Gaviria Laura, Pearson Joseph J, Montelongo Sergio A, Guda Teja, Ong Joo L
Department of Biomedical Engineering, College of Engineering, The University of Texas at San Antonio, San Antonio, TX, USA.
J Korean Assoc Oral Maxillofac Surg. 2017 Oct;43(5):288-298. doi: 10.5125/jkaoms.2017.43.5.288. Epub 2017 Oct 26.
Craniomaxillofacial injuries produce complex wound environments involving various tissue types and treatment strategies. In a clinical setting, care is taken to properly irrigate and stabilize the injury, while grafts are molded in an attempt to maintain physiological functionality and cosmesis. This often requires multiple surgeries and grafts leading to added discomfort, pain and financial burden. Many of these injuries can lead to disfigurement and resultant loss of system function including mastication, respiration, and articulation, and these can lead to acute and long-term psychological impact on the patient. A main causality of these issues is the lack of an ability to spatially control pre-injury morphology while maintaining shape and function. With the advent of additive manufacturing (three-dimensional printing) and its use in conjunction with biomaterial regenerative strategies and stem cell research, there is an increased potential capacity to alleviate such limitations. This review focuses on the current capabilities of additive manufacturing platforms, completed research and potential for future uses in the treatment of craniomaxillofacial injuries, with an in-depth discussion of regeneration of the periodontal complex and teeth.
颅颌面损伤会产生涉及多种组织类型和治疗策略的复杂伤口环境。在临床环境中,需谨慎对损伤部位进行适当冲洗和固定,同时塑造移植组织,以维持生理功能和美观。这通常需要多次手术和移植,会增加患者的不适、疼痛和经济负担。许多此类损伤会导致毁容,并导致包括咀嚼、呼吸和发音在内的系统功能丧失,进而对患者造成急性和长期的心理影响。这些问题的一个主要原因是缺乏在保持形状和功能的同时在空间上控制损伤前形态的能力。随着增材制造(三维打印)的出现及其与生物材料再生策略和干细胞研究的结合使用,缓解此类限制的潜在能力有所提高。本综述重点关注增材制造平台的当前能力、已完成的研究以及在颅颌面损伤治疗中的未来应用潜力,并深入讨论牙周复合体和牙齿的再生。