Taylor William, Erwin William Mark
Department of Surgery, Division of Neurosurgery, University of California at San Diego, 9350 Campus Point Dr., La Jolla, CA 92037, USA.
Department of Surgery, Divisions of Orthopaedic and Neurosurgery, University of Toronto, 661 University Ave., Suite 13-1387, Toronto, ON M5G 0B7, Canada.
Cells. 2024 Dec 19;13(24):2103. doi: 10.3390/cells13242103.
Pain and disability secondary to degenerative disc disease continue to burden the healthcare system, creating an urgent need for effective, disease-modifying therapies. Contemporary research has identified potential therapies that include protein-, cellular- and/or matrix-related approaches; however, none have yet achieved a meaningful clinical impact. The tissue-specific realities of the intervertebral disc create considerable therapeutic challenges due to the disc's location, compartmentalization, hypovascularization and delicate physiological environment. Furthermore, the imaging modalities currently used in practice are largely unable to accurately identify sources of pain ostensibly discogenic in origin. These obstacles are considerable; however, recent research has begun to shed light on possible breakthrough technologies. Such breakthroughs include revolutionary imaging to better identify tissue sources of pain. Furthermore, novel molecular therapies have been shown to be able to mediate the progression of degenerative disc disease in some large animal studies, and even provide some insight into suppressing the development of tissue sources of discogenic pain. These potential breakthrough technologies have yet to be translated for clinical use.
退行性椎间盘疾病继发的疼痛和功能障碍持续给医疗系统带来负担,迫切需要有效的疾病改善疗法。当代研究已确定了包括蛋白质、细胞和/或基质相关方法在内的潜在疗法;然而,尚无一种疗法产生有意义的临床影响。由于椎间盘的位置、分隔、血管化不足和脆弱的生理环境,椎间盘的组织特异性现实带来了相当大的治疗挑战。此外,目前在实践中使用的成像方式在很大程度上无法准确识别表面上源于椎间盘源性疼痛的来源。这些障碍相当大;然而,最近的研究已开始揭示可能的突破性技术。此类突破包括用于更好地识别疼痛组织来源的革命性成像技术。此外,在一些大型动物研究中,新型分子疗法已被证明能够介导退行性椎间盘疾病的进展,甚至为抑制椎间盘源性疼痛的组织来源发展提供了一些见解。这些潜在的突破性技术尚未转化为临床应用。