In this work, we studied future expansions of a synthetic cell with a dual perspective. For the Nanobiology part, we studied how the membrane surface area of a synthetic cell can grow, which is required for a synthetic cell to divide. Here, we combined growth strategies based on DNA and tension-mediated vesicle fusion. We found that 1 μM DNA and an osmotic shock optimise fusion efficiency, and we showcased the broad applicability of our fusion protocol. Furthermore, we observed indications of membrane growth, with a potential increase in membrane surface area sufficient for sustained synthetic cell division. For the Science Communication part, we studied the vision of the Synthetic Cell Initiative to build a European innovation ecosystem. The purpose of this innovation ecosystem is to develop synthetic cell applications through co-production. We propose that this innovation ecosystem should be formed through local synthetic cell hubs. By the promotion of bottom-up initiatives and the execution of top-down activities, responsible research and innovation can be internalised in the envisioned innovation ecosystem.