Blueprint embraces the relationship and parallels between art and science, creating compositions through the mathematical principles of logic that underpin life. Exploring analogies between DNA and computer code, UVA have created the Blueprint series; works that pair genetics and code as the blueprints of artificial and natural systems. As the work slowly changes over time, patterns fluctuate between varying degrees of complexity. Blueprint uses the basic concepts of evolution to create an ever-transitioning image. With cells literally transferring their genes to their adjoining others, colour flows like paint across the canvas. Drawing up a unique colourful composition every minute, Blueprint presents the unlimited outcome that results from a single algorithm; a single set of rules.

Mika Tajima

New Humans
In New Humans, emergent gatherings of synthetic humans rise from the surface of a black ferrofluid pool. Appearing to morph like a supernatural life form, these dynamic clusters of magnetic liquid produced by machine learning processes are images of communities of synthetic people–hybrid profiles modeled from actual DNA, fitness, and dating profile data sets sourced from public and leaked caches. The work questions how we can radically conceptualize the “user profile” to embody a self whose bounds are indefinable and multiple. Generative algorithm using machine learning (GAN, T-SNE) and fluid simulation (Navier Stokes), countour generation (OpenCV), user profile data caches (DNA, fitness, and dating), software production (Processing), ferrofluid, custom electromagnet matrix, custom PCB control system, computer, steel, wood, aluminum.

Skylar Tibbits and Arthur Olson

The Self-Assembly Line
Can we create objects that assemble themselves — that zip together like a strand of DNA or that have the ability for transformation embedded into them? These are the questions that Skylar Tibbits investigates in his Self-Assembly Lab at MIT, a cross-disciplinary research space where designers, scientists and engineers come together to find ways for disordered parts to become ordered structures.