectional feats

Bump

Edit: on a second thought, I'm not sure if that'll work since I have no idea how to adjust t to that. So I'll go with density increasing which will add extra γ(r). For example case 1 will look like that:

2πϱHc² ∫₀ᴿ (γ(r) - 1) γ(r) r dr =

2πϱHc² ∫₀ᴿ (1/(1 - V²r²/(R²c²)) - 1/√(1 - V²r²/(R²c²))) r dr
So, is the idea that the Lorentz-transformation does a 1/γ(r) for the length contraction since mass is divided by volume that gets inverted into an added γ(r)? Or what are your steps?
 
So, is the idea that the Lorentz-transformation does a 1/γ(r) for the length contraction since mass is divided by volume that gets inverted into an added γ(r)? Or what are your steps?
It's just either replacing dr by γ(r) * dr or rho by γ(r) * rho, you can think either way.
 
It's just either replacing dr by γ(r) * dr or rho by γ(r) * rho, you can think either way.
Sure, but why are you making these replacements?
 
Sure, but why are you making these replacements?
Because differential thickness we measure dr is Lorentz-contracted compared to proper thickness (say dr0) and relation would be dr = dr0/γ(r). For proper mass, we should use proper values.

Alternatively if we go with density, you'd multiply it by γ(r) if object as a whole was moving at same speed right? I'm doing same thing, just locally.

Edit: reread your last post and yeah that's the idea.
 
So, is the idea that the Lorentz-transformation does a 1/γ(r) for the length contraction since mass is divided by volume that gets inverted into an added γ(r)? Or what are your steps?
Because differential thickness we measure dr is Lorentz-contracted compared to proper thickness (say dr0) and relation would be dr = dr0/γ(r). For proper mass, we should use proper values.

Alternatively if we go with density, you'd multiply it by γ(r) if object as a whole was moving at same speed right? I'm doing same thing, just locally.

Edit: reread your last post and yeah that's the idea.
Bump.
 
A thoroughly written proof would be ideal, but this is probably fine like that. We gotta need a second proper evaluation, though.
 
A thoroughly written proof would be ideal, but this is probably fine like that. We gotta need a second proper evaluation, though.
Thanks! I'll edit the OP according to that a little later and call some CGMs. Putting you as agree then. 🙏
 
unless the KE feats page gets modified to include omnidirectional feats, I would assume this would go on the cloud calculations page since that's where the regular omnidirectional ke formulas are at
 
unless the KE feats page gets modified to include omnidirectional feats, I would assume this would go on the cloud calculations page since that's where the regular omnidirectional ke formulas are at
I believe spherical case is uncommon for cloud feats.
 
Just approvals of the formula and whatnot. Though I feel like another CGM approval might be needed plus that of Bambu's.
 
Could've sworn I already posted in here

What's left to do here?
Formulas are already accepted. I also made a calculator and now we need to decide how to implement them (for example adding to KE feats page, creating its own page, adding to clouds calcs page, etc.).
 
Back
Top