TODO: Project Decription here

• uses boost::units to help ensure correctness
• uses a custom multi-resolution simulator implementation to ensure there is higher resolution in areas of greater change

• simple run git clone --recursive [email protected]:garethellis0/simple_cfd.git to get this project with its dependencies

• Bring in the multi-resolution simulator as a submodule, instead of just as files
• Model "Euler Equations" https://en.wikipedia.org/wiki/Euler_equations_(fluid_dynamics) (decided to just go right for Navier-Stokes, not much harder and gives better results)
• Model "Navier-Stokes" https://en.wikipedia.org/wiki/Navier%E2%80%93Stokes_equations and solve for velocity (somewhat done, modeled Navier-Stokes with slight compressability via a pressure approx. from velocity)
• Extract pressure from Navier-Stokes velocity field
• Clean up the simulator rendering code and change the render model to allow for update steps longer then the render cycle time
• Build an (programmatic) interface for adding obstacles
• Come up with a better visualisation scheme
• Change the update model to use interpolation and generate a totally new simulator each time, instead of just updating the existing one (prep for dynamic mesh generation)
• Implement basic mesh generation (higher resolution in areas that need it)
• Build a basic GUI for setting up the configuration parameters (min/max mesh resolution, update time step, etc.)
• Add basic GUI for adding obstacles (maybe upload PNG's drawn in paint?)
• Implement automatic step-sizes (basically make sure the Courant-Friedrichs-Lewy condition is satisfied at each step)

• The Navier-Stokes is just a generalized version of the Euler equations

• When the pressure change over a timestep exceeds a threshold for a point, split that point (and vice versa, merge points with little change)

June 2nd, 2018: August 30th, 2018 (took a bit of a break...):