Khobragade Samiksha S, Deshmukh Manish, Vyas Ujwal, Ingle Rahul G
Datta Meghe College of Pharmacy, Datta Meghe Institute of Higher Education and Research, Sawangi (M), Wardha 442001, India.
Int J Mol Sci. 2025 Apr 22;26(9):3937. doi: 10.3390/ijms26093937.
Cancer has rapidly emerged as a leading global cause of premature mortality, with significant economic implications projected to reach USD 25.2 trillion from 2020 to 2050. Among the various types of cancer, primary bone cancers, though uncommon, are projected to see nearly 4000 new cases diagnosed in the United States in 2024. The complexity of treating bone cancer arises from its rarity, diversity, and the challenges associated with surgical interventions, metastatic spread, and post-operative complications. Advancements in bone tissue engineering (BTE) have introduced innovative therapeutic approaches to promote bone regeneration and address tumor recurrence. This interdisciplinary field integrates biomaterials, scaffolds, and gene therapy, utilizing technologies such as 3D bioprinting to create custom scaffolds that facilitate cellular activities essential for tissue regeneration. Recent developments in biodegradable, bioactive materials aim to enhance the biocompatibility and effectiveness of scaffolds, while nanotechnology presents promising avenues for targeted drug delivery and improved therapeutic outcomes. This review outlines the current landscape of BTE, highlighting scaffold fabrication techniques, the advantages of incorporating stem cell and gene therapies, and future directions, including the integration of artificial intelligence in scaffold design for personalized medicine in orthopedic oncology. This work underscores the necessity for ongoing research and innovation, aiming to improve therapeutic strategies specifically designed to address the unique challenges posed by bone sarcomas and metastatic cancers.
癌症已迅速成为全球过早死亡的主要原因,预计2020年至2050年将产生高达25.2万亿美元的重大经济影响。在各类癌症中,原发性骨癌虽不常见,但预计2024年美国将有近4000例新诊断病例。骨癌治疗的复杂性源于其罕见性、多样性以及与手术干预、转移扩散和术后并发症相关的挑战。骨组织工程(BTE)的进展引入了创新的治疗方法,以促进骨再生并解决肿瘤复发问题。这个跨学科领域整合了生物材料、支架和基因治疗,利用3D生物打印等技术创建定制支架,以促进组织再生所需的细胞活动。可生物降解的生物活性材料的最新进展旨在提高支架的生物相容性和有效性,而纳米技术为靶向药物递送和改善治疗效果提供了有前景的途径。本综述概述了BTE的当前状况,强调了支架制造技术、纳入干细胞和基因治疗的优势以及未来方向,包括在支架设计中整合人工智能以实现骨科肿瘤学的个性化医疗。这项工作强调了持续研究和创新的必要性,旨在改进专门针对骨肉瘤和转移性癌症所带来的独特挑战而设计的治疗策略。