TARANG.lib.time_advance.time_advance_hydro#

Functions#

compute_rhs_hydro(para, t, U, P, univ)

Compute the right-hand side (RHS) for the hydrodynamic field.

loop_breaker(para, U, univ)

Check if the loop should be broken based on certain conditions.

time_adv_single_step_hydro(para, a, b, c, U, univ)

Perform a single time advancement step for the hydrodynamic field.

time_advance_Euler_hydro(para, U, P, univ)

Perform time advancement using the Euler method for the hydrodynamic field.

time_advance_RK2_hydro(para, U, P, univ)

Perform time advancement using the second-order Runge-Kutta (RK2) method for the hydrodynamic field.

compute_RK4_parts_hydro(para, b, factor, U, univ)

Compute the parts for the fourth-order Runge-Kutta (RK4) method for the hydrodynamic field.

time_advance_RK4_hydro(para, U, P, univ)

Perform time advancement using the fourth-order Runge-Kutta (RK4) method for the hydrodynamic field.

Module Contents#

TARANG.lib.time_advance.time_advance_hydro.compute_rhs_hydro(para, t, U, P, univ)#

Compute the right-hand side (RHS) for the hydrodynamic field.

Parameters:
  • t (float) – Current time.

  • U (VectorField) – VectorField object representing the velocity field.

  • P (Pressure) – Pressure object representing the pressure field.

  • univ (UniversalArrays) – UniversalArrays object for temporary storage.

Return type:

None

TARANG.lib.time_advance.time_advance_hydro.loop_breaker(para, U, univ)#

Check if the loop should be broken based on certain conditions.

Parameters:
  • U (VectorField) – VectorField object representing the velocity field.

  • univ (UniversalArrays) – UniversalArrays object for temporary storage.

Returns:

True if the loop should be broken, False otherwise.

Return type:

bool

TARANG.lib.time_advance.time_advance_hydro.time_adv_single_step_hydro(para, a, b, c, U, univ)#

Perform a single time advancement step for the hydrodynamic field.

Parameters:
  • a (float) – Coefficient for the time advancement scheme.

  • b (float) – Coefficient for the time advancement scheme.

  • c (float) – Coefficient for the time advancement scheme.

  • U (VectorField) – VectorField object representing the velocity field.

  • univ (UniversalArrays) – UniversalArrays object for temporary storage.

Return type:

None

TARANG.lib.time_advance.time_advance_hydro.time_advance_Euler_hydro(para, U, P, univ)#

Perform time advancement using the Euler method for the hydrodynamic field.

Parameters:
  • U (VectorField) – VectorField object representing the velocity field.

  • P (Pressure) – Pressure object representing the pressure field.

  • univ (UniversalArrays) – UniversalArrays object for temporary storage.

Return type:

None

TARANG.lib.time_advance.time_advance_hydro.time_advance_RK2_hydro(para, U, P, univ)#

Perform time advancement using the second-order Runge-Kutta (RK2) method for the hydrodynamic field.

Parameters:
  • U (VectorField) – VectorField object representing the velocity field.

  • P (Pressure) – Pressure object representing the pressure field.

  • univ (UniversalArrays) – UniversalArrays object for temporary storage.

Return type:

None

TARANG.lib.time_advance.time_advance_hydro.compute_RK4_parts_hydro(para, b, factor, U, univ)#

Compute the parts for the fourth-order Runge-Kutta (RK4) method for the hydrodynamic field.

Parameters:
  • b (float) – Coefficient for the time advancement scheme.

  • factor (float) – Factor for the time advancement scheme.

  • U (VectorField) – VectorField object representing the velocity field.

  • univ (UniversalArrays) – UniversalArrays object for temporary storage.

Return type:

None

TARANG.lib.time_advance.time_advance_hydro.time_advance_RK4_hydro(para, U, P, univ)#

Perform time advancement using the fourth-order Runge-Kutta (RK4) method for the hydrodynamic field.

Parameters:
  • U (VectorField) – VectorField object representing the velocity field.

  • P (Pressure) – Pressure object representing the pressure field.

  • univ (UniversalArrays) – UniversalArrays object for temporary storage.

Return type:

None