The results are consistent with literature reports on hydrogel systems used in DLP printing, such as PEGDA-based materials, which also achieve high-resolution features but often lack the biomimetic properties provided by gelatin-based matrices. Compared to other methacrylated gelatin hydrogels reported in prior studies, the MFG hydrogel demonstrated improved control over internal channel formation and structural fidelity. Embedded 3D printing, which employs a support bath to stabilize printed structures during fabrication, further highlights the hydrogel system's versatility. As shown in Figure , I, the hydrogel-supported slurry bath enabled the successful extrusion and stabilization of a hollow spiral construct (~1.2 cm in diameter). The ability to print elevated, unsupported geometries without compromising structural integrity underscores the hydrogel's excellent rheological and viscoelastic properties. This capability compares favorably with other reported support baths, such as Pluronic F-127 composite, which can destabilize under extended print durations or complex geometries. The 7:3 MFG hydrogel support bath outperformed these systems by maintaining structural fidelity during printing and post-processing.