Overview of files:

full_step_ns.py

• Runs a Navier Stokes full step solver with upwind discretization of the convective term.

• This file is not designed to run in the terminal. It is a module that must be imported into other python files.

• It contains a method to calculate the fluid at the next timestep.

  calculate_step(u, v, f1, f2, rho, mu, dx, dt)

• It also contains default tests:

  solve_ns_const_force_1(rho, mu, L, dx, dt, Niter) solve_ns_explosion(rho, mu, L, dx, dt, Niter, icenter, jcenter, magx, magy, radius, tstart, tend, explosion_type)

full_step_ns_tester.py

• Runs a Navier Stokes full step solver with upwind discretization of the convective term.

• Can be run in the terminal. ** Type "python3 full_step_ns_tester.py -h" for details on how to run it

half_step_ns.py

• Runs a Navier Stokes half step solver without upwind discretization of the convective term.

• This file is not designed to run in the terminal. It is a module that must be imported into other python files.

• It contains a method to calculate the fluid at the next timestep.

  calculate_step(u, v, f1, f2, rho, mu, dx, dt)

• It also contains default tests:

  solve_ns_const_force_1(rho, mu, L, dx, dt, Niter) solve_ns_explosion(rho, mu, L, dx, dt, Niter, icenter, jcenter, magx, magy, radius, tstart, tend, explosion_type)

half_step_ns_tester.py

• Runs a Navier Stokes half step solver without upwind discretization of the convective term.

• Can be run in the terminal. ** Type "python3 half_step_ns_tester.py -h" for details on how to run it

half_step_upwind_ns.py

• Runs a Navier Stokes half step solver with upwind discretization of the convective term.

• This file is not designed to run in the terminal. It is a module that must be imported into other python files.

• It contains a method to calculate the fluid at the next timestep.

  calculate_step(u, v, f1, f2, rho, mu, dx, dt)

• It also contains default tests:

  solve_ns_const_force_1(rho, mu, L, dx, dt, Niter) solve_ns_explosion(rho, mu, L, dx, dt, Niter, icenter, jcenter, magx, magy, radius, tstart, tend, explosion_type)

half_step_upwind_ns_tester.py

• Runs a Navier Stokes half step solver with upwind discretization of the convective term.

• Can be run in the terminal. ** Type "python3 half_step_upwind_ns_tester.py -h" for details on how to run it

half_step_upwind_ns_3D.py

• Runs a Navier Stokes half step solver with upwind discretization of the convective term in 3D.

• This file is not designed to run in the terminal. It is a module that must be imported into other python files.

• It contains a method to calculate the fluid at the next timestep.

  calculate_step(u, v, f1, f2, rho, mu, dx, dt)

• It also contains default tests:

  solve_ns_const_force_1(rho, mu, L, dx, dt, Niter) solve_ns_explosion(rho, mu, L, dx, dt, Niter, icenter, jcenter, magx, magy, radius, tstart, tend, explosion_type)

test_ns.py

• Contains several tests for all three types of Navier Stokes solvers.

The OpenFoam simulation is a single configured simulation of a simple LES model that was used to compare the computational power between LES and DNS.

Under miscellaneous is a simple matlab program that applies an image of a fluid to a course grain, which was used as a visual aid in our presentation.

Link for image in miscellaneous: https://comtessablog.files.wordpress.com/2018/04/ncview_s1.png