Xiujie Zhu's research while affiliated with Jilin University and other places

... Many advanced 3D printing techniques, with fast printing speed and high precision have been developed in the past several decades, including fused deposition modeling (FDM) [14][15][16], continuous liquid interface production (CLIP) [17,18], high-area rapid printing (HARP) [19], rapid continuous stereolithography based on volumetric polymerization inhibition patterning [20], dualcolor xolography volumetric 3D printing [21,22], volume 3D printing based on tomographic reconstruction [23][24][25][26], etc. The development of 3D printing technology has provided numerous advantages for manufacturing prototypes of tubular structures such as tubular grafts and biomimetic blood vessels [1,[27][28][29][30]. For example, van Lith et al used CLIP to achieve high-precision tubular graft of 2 cm long printing in less than 20 min [31]. ...

... Therefore, the introduction of bone graft substitutes has been used to enhance bone healing and strengthen fragile bone [15]. Recently, an artificial biomimetic mineralized collagen (MC) bone repair material has been developed, which mimics the nanoscale fundamental unit of the natural bone [16,17]. Its microstructure accounts for its active osteo-induction and good osteogenic activity. ...

... Such heterogeneity has been applied in osteochondral tissue engineering to mimic gradient microstructure to induce osteochondral regeneration [11]. The external ear has been distinguished by its intricate morphology and varied biomechanical properties across the auricular cartilage [12][13][14][15]. The composition and arrangement of the ECM have been found to vary in different regions of auricular cartilage and evolve with age [16][17][18][19]. ...