Back to Authors

Hou, Jixin

https://orcid.org/0000-0002-7425-1510

Mayo Clinic

University of Georgia

Citations 2

3D printable biopolymers as pelvic floor scaffolds
Chambers, Lindsay B. , Zhu, Yuxiang , Yu, Churan , Crutchfield, Natalie , Hou, Jixin , Liu, Yang , Sobczak, M. Taylor , Theobald, Taylor G. , Sun, Xiao , Stoll, Carly R. , Pulido, Tiffany V., Yi, Johnny , Cornella, Jeffrey L. , McIlwee, Heather, Handa, Hitesh , Song, Kenan , Song, Kenan , Zhu, Yuxiang , Liang, Liang , Wang, Xianqiao , Liu, Yang , Sun, Xiao, Brisbois, Elizabeth J. , Lancaster, Jessica N.

Polymer Chemistry | December 3, 2024 | Volume: 16 | Issue: 3 | Pages: 345-355

10.1039/d4py01103a Get It

Our polyvinyl alcohol feedstock was prepared through carbic anhydride functionalization, UV curing during direct ink writing, and base treatment. The scaffold exhibited mechanical properties similar to pelvic floor tissue.
3D Coaxial Printing of Small‐Diameter Artificial Arteries
Zhu, Yuxiang , Liu, Siying , Mei, Xuan , Lin, Zeng, Pulido, Tiffany V., Hou, Jixin , Remani, Srikar Anudeep, Patil, Dhanush , Ramanathan, Arunachalam , Chambers, Lindsay B. , Yu, Churan , Guo, Shenghan , Zhao, Yiping , Song, Kenan , Song, Kenan , Zhu, Yuxiang , Ramanathan, Arunachalam , Mei, Xuan , Zhao, Yiping , Lin, Zeng, Sobczak, M. Taylor , Thummalapalli, Sri Vaishnavi , Liu, Yang , Wang, Xianqiao , Lancaster, Jessica N. , Zhang, Yu Shrike , Chen, Xiangfan

Small Structures | October 20, 2024 | Volume: 6 | Issue: 2 | Pages: No page available

10.1002/sstr.202400323 Get It

As a treatment for the widely spread cardiovascular diseases (CVD), bypass vascular grafts have room for improvement in terms of mechanical property match with native arteries. A 3D‐printed nozzle is presented, featuring unique internal structures, to extrude artificial vascular grafts with a flower‐mimicking geometry. The multilayer‐structured graft wall allows the inner and outer layers to interfere sequentially during lateral expansion, replicating the nonlinear elasticity of native vessels. Both experiment and simulation results verify the necessity and benefit of the flower‐mimicking structure in obtaining the self‐toughening behavior. The gelation study of natural polymers and the utilization of sacrificial phase enables the smooth extrusion of the multiphase conduit, where computer‐assisted image analysis is employed to quantify manufacturing fidelity. The cell viability tests demonstrate the cytocompatibility of the gelatin methacryloyl (GelMA)/sodium alginate grafts, suggesting potential for further clinical research with further developments. This study presents a feasible approach for fabricating bypass vascular grafts and inspires future treatments for CVD.