Azadi Sareh, Yazdanpanah Mohammad Ali, Afshari Ali, Alahdad Niloofar, Chegeni Solmaz, Angaji Abdolhamid, Rezayat Seyed Mahdi, Tavakol Shima
Department of Medical Biotechnology, Iran University of Medical Sciences, Tehran, Iran.
Department of Cell and Molecular Biology, Faculty of Biological Science, Kharazmi University, Tehran, Iran.
J Tissue Eng. 2024 Dec 12;15:20417314241303818. doi: 10.1177/20417314241303818. eCollection 2024 Jan-Dec.
There have been remarkable advancements in regenerative medicine for bone regeneration, tackling the worldwide health concern of tissue loss. Tissue engineering uses the body's natural capabilities and applies biomaterials and bioactive molecules to replace damaged or lost tissues and restore their functionality. While synthetic ceramics have overcome some challenges associated with allografts and xenografts, they still need essential growth factors and biomolecules. Combining ceramics and bioactive molecules, such as peptides derived from biological motifs of vital proteins, is the most effective approach to achieve optimal bone regeneration. These bioactive peptides induce various cellular processes and modify scaffold properties by mimicking the function of natural osteogenic, angiogenic and antibacterial biomolecules. The present review aims to consolidate the latest and most pertinent information on the advancements in bioactive peptides, including angiogenic, osteogenic, antimicrobial, and self-assembling peptide nanofibers for bone tissue regeneration, elucidating their biological effects and potential clinical implications.
在用于骨再生的再生医学领域已经取得了显著进展,解决了全球范围内对组织缺失的健康担忧。组织工程利用人体的自然能力,并应用生物材料和生物活性分子来替代受损或缺失的组织并恢复其功能。虽然合成陶瓷已经克服了一些与同种异体移植物和异种移植物相关的挑战,但它们仍然需要必需的生长因子和生物分子。将陶瓷与生物活性分子相结合,例如源自重要蛋白质生物基序的肽,是实现最佳骨再生的最有效方法。这些生物活性肽通过模拟天然成骨、血管生成和抗菌生物分子的功能来诱导各种细胞过程并改变支架特性。本综述旨在整合有关生物活性肽进展的最新和最相关信息,包括用于骨组织再生的血管生成、成骨、抗菌和自组装肽纳米纤维,阐明它们的生物学效应和潜在的临床意义。