Qausain Sana, Basheeruddin Mohd
Biochemistry, Jawaharlal Nehru Medical College, Wardha, IND.
Cureus. 2024 Sep 22;16(9):e69952. doi: 10.7759/cureus.69952. eCollection 2024 Sep.
This paper emphasizes the possible application of methyl orange reduction as a therapeutic technique, highlighting the potential of azo dye reduction in biomedical fields. The generally used azo dyes are toxic and carcinogenic; hence, they implicitly threaten the environment and health. The degradation of methyl orange, a famous example of azo dyes, is used to describe the degradation process for other azo dyes. This work discusses the ability of different methyl orange degradation methods, focusing on biocatalysts and nanomaterials, among the methods that identified enzymatic degradation with azoreductase enzymes as the method that quickly breaks down azo dyes under mild conditions as the most appropriate method, as well as its specificity as environmentally friendly. Moreover, metal nanoparticles such as silver and gold impellers increase the reducing efficiency because they offer a pivotal surface for the reduction reactions that undergo electron transfer. The complete breakdown of methyl orange is essential in biomedical usage. The strategies for treating azo dye reduction can be extended to next-generation drug delivery systems (DDS), biosensors, and therapeutic agents. Organisms involved in degradation can be functionalized to selectively degrade specific cells or tissues, thus presenting a new targeted therapy. Knowledge of degradation pathways and non-toxic products is essential in creating programs that build better and more efficient therapeutic agents. This work endeavors to illustrate the development of enzymatic and nanomaterials-based approaches to achieve sustainable azo dye decolorisation to open the gateway to developing other biomedical applications that tend to promote environmental and health-friendly solutions.
本文强调了甲基橙还原作为一种治疗技术的可能应用,突出了偶氮染料还原在生物医学领域的潜力。一般使用的偶氮染料有毒且具有致癌性;因此,它们对环境和健康构成了潜在威胁。甲基橙作为偶氮染料的一个著名例子,其降解过程被用来描述其他偶氮染料的降解过程。这项工作讨论了不同甲基橙降解方法的能力,重点关注生物催化剂和纳米材料,在这些方法中,以偶氮还原酶进行的酶促降解被确定为在温和条件下能快速分解偶氮染料的最合适方法,以及其作为环境友好方法的特异性。此外,银和金叶轮等金属纳米颗粒提高了还原效率,因为它们为经历电子转移的还原反应提供了关键表面。甲基橙的完全分解在生物医学应用中至关重要。治疗偶氮染料还原的策略可以扩展到下一代药物递送系统(DDS)、生物传感器和治疗剂。参与降解的生物体可以被功能化,以选择性地降解特定的细胞或组织,从而呈现一种新的靶向治疗方法。了解降解途径和无毒产物对于创建能制造出更好、更高效治疗剂的方案至关重要。这项工作致力于说明基于酶和纳米材料的方法的发展,以实现可持续的偶氮染料脱色,从而为开发其他倾向于促进环境和健康友好解决方案的生物医学应用打开大门。