Necolau Madalina I, Ionita Mariana, Pandele Andreea M
Advanced Polymer Materials Group, National University of Science and Technology Politehnica Bucharest, Gh. Polizu Street, 011062 Bucharest, Romania.
Department of Analytical Chemistry and Environmental Engineering, National University of Science and Technology Politehnica Bucharest, Gh. Polizu Street, 011062 Bucharest, Romania.
Polymers (Basel). 2025 Apr 28;17(9):1212. doi: 10.3390/polym17091212.
Over the past three decades, the biodegradable polymer known as poly(propylene fumarate) (PPF) has been the subject of numerous research due to its unique properties. Its biocompatibility and controllable mechanical properties have encouraged numerous scientists to manufacture and produce a wide range of PPF-based materials for biomedical purposes. Additionally, the ability to tailor the degradation rate of the scaffold material to match the rate of new bone tissue formation is particularly relevant in bone tissue engineering, where synchronized degradation and tissue regeneration are critical for effective healing. This review thoroughly summarizes the advancements in different approaches for PPF and PPF-based composite scaffold preparation for bone tissue engineering. Additionally, the challenges faced by each approach, such as biocompatibility, degradation, mechanical features, and crosslinking, were emphasized, and the noteworthy benefits of the most pertinent synthesis strategies were highlighted. Furthermore, the synergistic outcome between tissue engineering and artificial intelligence (AI) was addressed, along with the advantages brought by the implication of machine learning (ML) as well as the revolutionary impact on regenerative medicines. Future advances in bone tissue engineering could be facilitated by the enormous potential for individualized and successful regenerative treatments that arise from the combination of tissue engineering and artificial intelligence. By assessing a patient's reaction to a certain drug and choosing the best course of action depending on the patient's genetic and clinical characteristics, AI can also assist in the treatment of illnesses. AI is also used in drug research and discovery, target identification, clinical trial design, and predicting the safety and effectiveness of novel medications. Still, there are ethical issues including data protection and the requirement for reliable data management systems. AI adoption in the healthcare sector is expensive, involving staff and facility investments as well as training healthcare professionals on its application.
在过去三十年里,一种名为聚富马酸丙二醇酯(PPF)的可生物降解聚合物因其独特性能而成为众多研究的主题。其生物相容性和可控的机械性能促使众多科学家制造和生产了多种用于生物医学目的的基于PPF的材料。此外,在骨组织工程中,使支架材料的降解速率与新骨组织形成速率相匹配的能力尤为重要,在该领域中,同步降解和组织再生对于有效愈合至关重要。本综述全面总结了用于骨组织工程的PPF及基于PPF的复合支架制备的不同方法的进展。此外,还强调了每种方法所面临的挑战,如生物相容性、降解、机械特性和交联等,并突出了最相关合成策略的显著优点。此外,还探讨了组织工程与人工智能(AI)之间的协同成果,以及机器学习(ML)的应用所带来的优势和对再生医学的革命性影响。组织工程与人工智能的结合为个性化且成功的再生治疗带来了巨大潜力,这有望推动骨组织工程的未来发展。通过评估患者对某种药物的反应,并根据患者的基因和临床特征选择最佳治疗方案,AI还可协助疾病治疗。AI还用于药物研发、靶点识别、临床试验设计以及预测新型药物的安全性和有效性。然而,仍存在包括数据保护和可靠数据管理系统需求等伦理问题。医疗保健领域采用AI成本高昂,涉及人员和设施投资以及对医疗保健专业人员进行应用培训。