threaded

CAD | embedded programming

background
Optical fibers transmit light through thin glass or plastic strands using total internal reflection, enabling high-speed data transfer and dynamic lighting. Beyond telecom and medical uses, it has become a powerful artistic medium, shaping light in space. This project explores optical fiber’s potential to blend and diffuse light from two directions.
materials
•  2,860ft (yes, really) optical fiber, .03" diameter, PMMA end glow
•  WS2812B LEDs (5V)
•  Meanwell LRS-100-5 power supply (5V)
•  Black PLA filament
•  Loctite super glue
•  UV resin
•  14 AWG power cord (rated for 15A+)
•  XIAO ESP32C3
•  Basic electrical components (resistors, wire, in-line switch, push button, perfboard)
•  Soldering materials
•  IKEA NISSEDAL mirror

process
•  Sketch out concept    →    what should it look like? what fabrication steps need to be taken?
•  3D model LED holders    →    start by measuring LED strip size, then model on Fusion 360
•  3D print LED holders    →    print off, check fit, adjust model, rinse, repeat
•  Create circuit diagram    →    list out hardware components, verify hardware is supported by libraries (ex. FastLED)
•  Solder everything together    →    burn yourself, inhale lead, desire to have an actual studio space with real ventilation
•  Secure lights in holders    →    these models are technically snapfit, but you can make them permanent with superglue
•  Secure lights to mirror    →    superglue your printed parts (with LED strips inside) to edges of mirror
•  Create fiber bundles    →    sand, cut, and group optical fiber bundles into 88 bundles consisting of 15 strands, each 26" long
•  Bond fiber bundles    →    use UV resin to secure fiber bundles to the LEDs housed in the printed parts
•  Program modes    →    the fun part! 
sketching
sketching
3d printed part diagrams
3d printed part diagrams
how optical fibers transmit light
how optical fibers transmit light
circuit diagrams
circuit diagrams
soldering
soldering