Krishnakumar Gopal Shankar, Roffi Alice, Reale Davide, Kon Elizaveta, Filardo Giuseppe
Department of Biotechnology, Bannari Amman Institute of Technology, Sathyamangalam, Erode, T.N, India.
Nano-Biotechnology Laboratory, Rizzoli Orthopaedic Institute, Via di Barbiano 1/10, 40136, Bologna, Italy.
Int Orthop. 2017 Nov;41(11):2417-2419. doi: 10.1007/s00264-017-3595-y. Epub 2017 Sep 3.
We take advantage of the comments of Dr. Vukicevic et al. to clarify that the study focus did not include other diseases and locations than long bones; in this light, the articles that Dr. Vukicevic mentioned could not be selected. We would like to recognize the key contribution of Urist and the nice tribute of the International Orthopaedics heritage section on the BMPs discovery. While we could not refer to the latter, published after our search, we put emphasis on the steps of important discoveries that made BMPs available for clinical use, a road that started in 1965, when Urist showed that new bone formation could be induced by demineralized bone matrix, later identified as BMPs, and purified in the next three decades. In the past years, BMPs have been studied in several pre-clinical models. As this was not the focus of this systematic clinical review, only some pre-clinical papers were cited, aiming at underlining important aspects, such as the relationship between dosage and bone formation and the delivery material, which could influence BMPs release and effect, key factors requiring further studies to optimize BMPs augmentation, as mentioned in the discussion. While our article does not present the methodological strength of a meta-analysis, and while it was not possible to summarize the entire extensive literature on BMPs, we hope that our review could be useful to summarize the available evidence in terms of both BMPs augmentation potential and complications for the treatment of long bones affected by fractures, non-union, and osteonecrosis.
我们利用武基塞维奇博士等人的评论来阐明,该研究重点不包括长骨以外的其他疾病和部位;因此,武基塞维奇博士提到的文章无法被选用。我们认可乌里斯的关键贡献以及《国际骨科学》遗产板块对骨形态发生蛋白发现的美好致敬。虽然在我们检索之后才发表的后者我们无法引用,但我们着重强调了使骨形态发生蛋白可供临床使用的重要发现步骤,这条道路始于1965年,当时乌里斯表明脱矿骨基质可诱导新骨形成,后来被鉴定为骨形态发生蛋白,并在接下来的三十年中得到纯化。在过去几年里,骨形态发生蛋白已在多种临床前模型中得到研究。由于这并非本系统临床综述的重点,所以仅引用了一些临床前论文,目的是强调重要方面,例如剂量与骨形成之间的关系以及递送材料,这些可能会影响骨形态发生蛋白的释放和效果,正如讨论中所提到的,这些关键因素需要进一步研究以优化骨形态发生蛋白的增强作用。虽然我们的文章没有呈现荟萃分析的方法学优势,也不可能总结关于骨形态发生蛋白的全部广泛文献,但我们希望我们的综述对于总结骨形态发生蛋白在治疗受骨折、骨不连和骨坏死影响的长骨方面的增强潜力和并发症方面的现有证据可能会有所帮助。