Le Reve Regenerative Wellness, Campbell, CA; Boomerang Healthcare, Walnut Creek, CA.
Pain Physician. 2023 Nov;26(7):E775-E785.
Orthobiologics have shown promise in repair, restoration and regeneration of damaged and degenerated spine, joint and musculoskeletal tissues. The role of MSCs is to reduce inflammation, gliosis, and oxidative stress, while encouraging angiogenesis, neuronal proliferation, cell survival, and differentiation. While autologous MSCs have homologous advantages, they present with challenges related to donor predisposition, harvesting skills, and processing times. In this regard, allogenic MSCs show promise, but face ethical challenges, contamination, and survival risks. Ongoing efforts to overcome challenges and enhance performance include bioprinting, tissue engineering, artificial intelligence, nanotechnology, and microenvironmental alteration, among many others. Genetically programmed MSCs are being explored and tissue regeneration is now considered a real possibility. In this article, we discuss some of the leading-edge technologies in the process of being developed and perfected for widespread clinical application.
The aim of this narrative review is both to update on orthobiologics, especially MSCs and provide a vision for their future potential in interventional spine medicine.
Narrative review.
The PubMed database of the National Institute of Medicine and Google Scholar were searched for keywords "mesenchymal stem cell," "mesenchymal stem cell + regenerative medicine," and "mesenchymal stem cell + spine." The bibliographies of these articles and authoritative Web sites were also consulted.
There are hundreds of ongoing clinical trials exploring the role of MSCs in regenerative medicine for treating a wide range of diverse conditions, including spine conditions, neurodegenerative disorders, and cardiovascular disease.
This visionary narrative review has several limitations. It is a narrative, rather than a systematic review. Many of the ideas and treatments presented here are not perfected and are still in development.
The role of MSCs in regenerative medicine is still emerging, but their promise for spinal cord injury and other disorders of the spine is clear. Using allogenic or autologous MSCs can help stimulate healing and neural regeneration remains a tantalizing possibility.
骨生物学在修复、恢复和再生受损和退化的脊柱、关节和肌肉骨骼组织方面显示出了潜力。间充质干细胞的作用是减少炎症、神经胶质增生和氧化应激,同时促进血管生成、神经元增殖、细胞存活和分化。虽然自体间充质干细胞具有同源优势,但它们存在与供体倾向、采集技术和处理时间相关的挑战。在这方面,同种异体间充质干细胞有希望,但面临着伦理挑战、污染和生存风险。克服挑战和提高性能的持续努力包括生物打印、组织工程、人工智能、纳米技术和微环境改变等。遗传编程间充质干细胞正在被探索,组织再生现在被认为是一种真正的可能性。在本文中,我们讨论了一些正在开发和完善的前沿技术,以实现广泛的临床应用。
本叙述性综述的目的既是更新骨生物学,特别是间充质干细胞的知识,又是为介入脊柱医学中它们的未来潜力提供一个愿景。
叙述性综述。
我们在国家医学研究院的 PubMed 数据库和谷歌学术上搜索了“间充质干细胞”、“间充质干细胞+再生医学”和“间充质干细胞+脊柱”等关键词。还查阅了这些文章的参考文献和权威网站。
目前有数百项正在进行的临床试验探索间充质干细胞在再生医学中治疗各种疾病(包括脊柱疾病、神经退行性疾病和心血管疾病)的作用。
这种有远见的叙述性综述有几个局限性。它是一个叙述性的,而不是一个系统的综述。这里提出的许多想法和治疗方法还不完善,仍在开发中。
间充质干细胞在再生医学中的作用仍在出现,但它们在脊髓损伤和脊柱其他疾病中的应用前景是明确的。使用同种异体或自体间充质干细胞有助于刺激愈合和神经再生仍然是一个诱人的可能性。