ThreeDimensionalConfigurations/DescriptionOfRiemannTypeI: Difference between revisions

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   <td align="center" colspan="2">'''Example Values'''</td>
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<math>~+ 1.025854</math>
<math>~+ 1.025854</math>
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<math>~=</math>
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\biggl\{
b^2 c^2 \biggl[ 1  -  \frac{z_0^2 \cos^2\theta }{( c^2 \cos^2\theta + b^2 \sin^2\theta )^{1 / 2}}  \biggr]
\biggl[ (c^2  \cos^2\theta + b^2 \sin^2\theta ) - z_0^2 \cos^2\theta \biggr]^{-1}
\biggr\}^{- 1 / 2}
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Revision as of 19:12, 16 February 2022


Description of Riemann Type I Ellipsoids

Type I
Riemann
Ellipsoids

Example Equilibrium Model

This particular set of seven key parameters has been drawn from [EFE] Chapter 7, Table XIII (p. 170). The tabular layout presented here, also appears in a related discussion labeled, Challenges Pt. 2.

a=a1=1
b=a2=1.25
c=a3=0.4703
Ω2=0.3639
Ω3=0.6633
ζ2=−2.2794
ζ3=−1.9637

As a consequence — see an accompanying discussion (alternatively, ChallengesPt6) for details — the values of other parameters are …

    Example Values

tan⁡θ

=

−ζ2ζ3[a2+b2a2+c2]c2b2=−0.344793

       

θ=

−19.0238∘

Λ

≡

[a2a2+b2]ζ3cos⁡θ−[a2a2+c2]ζ2sin⁡θ

       

Λ=

−1.332892

y0z0

=

[a2a2+c2]ζ2Λ=−b2sin⁡θ(c2cos2θ+b2sin2θ)

       

y0z0=

+1.400377

xmaxymax

=

{Λ[a2+b2b2]cos⁡θζ3}1/2

       

    xmaxymax=

+1.025854

 

=

{b2c2[1−z02cos2θ(c2cos2θ+b2sin2θ)1/2][(c2cos2θ+b2sin2θ)−z02cos2θ]−1}−1/2

       

   

 

φ˙

=

{Λ[b2a2+b2]ζ3cos⁡θ}1/2

       

φ˙=

+1.299300

See Also

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