2D, 3D, game, games, online game, game development, game engine, programming, OpenGL, Open AI, math, graphics, design, graphic, graphics, game development, game engine, programming, web development, web art, web graphic, arts, tutorial, tutorials,
Important notice : Piskel accounts are going away, the editor stays.
New accounts can no longer be created after August 1st 2021. Existing accounts will be deleted after January 1st 2022.
Please backup your data before this date. See the Accounts Shutdown page for more details
(collapse this message)
It’s the moment you’ve all been waiting for—it’s time to announce the winners of the 2021 Epic MegaJam. While it hasn’t been easy selecting the finalists and modifier winners due to the sheer amount of talent and inspiration on display, it has been a privilege to play every one of your wonderful creations. Now, join us as we showcase the winning games and celebrate all that you have accomplished in only seven days!
The simulation of large open water surface is challenging using a uniform volumetric discretization of the Navier-Stokes equations. Simulating water splashes near moving objects, which height field methods for water waves cannot capture, necessitates high resolutions. Such simulations can be carried out using the Fluid-Implicit-Particle (FLIP) method. However, the FLIP method is not efficient for the long-lasting water waves that propagate to long distances, which require sufficient depth for a correct dispersion relationship. This paper presents a new method to tackle this dilemma through an efficient hybridization of volumetric and surface-based advection-projection discretizations. We design a hybrid time-stepping algorithm that combines a FLIP domain and an adaptively remeshed Boundary Element Method (BEM) domain for the incompressible Euler equations. The resulting framework captures the detailed water splashes near moving objects with the FLIP method, and produces convincing water waves with correct dispersion relationships at modest additional costs.