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In‐Sequence High‐Specificity Dual‐Reporter Unlocking of Fluorescent Probe Enables the Precise Identification of Atherosclerotic Plaques

Zhuo Ye, Moxuan Ji, Kefeng Wu, Jie Yang, An‐An Liu, Wei Sun, Dan Ding, Dingbin Liu

2022Angewandte Chemie26 citationsDOI

Abstract

Abstract The formation of atherosclerotic plaques is the root cause of various cardiovascular diseases (CVDs). Effective CVD interventions thus call for precise identification of the plaques to aid clinical assessment, diagnosis, and treatment of such diseases. In this study, we introduce a dual‐target sequentially activated fluorescence reporting system, termed i n‐ s equence h igh‐sp e cificity dual‐ r eporter un lock ing (iSHERLOCK), to precisely identify the atherosclerotic plaques in vivo and ex vivo. ISHERLOCK was achieved by creating a three‐in‐one fluorescent probe that permits highly specific and sensitive detection of lipid droplets and hypochlorous acid via “off‐on” and ratiometric readouts, respectively. Based on this format, the upregulated lipid accumulation and oxidative stress—the two hallmarks of atherosclerosis (AS)—were specifically measured in the atherosclerotic plaques, breaking through the barrier of precise tissue biopsy of AS and thus aiding effective CVD stewardship.

Topics & Concepts

FluorescenceEx vivoIn vivoChemistryHypochlorous acidOxidative stressPathologyComputational biologyBiochemistryMedicineIn vitroBiologyPhysicsBiotechnologyQuantum mechanicsLipid metabolism and biosynthesisPeroxisome Proliferator-Activated ReceptorsReceptor Mechanisms and Signaling
In‐Sequence High‐Specificity Dual‐Reporter Unlocking of Fluorescent Probe Enables the Precise Identification of Atherosclerotic Plaques | Litcius