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肿瘤学中的电化学生物传感:癌症诊断的进展与前景综述

Electrochemical biosensing in oncology: a review advancements and prospects for cancer diagnosis.

作者信息

Noreen Sana, Ishaq Izwa, Saleem Muhammad Hamzah, Ali Baber, Muhammad Ali Syed, Iqbal Javed

机构信息

University Institute of Diet and Nutritional Sciences, The University of Lahore, Lahore, Pakistan.

College of Plant Science and Technology, Huazhong Agricultural University, Wuhan, China.

出版信息

Cancer Biol Ther. 2025 Dec;26(1):2475581. doi: 10.1080/15384047.2025.2475581. Epub 2025 Mar 13.

Abstract

Early and precise diagnosis of cancer is pivotal for effective therapeutic intervention. Traditional diagnostic methods, despite their reliability, often face limitations such as invasiveness, high costs, labor-intensive procedures, extended processing times, and reduced sensitivity for early-stage detection. Electrochemical biosensing is a revolutionary method that provides rapid, cost-effective, and highly sensitive detection of cancer biomarkers. This review discusses the use of electrochemical detection in biosensors to provide real-time insights into disease-specific molecular interactions, focusing on target recognition and signal generation mechanisms. Furthermore, the superior efficacy of electrochemical biosensors compared to conventional techniques is explored, particularly in their ability to detect cancer biomarkers with enhanced specificity and sensitivity. Advancements in electrode materials and nanostructured designs, integrating nanotechnology, microfluidics, and artificial intelligence, have the potential to overcome biological interferences and scale for clinical use. Research and innovation in oncology diagnostics hold potential for personalized medicine, despite challenges in commercial viability and real-world application.

摘要

癌症的早期精确诊断对于有效的治疗干预至关重要。传统诊断方法尽管可靠,但往往面临诸如侵入性、高成本、劳动密集型程序、处理时间长以及早期检测灵敏度降低等局限性。电化学生物传感是一种革命性的方法,可对癌症生物标志物进行快速、经济高效且高度灵敏的检测。本综述讨论了电化学生物传感器中电化学检测的应用,以提供对疾病特异性分子相互作用的实时见解,重点关注目标识别和信号产生机制。此外,还探讨了电化学生物传感器与传统技术相比的卓越功效,特别是其以更高的特异性和灵敏度检测癌症生物标志物的能力。电极材料和纳米结构设计的进步,融合了纳米技术、微流体技术和人工智能,有可能克服生物干扰并扩大临床应用规模。尽管在商业可行性和实际应用方面存在挑战,但肿瘤诊断学的研究与创新在个性化医疗方面具有潜力。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ddcf/11913392/4a4350ea9124/KCBT_A_2475581_F0001_OC.jpg

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