Transformative bioprinting: 4D printing and its role in the evolution of engineering and personalized medicine.

IF 4.5 0 MATERIALS SCIENCE, MULTIDISCIPLINARY
Vidhi Mathur, Prachi Agarwal, Meghana Kasturi, S Varadharajan, Elsa Sanatombi Devi, Kirthanashri S Vasanthan
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引用次数: 0

Abstract

Transformative bioprinting, particularly 4D printing, is revolutionizing the field of biofabrication, offering dynamic solutions that respond to external stimuli. This paper explores the underlying mechanisms, materials, and stimuli that enable 4D printing to fabricate responsive and adaptive constructs. Section 1 delves into the foundational aspects of 4D bioprinting, detailing the stimuli-responsive materials, such as hydrogels and shape-memory polymers, and the mechanisms that drive their transformation. Additionally, the role of external factors, including temperature, pH, and magnetic or light-based stimuli, is analyzed to provide a comprehensive understanding of this evolving technology. Section 2 focuses on the diverse applications of 4D bioprinting, particularly in biomedical sciences. Key use cases include tissue engineering, drug delivery systems, and the creation of adaptive implants. Beyond healthcare, the potential for smart structures in fields like robotics and aerospace is highlighted, showcasing the technology's ability to deliver tailored, dynamic solutions across various domains. Section 3 categorizes additive manufacturing techniques relevant to 4D printing, offering an in-depth classification and comparison. This includes extrusion-based, vat polymerization, and inkjet printing technologies, emphasizing their compatibility with stimuli-responsive materials. Section 4 shifts focus to commercial advancements, presenting a classification of 4D bioprinters available in the market. The economic barriers, challenges in scalability, and ease of application for these printers are critically examined. Proposed solutions, such as innovative material sourcing, streamlined design strategies, and integration with AI for optimized performance, are presented to address these issues. This work provides a roadmap for integrating 4D bioprinting into scalable and cost-effective production, pushing the boundaries of biofabrication. It serves as a comprehensive guide for researchers and industries aiming to harness the transformative potential of 4D printing for adaptive and functional applications across various domains.

变革生物打印:4D打印及其在工程和个性化医疗发展中的作用。
变革性生物打印,特别是4D打印,正在彻底改变生物制造领域,提供响应外部刺激的动态解决方案。本文探讨了使4D打印能够制造响应性和适应性结构的潜在机制,材料和刺激。第1节深入研究了4D生物打印的基础方面,详细介绍了刺激响应材料,如水凝胶和形状记忆聚合物,以及推动其转化的机制。此外,还分析了外部因素的作用,包括温度、pH值、磁或光刺激,以全面了解这项不断发展的技术。第2节侧重于4D生物打印的各种应用,特别是在生物医学科学。关键用例包括组织工程、药物输送系统和自适应植入物的创建。除了医疗保健,智能结构在机器人和航空航天等领域的潜力也得到了强调,展示了该技术在各个领域提供量身定制的动态解决方案的能力。第3节分类了与4D打印相关的增材制造技术,提供了深入的分类和比较。这包括基于挤压,还原聚合和喷墨打印技术,强调它们与刺激响应材料的兼容性。第4节将重点转移到商业进步,介绍了市场上可用的4D生物打印机的分类。对这些打印机的经济障碍、可扩展性方面的挑战和应用的便利性进行了严格的审查。提出了解决方案,如创新的材料采购,简化的设计策略,以及与人工智能的集成以优化性能,以解决这些问题。这项工作为将4D生物打印集成到可扩展和具有成本效益的生产中提供了路线图,推动了生物制造的界限。它可以作为研究人员和行业的综合指南,旨在利用4D打印在各个领域的适应性和功能性应用的变革潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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