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3D Printing Biocompatible Polymers for Biomedical Applications /

紀錄類型:	書目-電子資源 : Monograph/item
正題名/作者:	3D Printing Biocompatible Polymers for Biomedical Applications /Yuxiang Zhu.
作者:	Zhu, Yuxiang,
面頁冊數:	1 electronic resource (203 pages)
附註:	Source: Dissertations Abstracts International, Volume: 85-11, Section: B.
附註:	Advisors: Li, Cindy Xiangjia Committee members: Vernon, Brent; Bhate, Dhruv; Guo, Shenghan; Song, Kenan.
Contained By:	Dissertations Abstracts International85-11B.
標題:	Materials science.
電子資源:	http://pqdd.sinica.edu.tw/twdaoapp/servlet/advanced?query=31239472
ISBN:	9798382326375

3D Printing Biocompatible Polymers for Biomedical Applications /
Zhu, Yuxiang,

3D Printing Biocompatible Polymers for Biomedical Applications /Yuxiang Zhu. - 1 electronic resource (203 pages)

Source: Dissertations Abstracts International, Volume: 85-11, Section: B.

Since their invention in the 19th century, polymers have played an essential role, yet their full potential in biomedicine remains largely untapped. Biocompatible polymers, known for their flexibility, accessibility, and modifiability, hold promise in creating complex biomimetic structures for bioscaffolds and biosensors. 3D printing, an emerging manufacturing technique, enables on-demand production of intricate structures, offering significant potential for personalized medicine and advanced biomedical engineering.This thesis focuses on designing and developing polymer-based bioscaffolds and biosensors using 3D printing. Chapter 1 provides an all-round introduction to common 3D printing techniques and polymeric biomaterials, especially biodegradable polymers. In Chapter 2, a gill-mimicking thermoelectric generator (TEG) was created to harvest body temperature and monitor bio-signals without external power. The out-of-plane geometry is obtained with fused deposition modeling (FDM), which is crucial for effective contact with various curved surfaces. Further improvements in biocompatibility enable the material to be implanted in vivo. Chapter 3 discusses UV-facilitated DIW printing for pelvic organ prolapse (POP) tissue scaffolds, featuring crosslink strategies for native tissue-like mechanical behavior. The double network comprises thiol-ene UV-initiated chemical bonds and alkaline-induced crystal regions as physical crosslink nodes. The crosslink density affects the degradation rate of the scaffold, enabling a slow degradation behavior beneficial to the recovery of the injured tissue. Chapter 4 presents a novel artificial artery design with varying moduli and natural polymers for bypass surgeries. The inner and outer layers of the conduit were stretched successively under different strains, endowing the vessel with varying moduli. Natural polymers were utilized to achieve low cytotoxicity and promote adequate cell adhesion. Additionally, the gelation behavior and the ink composition suitable for extrusion with a DIW platform were thoroughly studied. Image analysis, finite element analysis, and machine learning were employed to substantiate the findings regarding mechanical properties, extrusion quality, and printing fidelity in Chapters 3 and 4. This combination of computer-assisted analysis with experimental results enhances the robustness of the studies. Lastly, Chapter 5 provides an outlook and perspectives on the applications of biocompatible polymeric materials manufactured by 3D printing in the field of health applications.

English

ISBN: 9798382326375Subjects--Topical Terms:

221779
Materials science.
Subjects--Index Terms:

Thermoelectric generator

3D Printing Biocompatible Polymers for Biomedical Applications /
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520 $a Since their invention in the 19th century, polymers have played an essential role, yet their full potential in biomedicine remains largely untapped. Biocompatible polymers, known for their flexibility, accessibility, and modifiability, hold promise in creating complex biomimetic structures for bioscaffolds and biosensors. 3D printing, an emerging manufacturing technique, enables on-demand production of intricate structures, offering significant potential for personalized medicine and advanced biomedical engineering.This thesis focuses on designing and developing polymer-based bioscaffolds and biosensors using 3D printing. Chapter 1 provides an all-round introduction to common 3D printing techniques and polymeric biomaterials, especially biodegradable polymers. In Chapter 2, a gill-mimicking thermoelectric generator (TEG) was created to harvest body temperature and monitor bio-signals without external power. The out-of-plane geometry is obtained with fused deposition modeling (FDM), which is crucial for effective contact with various curved surfaces. Further improvements in biocompatibility enable the material to be implanted in vivo. Chapter 3 discusses UV-facilitated DIW printing for pelvic organ prolapse (POP) tissue scaffolds, featuring crosslink strategies for native tissue-like mechanical behavior. The double network comprises thiol-ene UV-initiated chemical bonds and alkaline-induced crystal regions as physical crosslink nodes. The crosslink density affects the degradation rate of the scaffold, enabling a slow degradation behavior beneficial to the recovery of the injured tissue. Chapter 4 presents a novel artificial artery design with varying moduli and natural polymers for bypass surgeries. The inner and outer layers of the conduit were stretched successively under different strains, endowing the vessel with varying moduli. Natural polymers were utilized to achieve low cytotoxicity and promote adequate cell adhesion. Additionally, the gelation behavior and the ink composition suitable for extrusion with a DIW platform were thoroughly studied. Image analysis, finite element analysis, and machine learning were employed to substantiate the findings regarding mechanical properties, extrusion quality, and printing fidelity in Chapters 3 and 4. This combination of computer-assisted analysis with experimental results enhances the robustness of the studies. Lastly, Chapter 5 provides an outlook and perspectives on the applications of biocompatible polymeric materials manufactured by 3D printing in the field of health applications.
546 $a English
590 $a School code: 0010
650 4 $a Materials science. $3 221779
650 4 $a Biomedical engineering. $3 190330
650 4 $a Biochemistry. $3 188609
653 $a Thermoelectric generator
653 $a Pelvic organ prolapse
653 $a Biomedical applications
653 $a Polymer-based bioscaffolds
690 $a 0794
690 $a 0541
690 $a 0487
710 2 $a Arizona State University. $b Manufacturing Engineering. $e degree granting institution. $3 990069
720 1 $a Li, Cindy Xiangjia $e degree supervisor.
773 0 $t Dissertations Abstracts International $g 85-11B.
790 $a 0010
791 $a Ph.D.
792 $a 2024
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