Mojarad-Jabali Solmaz, Fatahi Yousef, Dinarvand Rassoul
Pharmaceutical Sciences Research Center, Mazandaran University of Medical Sciences, PO Box- 48175/861, Sari, Iran.
Department of Pharmaceutical Nanotechnology, Faculty of Pharmacy, Tehran University of Medical Sciences, Tehran, Iran; Nanotechnology Research Centre, Faculty of Pharmacy, Tehran University of Medical Sciences, Tehran, Iran.
Eur J Pharm Sci. 2025 Sep 1;212:107166. doi: 10.1016/j.ejps.2025.107166. Epub 2025 Jun 11.
Liposomes continue to play a key role in drug delivery and diagnostics, with applications in cancer therapy and vaccine formulations. Their unique characteristics enable the development of more effective delivery systems. However, the behavior of liposomes in vivo differs significantly from their in vitro performance, which can impact their clinical application. Upon systemic administration, liposomes must circulate in the body for extended periods to reach target tissues. A challenge arises when liposomes encounter biological fluids in vivo, where proteins and other biomolecules form a "protein corona" around the liposomes, which can alter their function. Despite the development of stealth liposomes, completely preventing protein corona formation remains a challenge. The presence of the protein corona can interfere with interactions between targeting ligands and tissues, potentially reducing the efficacy of targeted delivery systems. Recent studies, however, suggest that the protein corona may also be utilized to enhance liposome functionality and targeting. This review explores the formation of the protein corona on liposomes, the factors influencing the structure and composition of liposome-protein corona complexes, and strategies to control this process. It also examines in vivo studies on protein corona formation and its impact on liposome behavior, targeting capacity, and drug release profiles. Finally, we discuss the concept of personalized liposome-protein corona complexes for the detection of disease biomarkers in vivo.
脂质体在药物递送和诊断中继续发挥关键作用,应用于癌症治疗和疫苗制剂。其独特的特性有助于开发更有效的递送系统。然而,脂质体在体内的行为与其体外性能有显著差异,这可能会影响其临床应用。经全身给药后,脂质体必须在体内循环较长时间才能到达靶组织。当脂质体在体内遇到生物流体时,就会出现一个挑战,蛋白质和其他生物分子会在脂质体周围形成“蛋白冠”,这可能会改变其功能。尽管开发了隐形脂质体,但完全防止蛋白冠的形成仍然是一个挑战。蛋白冠的存在会干扰靶向配体与组织之间的相互作用,可能会降低靶向递送系统的功效。然而,最近的研究表明,蛋白冠也可用于增强脂质体的功能和靶向性。本综述探讨了脂质体上蛋白冠的形成、影响脂质体-蛋白冠复合物结构和组成的因素以及控制这一过程的策略。还研究了关于蛋白冠形成及其对脂质体行为、靶向能力和药物释放曲线影响的体内研究。最后,我们讨论了用于体内疾病生物标志物检测的个性化脂质体-蛋白冠复合物的概念。