Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/96325
標題: Oxygen and boronic acid functionalized screen printed carbon electrode for electrochemical sensors
碳氧官能基與硼酸官能基化網版印刷碳電極在電化學感測器上之研究
作者: Thiruppathi Murugan
莫西儒
關鍵字: 網版印刷碳電極
多環芳香烴
硼酸
二聚體
聚合物
次氯酸鹽

氟化物
磷酸鹽
Screen printed carbon electrode
PAHs
boronic acid
dimer
polymer
hypochlorite
sugar
fluoride
phosphate
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摘要: This thesis describes the oxygen, boronic acid functionalization of screen printed carbon electrode (SPCE) and utilization of those functional moieties for versatile sensor applications. In-situ generated oxygen functionalities along with edge/defect sites of preanodized SPCE (SPCE*) is used for metal free oxidation of poly aromatic hydrocarbons (PAHs). In later sections, we report preparation of stimuli responsive boronic acid based probes on SPCE via both electrochemical as well as chemical routes. In the electrochemical method, 4-Aminophenylboronic acid (4-APBA) has been dimerized and polymerized on SPCE and SPCE* with or without fluoride. The dimer-modified electrode possesses dual functionalities (R-N=N-R' and -B(OH)2) which makes its suitable for selective detection of hypochlorite (i.e., free chlorine), fluoride and sugar molecules, respectively. In chemical method, a new approach for rapid oxidative polymerization of aminophenylboronic acid is described via reduction of surface oxygen functional groups of SPCE* and boron-phosphate complexation. The resulting polymer possesses nanofiber morphology with multiple functional moieties such as imine, azo and boronic acid (-NH+-, -N=N- and -B(OH)2. This has been utilized for direct electro-catalytic detection of Free-Cl, NADH and indirect detection of fluoride ion and fructose by using Fe(CN)63-/4- as redox probe. In continuation of above studies, a voltammetric sensor for determination of phosphate anion (Pi) was developed on the screen printed carbon electrode/anthracene boronic acid (SPCE/ANBA) modified electrode. The complexation of ANBA with Pi through specific BA-Pi binding could cause the quinone formation, which was utilized for Pi detection.
URI: http://hdl.handle.net/11455/96325
文章公開時間: 2021-01-15
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