dvances in soft-matter nanotechnology, and the adaptation of biomimetic self-assembled nanoparticles for use in industrial, clinical and academic settings has called on researchers to re-evaluate generation methods. This is especially important where greater compositional and/or morphological complexity is required, in fields such as targeted drug delivery, catalysis, food science and vaccinology . The successful integration of these nano-carriers into modern medicine has recently been demonstrated with vaccine efforts against COVID-19. The internal structure, shape, and size of nano-carriers can have a profound effect on stability, encapsulation efficiency, fusogenicity, cellular uptake, pharmacokinetics, and stimuli-response However, most research has focused primarily on simple spherical liposomes and solid lipid nanoparticles, in part due to limitations associated with existing fabrication methods. To fully explore the functional potential granted by morphological variation, it is thus imperative that a scalable, efficient, and easily controlled platform be established for the synthesis of nanostructures of enhanced architectural complexity.