the libmiyamoto module¶
- pNbody.libmiyamoto.Density(G, M, a, b, R, z)¶
Miyamoto-Nagai Density
- pNbody.libmiyamoto.Kappa(G, M, a, b, R)¶
Miyamoto-Nagai Kappa
- pNbody.libmiyamoto.Omega(G, M, a, b, R)¶
Miyamoto-Nagai Omega
- pNbody.libmiyamoto.Potential(G, M, a, b, R, z)¶
Miyamoto-Nagai Potential
- pNbody.libmiyamoto.Sigma_t(G, M, a, b, R, z)¶
Return sigma_z from Jeans equation : 1/rho Int( rho * dzPhi * dz )
sigma_t^2 = R*d/dr(Phi) + R/rho*d/dr(rho*sigma_z^2)
- pNbody.libmiyamoto.Sigma_z(G, M, a, b, R, z)¶
Return sigma_z from Jeans equation : 1/rho Int( rho * dzPhi * dz )
- pNbody.libmiyamoto.Sigma_zbis(G, M, a, b, R, z)¶
Same than Sigma_z, but optimized
- pNbody.libmiyamoto.SurfaceDensity(G, M, a, b, R)¶
Miyamoto-Nagai Surface density
- pNbody.libmiyamoto.Vcirc(G, M, a, b, R)¶
Miyamoto-Nagai Circular velocity
- pNbody.libmiyamoto.d2R_Potential(G, M, a, b, R, z)¶
second derivative in R
- pNbody.libmiyamoto.d2z_Potential(G, M, a, b, R, z)¶
second derivative in R
- pNbody.libmiyamoto.dR_Potential(G, M, a, b, R, z)¶
first derivative in R
- pNbody.libmiyamoto.dz_Potential(G, M, a, b, R, z)¶
first derivative in R