In this part we'll use the collision detection mechanism to build a simple but robust physical response between the objects.

In this part we'll add ledge grabbing, jump leniency mechanics, and an ability to scale the object.

In this part, we'll finish collision detection against the tilemap and add support for one-way platforms.

In this part we'll create a tilemap, and we'll partially implement object-tilemap collision detection and response.

This series will cover how to create a simple and robust physics system for a platformer game. In this part, we'll look at character collision data.

In this part of our series, we'll introduce a new mechanic to the character: ledge grabbing. We'll also make appropriate changes to both the pathfinding...

In this tutorial, we'll use the platformer pathfinding algorithm we've been building to power a bot that can follow the path by itself; just click on a...

In this tutorial, we'll extend our grid-based platformer pathfinder so that it can cope with characters that take up more than one cell of the grid.

In this short tutorial, we'll extend our platformer pathfinder so that it can deal with one-way platforms: blocks that the character can jump through and...

Now that we have a good idea of how to modify an A* pathfinding algorithm to work for platformers, it's time to actually code it. Rather than build it from...

There are plenty of uses for lightning effects in games, from background ambiance during a storm to the devastating lightning attacks of a sorcerer. In this...

In this tutorial, we're going to simulate a dynamic 2D body of water using simple physics. We will use a mixture of a line renderer, mesh renderers, triggers...