微生物生物技术炼金术:将细菌纤维素转化为传感疾病--综述

Ali Jawad Akki , Pratheek Jain , Ravindra Kulkarni , Raghavendra Rao Badkillaya , Raghavendra V. Kulkarni , Farhan Zameer , V Raghu Anjanapura , Tejraj M. Aminabhavi
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引用次数: 0

摘要

生物传感器可提供快速准确的疾病诊断,具有彻底改变医疗保健的潜力。生物传感器是将目标分析物的分子识别转化为可测量信号的分析设备。旧的诊断技术,如免疫亲和柱测定法、荧光测定法和酶联免疫吸附测定法,既费力,又需要合格的人员,而且可能很耗时。相比之下,生物传感器能够以高灵敏度和特异性检测特定的生物标记物,因此具有更高的准确性、可持续性和快速性。本综述涵盖了各种基于细菌纤维素(BC)的生物传感器,从 SARS-CoV-2 检测到可穿戴健康监测以及与人机界面的交互。将 BC 集成到用于可穿戴健康监测的离子热电水凝胶中,显示了其在实时健康跟踪方面的潜力。在生物传感器中加入 BC 以用于低噪声电极和可穿戴传感器的研究也得到了详细阐述。用于检测金黄色葡萄球菌的噬菌体固定 BC 生物传感器的发明是对该领域的重大贡献,突出了 BC 在病原体识别中的生物安全性和效率,并展示了 BC 在多种传感平台中的多功能性。钯纳米粒子-细菌纤维素杂化纳米纤维在多巴胺检测中显示出卓越的电催化活性,而金-萃取物纳米复合生物传感器则在葡萄糖检测中显示出功效,具有潜在的治疗应用价值。利用 BC 纳米纸的 "纳米纸上实验室 "装置不仅能直观地检测人血清白蛋白,还能将自己打造成新一代光学生物传感平台,其性能优于传统基底。本综述有助于推动生物传感器技术的不断进步,强调了 BC 作为一种多功能材料在开发创新型生物传感器方面的潜力。这对于提高医疗诊断工具的准确性、灵敏度和效率至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Microbial biotechnology alchemy: Transforming bacterial cellulose into sensing disease- A review

Microbial biotechnology alchemy: Transforming bacterial cellulose into sensing disease- A review

Biosensors have the potential to revolutionize healthcare by providing rapid and accurate diagnosis of diseases. Biosensors are analytical devices that convert molecular recognition of a target analyte into a measurable signal. Older diagnostic techniques, such as immunoaffinity column assays, fluorometric, and enzyme-linked immunosorbent assays, are laborious, require qualified personnel, and can be time consuming. In contrast, biosensors offer improved accuracy, sustainability, and rapidness due to their ability to detect specific biomarkers with high sensitivity and specificity. The review covers various bacterial cellulose (BC)-based biosensors, from SARS-CoV-2 detection to wearable health monitoring and interaction with human-computer interfaces. BC's integration into ionic thermoelectric hydrogels for wearable health monitoring shows its potential for real-time health tracking. Incorporating BC in biosensors for low-noise electrodes, and wearable sensors has been elaborated. The invention of a phage-immobilized BC biosensor for S. aureus detection is a significant contribution to the field, highlighting the biosafety and efficiency of BC in pathogen identification and demonstrating BC's versatility across multiple sensing platforms. Palladium nanoparticle-bacterial cellulose hybrid nanofibers show excellent electrocatalytic activity for dopamine detection, whereas Au-BC nanocomposite biosensors show efficacy in glucose detection, with potential therapeutic applications. The “lab-on-nanopaper” device, utilizing BC nanopaper, not only visually detects human serum albumin but also establishes itself as a new-generation optical biosensing platform with superiority over conventional substrates. This review contributes to the ongoing advancements in biosensor technology, highlighting the potential of BC as a versatile material for developing innovative biosensors. This is crucial for improving the accuracy, sensitivity, and efficiency of diagnostic tools in healthcare.

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