HBP and SDK Design statement: Our series will explore colors in space through the creation of 1000 different compositions. All the images will have a black ground with a white circle that is off center to balance the weight of the black. Additional circles in varying quantities, sizes, colors, and locations will be scattered around the composition. The colors of the circles will be partially dependent on the colors behind them. Where the circles overlap, a color between the colors of the two individual circles will exist. We will also be exploring space by creating contrast between the black ground and colored circles. The color that overlaps will suggest a relative height between the different circles. As more overlaps occur, a sense of depth will be created. Conversely, fewer or no circles in a space will result in the colors that exist becoming the focal point. The single white circle will provide further contrast to both the colored circles and the black ground. Because this series explores circles, it is best seen in a square picture plane. Because circles inherently have the same vertical and horizontal diameters, the circles will not be able to scale based on the vertical dimension of the canvas. This is intentional, the series is exploring circles, not ellipses. Non-square picture planes, however, will still scale as long as the proportions are maintained. Technique statement: Our four different variables based on n with be color, location, size, and number of the circles. The color in our series will be created using RGB colors based on calculations using n and both the intended color of the circle and the color of the pixels behind that circle. The location of the circles will based on n and they will be dispersed around the image, and all center points will be on the image. Size will be based on n for each individual circle, and no circle will be larger than the white circle. The number of circles will solely based on n, but will not necessarily be n. Our background will always be black, the shapes will always be circles, and there will always be circles, regardless of n. "N" will be looped (using modulo) to choose from lists of colors, list of numbers (denoting location and size), and lists of procedures that create varying numbers of circles based on values pulled from the previous two lists. Because the these three lists use different modulos using prime numbers as their upper-bound, values 0 through 999 for n will never produce two identical images. Techniques we are hoping to use include RGB color blending, using functors, and association lists. We will use color blending to create our sense of depth, functors to create the necessary functions for our implementation, lists to provide a form of variation that (list-ref (mod list-length n)) can call, and turtles to have fun at the end.