Functions
void	esys_prim_iso_hyd (const Real d, const Real v1, Real eigenvalues[], Real right_eigenmatrix[][4], Real left_eigenmatrix[][4])
	ISOTHERMAL HYDRO Input: d, v1 = primitive variables Output: eigenvalues[4], right_eigenmatrix[4,4], left_eigenmatrix[4,4];.
void	esys_prim_adb_hyd (const Real d, const Real v1, const Real p, Real eigenvalues[], Real right_eigenmatrix[][5], Real left_eigenmatrix[][5])
	ADIABATIC HYDRO Input: d, v1, p = primitive variables Output: eigenvalues[5], right_eigenmatrix[5,5], left_eigenmatrix[5,5];.
void	esys_prim_iso_mhd (const Real d, const Real v1, const Real b1, const Real b2, const Real b3, Real eigenvalues[], Real right_eigenmatrix[][6], Real left_eigenmatrix[][6])
	ISOTHERMAL MHD Input: d, v1, b1, b2, b3 = density, velocities, and B field Output: eigenvalues[6], right_eigenmatrix[6,6], left_eigenmatrix[6,6];.
void	esys_prim_adb_mhd (const Real d, const Real v1, const Real rho_a2, const Real b1, const Real b2, const Real b3, Real eigenvalues[], Real right_eigenmatrix[][7], Real left_eigenmatrix[][7])
	ADIABATIC MHD Input: d, v1, p, b1, b2, b3 = density, velocities, pressure, and B field Output: eigenvalues[7], right_eigenmatrix[7,7], left_eigenmatrix[7,7];.
void	lr_states_destruct (void)
	NoOp for first order, but included for compatibility with integrator (needed for 2nd and 3rd order).
void	lr_states_init (MeshS *pM)
	NoOp for first order, but included for compatibility with integrator (needed for 2nd and 3rd order).
void	lr_states (const GridS *pG, const Prim1DS W[], const Real Bxc[], const Real dt, const Real dx, const int is, const int ie, Prim1DS Wl[], Prim1DS Wr[], const int dir)
	Computes L/R states Input Arguments: W = PRIMITIVE variables at cell centers along 1-D slice Bxc = B in direction of slice at cell center dtodx = dt/dx il,iu = lower and upper indices of zone centers in slice W and Bxc must be initialized over [il-2:iu+2].

Function Documentation

void esys_prim_adb_hyd	(	const Real	d,
		const Real	v1,
		const Real	p,
		Real	eigenvalues[],
		Real	right_eigenmatrix[][5],
		Real	left_eigenmatrix[][5]
	)

ADIABATIC HYDRO Input: d, v1, p = primitive variables Output: eigenvalues[5], right_eigenmatrix[5,5], left_eigenmatrix[5,5];.

Definition at line 120 of file esystem_prim.c.

References a.

Referenced by lr_states().

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void esys_prim_adb_mhd	(	const Real	d,
		const Real	v1,
		const Real	rho_a2,
		const Real	b1,
		const Real	b2,
		const Real	b3,
		Real	eigenvalues[],
		Real	right_eigenmatrix[][7],
		Real	left_eigenmatrix[][7]
	)

ADIABATIC MHD Input: d, v1, p, b1, b2, b3 = density, velocities, pressure, and B field Output: eigenvalues[7], right_eigenmatrix[7,7], left_eigenmatrix[7,7];.

Definition at line 388 of file esystem_prim.c.

References a, and s.

Referenced by lr_states().

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void esys_prim_iso_hyd	(	const Real	d,
		const Real	v1,
		Real	eigenvalues[],
		Real	right_eigenmatrix[][4],
		Real	left_eigenmatrix[][4]
	)

ISOTHERMAL HYDRO Input: d, v1 = primitive variables Output: eigenvalues[4], right_eigenmatrix[4,4], left_eigenmatrix[4,4];.

Definition at line 51 of file esystem_prim.c.

References Iso_csound.

Referenced by lr_states().

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void esys_prim_iso_mhd	(	const Real	d,
		const Real	v1,
		const Real	b1,
		const Real	b2,
		const Real	b3,
		Real	eigenvalues[],
		Real	right_eigenmatrix[][6],
		Real	left_eigenmatrix[][6]
	)

ISOTHERMAL MHD Input: d, v1, b1, b2, b3 = density, velocities, and B field Output: eigenvalues[6], right_eigenmatrix[6,6], left_eigenmatrix[6,6];.

Definition at line 212 of file esystem_prim.c.

References Iso_csound, Iso_csound2, and s.

Referenced by lr_states().

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void lr_states	(	const GridS *	pG,
		const Prim1DS	W[],
		const Real	Bxc[],
		const Real	dt,
		const Real	dx,
		const int	il,
		const int	iu,
		Prim1DS	Wl[],
		Prim1DS	Wr[],
		const int	dir
	)

Computes L/R states Input Arguments: W = PRIMITIVE variables at cell centers along 1-D slice Bxc = B in direction of slice at cell center dtodx = dt/dx il,iu = lower and upper indices of zone centers in slice W and Bxc must be initialized over [il-2:iu+2].

Computes L/R states Input Arguments:

W = PRIMITIVE variables at cell centers along 1-D slice
Bxc = B in direction of slice at cell center
dtodx = dt/dx
il,iu = lower and upper indices of zone centers in slice W and Bxc must be initialized over [il-2:iu+2].

Computes L/R states.

Output Arguments: Wl,Wr = L/R-states of PRIMITIVE variables at interfaces over [il:iu+1]

Input Arguments:

W = PRIMITIVE variables at cell centers along 1-D slice
Bxc = B in direction of slice at cell center
dtodx = dt/dx
il,iu = lower and upper indices of zone centers in slice W and Bxc must be initialized over [il-3:iu+3]

Output Arguments: