Hand-held bioprinters assistingin situbioprinting.

Ezgi Demir, Seda Nur Metli, Burcu Ekin Tutum, Seyda Gokyer, Cagdas Oto, Pinar Yilgor
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Abstract

Bioprinting, an advanced additive manufacturing technology, enables the fabrication of complex, viable three-dimensional (3D) tissues using bioinks composed of biomaterials and cells. This technology has transformative applications in regenerative medicine, drug screening, disease modeling, and biohybrid robotics. In particular,in situbioprinting has emerged as a promising approach for directly repairing damaged tissues or organs at the defect site. Unlike traditional 3D bioprinting, which is confined to flat surfaces and require complex equipment,in situtechniques accommodate irregular geometries, dynamic environments and simple apparatus, offering greater versatility for clinical applications.In situbioprinting via hand-held devices prioritize flexibility, portability, and real-time adaptability while allowing clinicians to directly deposit bioinks in anatomically complex areas, making them cost-effective, accessible, and suitable for diverse environments, including field surgeries. This review explores the principles, advancements, and comparative advantages of robotic and hand-heldin situbioprinting, emphasizing their clinical relevance. While robotic systems excel in precision and scalability, hand-held bioprinters offer unparalleled flexibility, affordability, and ease of use, making them a valuable tool for personalized and minimally invasive tissue engineering. Future research should focus on improving biosafety, aseptic properties, and bioink formulations to optimize these technologies for widespread clinical adoption.

手持生物打印机协助原位生物打印。
生物打印是一种先进的增材制造技术,可以使用由生物材料和细胞组成的生物墨水制造复杂的、可行的三维(3D)组织。这项技术在再生医学、药物筛选、疾病建模和生物混合机器人方面具有变革性的应用。特别是,原位生物打印已经成为直接修复缺陷部位受损组织或器官的一种有前途的方法。传统的3D生物打印仅限于平面,需要复杂的设备,而原位技术可以适应不规则的几何形状、动态环境和简单的设备,为临床应用提供了更大的多功能性。通过手持设备进行的原位生物打印优先考虑灵活性、便携性和实时适应性,同时允许临床医生直接将生物墨水沉积在解剖复杂的区域,使其具有成本效益、可访问性,并适用于各种环境,包括现场手术。这篇综述探讨了机器人和手持式原位生物打印的原理、进展和比较优势,强调了它们的临床意义。虽然机器人系统在精度和可扩展性方面表现出色,但手持生物打印机提供了无与伦比的灵活性、可负担性和易用性,使其成为个性化和微创组织工程的宝贵工具。未来的研究应侧重于提高生物安全性、无菌性和生物链接配方,以优化这些技术,以广泛应用于临床。
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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