In my previous post I updated the render to allow perspective projection. This time I will move forward, and introduce 3 important updates: The construction of the Cornell Box Fortunately the Renderer already provides functionality to create and display meshes. From this, I have created 2 base objects, A box and Plane. Both objects are of a unit size. The Use of materials Making proper "realistic" ray tracer involves more than having objects with color. I have created a new structure called Material , containing additional properties, like Specular power, and Specular strength. In the following posts I will extend the material to include other properties, like BRDF, used to provide a more accurate physical light simulation. The result is a Cornell Box, only accounting for Diffuse and Specular components. Note that this box doesn't have the dimensions, or material properties of the official Cornell Box. Direct Lighting in a Cornell Box Depth rende
The simple ray tracer has been completed. Now what? It seems that I had already some spare time, so I have decided to move a bit further with the Ray Trace Renderer. My goal is to create a Ray Trace Renderer to render a Cornell Box (Should I consider it as the equivalent to a Diploma in computer graphics?) This Renderer will feature both Direct and Global Illumination. Keep in mind that, in order to keep it simple, I will not include reflections and caustics. The whole Rendering will be processed by the CPU (multi-threaded at most). It's not my intention to use GPU in this iteration. Getting hands dirty First step is to restructure the code, like making it more object oriented, and splitting the project into different files (not a single file, as it was currently) Second step is to extend the variety of Graphic Objects, not only to having Spheres, but in general for any kind of triangle based meshes. Graphic Objects A Graphic Object interface will hold some generic
