Emerging bismuth vanadate-based biosensor platforms for diagnostic, imaging, therapeutic and antibacterial applications.

IF 5.7
Akshay Sidhi Poovethamkandiyil, Karthika K Palliyalil, Karthik Sujith, Anjali Paravannoor, Priyanka Ganguly, Baiju Kizhakkekilikoodayil Vijayan
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引用次数: 0

Abstract

BiVO4 nanostructures are n-type semiconductor photocatalysts with a narrow band gap that is sensitive to visible light. This photocatalytic property, along with unique electrochemical properties, remarkable biocompatibility, tunable surface chemistry, ease of synthesis and facile morphology tuning, has made them attractive candidates in the field of biosensor platforms. These biosensors offer highly sensitive, point-of-care, non-invasive diagnostic and therapeutic applications for various conditions like neurological disorders, multiple tumours and some pathological conditions. Additionally, these materials have gained attraction in imaging-guided therapeutic and diagnostic imaging platforms, such as up- and down-conversion imaging, CT, MRI, photoacoustic and multimodal imaging platforms. Along with that, visible light-driven reactive oxygen species (ROS) generation by these materials has been applied for photocatalytic disinfection by ROS-mediated killing of bacteria. These applications are crucial for removing dangerous strains of bacteria and antibiotic-resistant bacteria. This review article highlights the recent advancements in BiVO4-integrated biosensor platforms in diagnostic, therapeutic, imaging and bactericidal applications. The modification and engineering strategies adopted for better suiting BiVO4 for particular applications are discussed in detail. The challenges in addressing their material stability, biocompatibility and clinical translation are discussed with more emphasis on the potential of BiVO4 in integrated diagnostic, imaging and therapeutic applications.

新兴的基于钒酸铋的生物传感器平台,用于诊断、成像、治疗和抗菌应用。
BiVO4纳米结构是n型半导体光催化剂,具有窄带隙,对可见光敏感。这种光催化性能,以及独特的电化学性能,卓越的生物相容性,可调的表面化学,易于合成和易于调整的形态,使它们成为生物传感器平台领域有吸引力的候选者。这些生物传感器为神经系统疾病、多发性肿瘤和一些病理疾病等各种疾病提供高度敏感、即时、非侵入性的诊断和治疗应用。此外,这些材料在成像引导的治疗和诊断成像平台中获得了吸引力,例如上下转换成像,CT, MRI,光声和多模态成像平台。与此同时,这些材料产生的可见光驱动活性氧(ROS)已被应用于光催化消毒,通过ROS介导的杀死细菌。这些应用对于去除危险的细菌菌株和耐抗生素细菌至关重要。本文综述了bivo4集成生物传感器平台在诊断、治疗、成像和杀菌方面的最新进展。详细讨论了为更好地适应BiVO4的特定应用而采用的修改和工程策略。讨论了在解决其材料稳定性,生物相容性和临床翻译方面的挑战,更强调了BiVO4在综合诊断,成像和治疗应用方面的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Journal of materials chemistry. B
Journal of materials chemistry. B 化学科学, 工程与材料, 生命科学, 分析化学, 高分子组装与超分子结构, 高分子科学, 免疫生物学, 免疫学, 生化分析及生物传感, 组织工程学, 生物力学与组织工程学, 资源循环科学, 冶金与矿业, 生物医用高分子材料, 有机高分子材料, 金属材料的制备科学与跨学科应用基础, 金属材料, 样品前处理方法与技术, 有机分子功能材料化学, 有机化学
CiteScore
12.00
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0.00%
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0
审稿时长
1 months
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