Photographing architectural models presented an intriguing challenge: capturing the interior. Tiny cameras typically shoot at a resolution too low to produce an acceptable result. After some Internet research, some experimentation in our fabrication lab, and much trial and error, I emerged with a solution. Using 3D-printed parts and a few other supplies, I was able to hack together an inexpensive, Raspberry Pi-driven camera rig for architectural models—and much more. My specific need for a small, flexible camera was built with the aid of the creative community and the result is ripe for experimentation and innovation to photograph other difficult spaces. Imagine capturing the detail inside a Ming vase or documenting the interior welds of a John Chamberlain sculpture. Faculty and students spent an immense amount of time creating these model spaces adding figures for scale and experimenting with lighting sources to give the viewer an accurate view of their vision for the structure. However, the viewer was forced to look through the windows and never truly experience the interiors. Enter experimentation. I started with what people have done and adapted to my needs. A pattern emerged of working until a question arose and then tracking down a solution. How do I run cable through the conduit? What about lighting? There's always a chance someone has found a solution and has shared it with the community. Whether digitizing student work at The Ohio State University or photographing ancient vases at the Kenchreai excavations in Greece, I've found there are always problems that require creative solutions. This project demonstrates how tech tools are exponentially more powerful when driven by the power of community. No one had created exactly what I needed, but by grabbing parts from work shared by others, I've been able to create tools with applications beyond architectural models.