Buckley Conor T, Hoyland Judith A, Fujii Kengo, Pandit Abhay, Iatridis James C, Grad Sibylle
Trinity Centre for Bioengineering, Trinity Biomedical Sciences Institute Trinity College Dublin, The University of Dublin Dublin Ireland.
School of Engineering, Trinity College Dublin The University of Dublin Dublin Ireland.
JOR Spine. 2018 Sep;1(3):e1029. doi: 10.1002/jsp2.1029. Epub 2018 Jul 30.
Low back pain represents the highest burden of musculoskeletal diseases worldwide and intervertebral disc degeneration is frequently associated with this painful condition. Even though it remains challenging to clearly recognize generators of discogenic pain, tissue regeneration has been accepted as an effective treatment option with significant potential. Tissue engineering and regenerative medicine offer a plethora of exploratory pathways for functional repair or prevention of tissue breakdown. However, the intervertebral disc has extraordinary biological and mechanical demands that must be met to assure sustained success. This concise perspective review highlights the role of the disc microenvironment, mechanical and clinical design considerations, function vs mimicry in biomaterial-based and cell engineering strategies, and potential constraints for clinical translation of regenerative therapies for the intervertebral disc.
腰痛是全球肌肉骨骼疾病中负担最重的疾病,椎间盘退变常与这种疼痛状况相关。尽管明确识别椎间盘源性疼痛的根源仍具有挑战性,但组织再生已被公认为一种具有巨大潜力的有效治疗选择。组织工程和再生医学为功能性修复或预防组织损伤提供了众多探索途径。然而,椎间盘具有特殊的生物学和力学要求,必须满足这些要求才能确保持续成功。这篇简要的观点综述强调了椎间盘微环境的作用、力学和临床设计考量、基于生物材料和细胞工程策略中的功能与模拟,以及椎间盘再生疗法临床转化的潜在限制。