Biologically-augmented 3D printed Wearables

Traveling to destinations beyond planet Earth involves voyages to hostile landscapes and deadly environments. Crushing gravity, amonious air, prolonged darkness, and temperatures that would boil glass or freeze carbon dioxide, all but eliminate the likelihood of human visitation. Wanderers explores the possibility of voyaging to the worlds beyond by visiting the worlds within.

D printed wearable capillaries designed for interplanetary pilgrims are infused with synthetically engineered microorganisms to make the hostile habitable and the deadly alive. Each design is a codex of the animate and inanimate with an origin and a destination: the origin being engineered organisms, which multiply to create the wearable within a 3D printed skins; and the destination being a unique planet in the solar system.

We explore a computational approach and associated protocol, which emulates biological growth by developing complex geometries over multiple iterations. The general framework for the generation of grown structures utilizes a hybrid approach to the simulation of evolving interfaces. A geometric input representation—phenotype (e.g. a triangle mesh, a set of line segments, or a point cloud) is transformed into an intermediate representation—genotype. Data gathered from these three representations is then used to deform the initial geometric representation. Lastly, the deformed initial representation is topologically changed to react to the deformation of the object. This is done iteratively, such that results given for input representations are continuously deformed and refined. As the process repeats, the deformations aggregate into the growth of a coherent form. By altering the geometric genotype and phenotype, a broad variety of different structures can be ‘grown’.


The setting for this exploration is the solar system where, with the exception of planet Earth, no life can exist. The series represents the classical elements understood by the ancients to sustain life (earth, water, air and fire), and offers their biological counterpart in the form of microorganisms engineered to produce life-sustaining elements. The wearables are designed to interact with a specific environment characteristic of their destination and generate sufficient quantities of biomass, water, air and light necessary for sustaining life: some photosynthesize converting daylight into energy, others bio-mineralize to strengthen and augment human bone, and some fluoresce to light the way in pitch darkness. Each wearable is designed for a specific extreme environment where it transforms elements that are found in the atmosphere to one of the classical elements supporting life: oxygen for breathing, photons for seeing, biomass for eating, biofuels for moving, and calcium for building. Design research at the core of this collection lies at the intersection of multi-material 3D printing and Synthetic Biology.









The medieval Arabs are known for their fascination with astronomy. They took a keen interest in the study of celestial bodies; motivated to better comprehend the divine creation, they also appreciated the knowledge of the constellations as guidance in their journeys. In honor of these early contributions to the science of astronomy the Wonderers in this collection are named in Arabic after their respective destination planets: Mushtari (a wearable for Jupiter), Zuhal (a wearable for Saturn), Otaared (a wearable for Mercury); and Qumar (a wearable for the Moon). The word "planet" comes from the Greek term planets meaning "wanderer".


The Wanderers were unveiled as part of the exhibition: ‘The Sixth Element: Exploring the Natural Beauty of 3D Printing' on display at EuroMold, 25-28 November, Frankfurt, Germany, Hall 11, Booth FN01. This work was done in collaboration with Christoph Bader and Dominik Kolb. The wearables were 3D printed with Stratasys multi-material 3D printing technology. Members of the Mediated Matter group led by Will Patrick and Sunanda Sharma are currently working on embedding living matter in the form of engineered bacteria within the 3D structures in order to augment the environment. Each piece intends to hold life sustaining elements contained within 3D printed vascular structures with internal cavities. Living matter within these structures will ultimately transform oxygen for breathing, photons for seeing, biomass for eating, biofuels for moving and calcium for building. Scientific collaborators include Dr. James Weaver, Prof. George Church, Prof. Pamela Silver, Prof. Tim Lu, Allen Chen, Stephanie Hays, Eléonore Tham and Dan Robertson.