BA Elias Saarmann: Difference between revisions
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== in [https://arxiv.org/pdf/2603.20373 Radiating Bondi Flows I] == | == in [https://arxiv.org/pdf/2603.20373 Radiating Bondi Flows I] == | ||
\[ | For the outer boundry conditions $r \rightarrow \infty$ | ||
\[ | |||
(\tilde{\rho},\mathcal{M}, s, \tilde{L}, \tilde{E}_\text{r}) &\rightarrow (1, 0, s_\infty, \tilde{L}_\infty, 1) | |||
\] | |||
With dimensionless density \( \tilde{\rho} = \frac{\rho(r)}{\rho_\infty}\), Mach number \(\mathcal{M} = \frac{v(r)}{c_s(r)}\), dimensionless entropy \( s = \frac{S}{c_\tx{V}}\) and dimensionless radiation Energy density \(\tilde{E}_\tx{r} = \frac{E_\tx{r}}{a_\tx{r}T_\infty^4}\). | |||
== in PLUTO/belt == | == in PLUTO/belt == | ||
Revision as of 22:06, 23 June 2026
Literatur
Randbedingungen
in Radiating Bondi Flows I
For the outer boundry conditions $r \rightarrow \infty$ \[ (\tilde{\rho},\mathcal{M}, s, \tilde{L}, \tilde{E}_\text{r}) &\rightarrow (1, 0, s_\infty, \tilde{L}_\infty, 1) \]
With dimensionless density \( \tilde{\rho} = \frac{\rho(r)}{\rho_\infty}\), Mach number \(\mathcal{M} = \frac{v(r)}{c_s(r)}\), dimensionless entropy \( s = \frac{S}{c_\tx{V}}\) and dimensionless radiation Energy density \(\tilde{E}_\tx{r} = \frac{E_\tx{r}}{a_\tx{r}T_\infty^4}\).
in PLUTO/belt
Code-Anpassungen für konstante Zentralmasse
(Lothar)
M_centr(o.Ä.) als weiteren Parameter in user_defined_parameters.h definieren und die AnzahlUSER_DEF_PARAMETERSentsprechend erhöhen- den Wert von
M_centrin pluto.ini unter[Parameters]setzen (in Gramm) - body-force.c aus belt/src/Misc in den Run-Folder kopieren und in Zeile 64 die
M_X1_BEGdurch(g_inputParam[M_centr]/ReferenceMass)ersetzen