Saving both time and material, 3D printing has changed how the world creates. Of the different additive manufacturing technologies, those that use light provide some of the fastest build speeds and greatest precision. However, contemporary light-based methods rely on high energy ultraviolet light, a spectral region that pervasively interacts with matter through absorption and scattering events, which reduces reaction selectivity and can lead to unwanted degradation. This sub-group aims to expand the scope of printable materials by enabling low energy visible-to-near infrared 3D printing. Research consists of resin formulation and printing parameter optimization, print fidelity characterization, and printing/testing functional structures (e.g., composite-, porous-, and multi-materials).