Light-based 3D printing, digital light processing (DLP) in particular, offers further advantages including high resolutions and fast building speeds. The materials used in light-based 3D printing, also called inks or resins, are typically a mixture of petroleum-based monomers and crosslinkers. However, when aiming to move towards more sustainable DLP inks, the aforementioned criteria -using renewably sourced monomers, implementing end-of-life options and following green chemistry principles -need to be fulfilled. While the main focus has so far been on bio-based monomers, an interest in devising end-of-life options for printed materials has recently grown. Since most DLP-printed polymers are thermosets, reprocessing or recycling them often requires the breaking of covalent bonds. While chemical recycling is a promising end-of-life option for thermosetting polymers, it has not been fully exploited yet. There are only few reports of systems combining end-of-life strategies with renewably sourced, DLP-compatible monomers, as the chemistries available for the photopolymerization process -mainly radical polymerization -limit the polymer design. Lactate esters are small bio-based molecules that have mainly been used as green solvents, with some further applications as additives in food and cosmetics. They can be obtained by esterification of lactic acid, which is industrially sourced by fermenting carbohydrates, with the desired alcohol. Recently their scope has been expanded to applications in polymer chemistry. However, to the best of our knowledge, there have been no reports of their application as printable and recyclable materials.