Erythrocyte-derived nanosystems for biosensing: A green approach for analysis

Shivam Rajput , Rishabha Malviya , Sathvik Belagodu Sridhar , Tarun Wadhwa , Javedh Shareef
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Abstract

Biosensors utilising nanotechnology are advancing swiftly and are extensively employed across various domains, including biomedicine, environmental monitoring, and analytical chemistry, where they have attained significant roles. Novel nanomaterials are being extensively designed and produced for prospective biosensing and theranostic uses. This review provides a comprehensive analysis of relevant literature from the past ten years, focusing on the use of nanoparticles in this context. The amalgamation of diagnostic biosensors with drug delivery systems for the administration of therapeutic agents presents significant potential in next-generation theranostic platforms. The controllable, precise, and safe delivery of diagnostic biosensing devices and therapeutic drugs to target tissues, organs, or cells is a crucial factor in the development of improved nanobiosensor-based theranostic systems. Recently, the utilisation of natural biological carriers in drug delivery systems has become one of the most extensively studied research issues. Erythrocytes, or red blood cells, may serve as carriers for a diverse array of pharmaceuticals, encompassing anticancer, antibacterial, antiviral, and anti-inflammatory agents, as well as numerous proteins, peptides, enzymes, and other macromolecules. Red blood cell (RBC)-based nanocarrier systems, known as erythrocyte nanovesicles, exhibit remarkable characteristics including prolonged circulation times, evasion of the immune system, gradual drug release, protection of drugs and biosensors from endogenous factors, targeted delivery, and applications in both therapeutic and diagnostic domains within biomedical sciences. Erythrocytes, the most prevalent circulating blood cells, have been thoroughly studied for biomimetic coatings on artificial nanocarriers owing to their enhanced biocompatibility, biodegradability, non-immunogenicity, and prolonged circulation in the bloodstream. Consequently, erythrocyte nanovehicles (ENV) has many applications, including drug transport, imaging, phototherapy, immunomodulation, sensing, and detection, which indicate substantial promise for therapeutic and diagnostic uses in various disorders. This paper covers recent advancements in the biomedical uses of ENV in cancer, infections, cardiovascular issues, and several other associated ailments particularly for biosensing. This paper also presents the RBC-mediated transport of nanobiosensors for bio-imaging at the single-cell level, enhanced medical diagnostics, and the analytical detection of biomolecules and cellular activity.
用于生物传感的红细胞衍生纳米系统:一种绿色的分析方法
利用纳米技术的生物传感器正在迅速发展,并被广泛应用于各个领域,包括生物医学、环境监测和分析化学,在这些领域它们已经取得了重要的作用。新型纳米材料正被广泛设计和生产,用于未来的生物传感和治疗用途。本文对近十年来的相关文献进行了综合分析,重点介绍了纳米颗粒在这方面的应用。诊断生物传感器与药物递送系统的合并用于治疗药物的管理,在下一代治疗平台中具有重要的潜力。将诊断性生物传感装置和治疗药物可控、精确和安全地输送到靶组织、器官或细胞是发展改进的基于纳米生物传感器的治疗系统的关键因素。近年来,天然生物载体在给药系统中的应用已成为研究最广泛的问题之一。红细胞或红细胞可以作为多种药物的载体,包括抗癌、抗菌、抗病毒和抗炎剂,以及许多蛋白质、肽、酶和其他大分子。基于红细胞(RBC)的纳米载体系统,被称为红细胞纳米囊泡,具有显著的特点,包括延长循环时间,逃避免疫系统,逐渐释放药物,保护药物和生物传感器免受内源性因素的影响,靶向递送,以及在生物医学科学的治疗和诊断领域的应用。红细胞是最常见的循环血液细胞,由于其增强的生物相容性、生物可降解性、非免疫原性和延长血液循环时间,已经对人造纳米载体的仿生涂层进行了深入研究。因此,红细胞纳米载体(ENV)有许多应用,包括药物运输、成像、光疗、免疫调节、传感和检测,这表明了在各种疾病的治疗和诊断方面的巨大前景。本文涵盖了ENV在癌症、感染、心血管疾病和其他一些相关疾病的生物医学应用方面的最新进展,特别是在生物传感方面。本文还介绍了红细胞介导的纳米生物传感器的运输,用于单细胞水平的生物成像,增强医学诊断,以及生物分子和细胞活性的分析检测。
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