Material Challenges and Opportunities in 3D Printing for Hip Implant Applications

O. Okolie, I. Stachurek, B. Kandasubramanian, J. Njuguna
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引用次数: 1

Abstract

There is a current need for tissue and organ repairs, replacement, and regeneration for patients who suffer from diseased or damaged tissues or organs. This situation is continuously on the rise and the supply of this form of therapy does not meet the patients demand mostly due to lack of donors and biocompatibility issues which causes immune system rejection of the implants. To succeed through these limitations, researchers are currently investigating the use of scaffolds as another approach for implants. The conventional scaffold fabrication technique is limited due to the precision of pore design. The 3D printing technology on the other side can produce an extracellular matrix with a higher degree of complexity and matching details such as pore size and geometry suitably based on certain factors including tissue engineering, hip biomechanism, material suitability, ethical standards, future, and challenges. This paper in particular focuses on materials challenges and opportunities addressing various issues at various levels to the materials-process-property relationship. It is comprehensive as it starts with hip biomechanism in gait and stress distribution to give the reader a clear perspective of the magnitude of challenges for hip implants and details to consider when designing the materials. This is followed by 3D printing for orthopaedic applications and 3D hip tissue regeneration. The hip replacement materials including polymers, composites, and metals are explored and correlated to conventional hip replacement materials. The work is concluded with some concluding remarks on opportunities, challenges, and future trends. The goal is to have scaffolds that have the capability of having a biomimicking design similar to the extracellular matrix with the advantage being the provision of structural supports for cell attachment, growth, and differentiation with the main goal of producing an operational organ or tissue. The knowledge derived from this review offers huge potential for providing a pathway for sustainable healing.
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3D打印髋骨植入材料的挑战与机遇
目前需要对患有病变或受损组织或器官的患者进行组织和器官修复、替换和再生。这种情况持续上升,这种形式的治疗供应不能满足患者的需求,主要是由于缺乏供体和生物相容性问题,导致植入物的免疫系统排斥。为了成功克服这些限制,研究人员目前正在研究将支架作为植入物的另一种方法。传统的支架制造技术由于孔隙设计的精度而受到限制。另一方面,3D打印技术可以根据组织工程、髋关节生物力学、材料适用性、道德标准、未来和挑战等特定因素,产生具有更高复杂性和匹配细节(如孔径和几何形状)的细胞外基质。本文特别关注材料的挑战和机遇,在不同层面上解决材料与工艺性能关系的各种问题。它是全面的,因为它从步态和应力分布的髋关节生物力学开始,让读者清楚地了解髋关节植入物的挑战程度和设计材料时需要考虑的细节。随后是整形外科应用的3D打印和3D髋关节组织再生。对包括聚合物、复合材料和金属在内的髋关节置换材料进行了探索,并将其与传统的髋关节替代材料相关联。工作结束时,对机遇、挑战和未来趋势作了一些总结性发言。目标是具有具有类似于细胞外基质的仿生设计能力的支架,其优点是为细胞附着、生长和分化提供结构支持,主要目标是产生可操作的器官或组织。从这篇综述中获得的知识为提供可持续治疗的途径提供了巨大的潜力。
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