基于海藻酸盐的纳米材料在增强蜂产品治疗效果方面的应用。

Applications of Alginate-Based Nanomaterials in Enhancing the Therapeutic Effects of Bee Products.

作者信息

Al-Hatamleh Mohammad A I, Alshaer Walhan, Hatmal Ma'mon M, Lambuk Lidawani, Ahmed Naveed, Mustafa Mohd Zulkifli, Low Siew Chun, Jaafar Juhana, Ferji Khalid, Six Jean-Luc, Uskoković Vuk, Mohamud Rohimah

机构信息

Department of Immunology, School of Medical Sciences, Universiti Sains Malaysia, Kota Bharu, Malaysia.

Cell Therapy Center (CTC), The University of Jordan, Amman, Jordan.

出版信息

Front Mol Biosci. 2022 Apr 11;9:865833. doi: 10.3389/fmolb.2022.865833. eCollection 2022.

Abstract

Since the ancient times, bee products (i.e., honey, propolis, pollen, bee venom, bee bread, and royal jelly) have been considered as natural remedies with therapeutic effects against a number of diseases. The therapeutic pleiotropy of bee products is due to their diverse composition and chemical properties, which is independent on the bee species. This has encouraged researchers to extensively study the therapeutic potentials of these products, especially honey. On the other hand, amid the unprecedented growth in nanotechnology research and applications, nanomaterials with various characteristics have been utilized to improve the therapeutic efficiency of these products. Towards keeping the bee products as natural and non-toxic therapeutics, the green synthesis of nanocarriers loaded with these products or their extracts has received a special attention. Alginate is a naturally produced biopolymer derived from brown algae, the desirable properties of which include biodegradability, biocompatibility, non-toxicity and non-immunogenicity. This review presents an overview of alginates, including their properties, nanoformulations, and pharmaceutical applications, placing a particular emphasis on their applications for the enhancement of the therapeutic effects of bee products. Despite the paucity of studies on fabrication of alginate-based nanomaterials loaded with bee products or their extracts, recent advances in the area of utilizing alginate-based nanomaterials and other types of materials to enhance the therapeutic potentials of bee products are summarized in this work. As the most widespread and well-studied bee products, honey and propolis have garnered a special interest; combining them with alginate-based nanomaterials has led to promising findings, especially for wound healing and skin tissue engineering. Furthermore, future directions are proposed and discussed to encourage researchers to develop alginate-based stingless bee product nanomedicines, and to help in selecting suitable methods for devising nanoformulations based on multi-criteria decision making models. Also, the commercialization prospects of nanocomposites based on alginates and bee products are discussed. In conclusion, preserving original characteristics of the bee products is a critical challenge in developing nano-carrier systems. Alginate-based nanomaterials are well suited for this task because they can be fabricated without the use of harsh conditions, such as shear force and freeze-drying, which are often used for other nano-carriers. Further, conjunction of alginates with natural polymers such as honey does not only combine the medicinal properties of alginates and honey, but it could also enhance the mechanical properties and cell adhesion capacity of alginates.

摘要

自古以来,蜂产品(即蜂蜜、蜂胶、花粉、蜂毒、蜂粮和蜂王浆)就被视为对多种疾病具有治疗作用的天然药物。蜂产品的治疗多效性归因于其多样的成分和化学性质,这与蜜蜂种类无关。这促使研究人员广泛研究这些产品的治疗潜力,尤其是蜂蜜。另一方面,在纳米技术研究和应用前所未有的发展中,具有各种特性的纳米材料已被用于提高这些产品的治疗效率。为了使蜂产品保持天然且无毒的治疗特性,负载这些产品或其提取物的纳米载体的绿色合成受到了特别关注。藻酸盐是一种天然产生的生物聚合物,源自褐藻,其理想特性包括生物可降解性、生物相容性、无毒和无免疫原性。本综述概述了藻酸盐,包括其性质、纳米制剂和药物应用,特别强调了它们在增强蜂产品治疗效果方面的应用。尽管关于负载蜂产品或其提取物的藻酸盐基纳米材料制备的研究较少,但本文总结了利用藻酸盐基纳米材料和其他类型材料提高蜂产品治疗潜力领域的最新进展。作为最广泛且研究最多的蜂产品,蜂蜜和蜂胶引起了特别关注;将它们与藻酸盐基纳米材料结合已产生了有前景的结果,尤其是在伤口愈合和皮肤组织工程方面。此外,还提出并讨论了未来的方向,以鼓励研究人员开发基于藻酸盐的无刺蜂产品纳米药物,并帮助选择基于多标准决策模型设计纳米制剂的合适方法。此外,还讨论了基于藻酸盐和蜂产品的纳米复合材料的商业化前景。总之,在开发纳米载体系统中,保持蜂产品的原始特性是一项关键挑战。基于藻酸盐的纳米材料非常适合这项任务,因为它们可以在不使用其他纳米载体常用的苛刻条件(如剪切力和冷冻干燥)的情况下制备。此外,藻酸盐与天然聚合物(如蜂蜜)结合不仅可以结合藻酸盐和蜂蜜的药用特性,还可以增强藻酸盐的机械性能和细胞粘附能力。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/7723/9035631/76b5946d2bbe/fmolb-09-865833-g001.jpg

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