Shunsuke Shiba, Tomoyuki Kamata, Dai Kato, O. Niwa
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Later, carbon paste electrodes have been used mainly to develop enzymatic biosensors because carbon paste is low cost and the electrode can be fabricated only by printing and various biomolecules can be modified only by mixing with carbon ink. In the last 20 years, electrochemical measurements using boron-doped diamond (BDD) electrodes have become more intensively studied by many groups [2–4]. A BDD electrode shows extremely wider potential window due to its chemical stability and lower background noise level than other electrode materials. Due to such unique performances, BDD electrodes are advantageous in terms of detecting various species including heavy metal ions (Pb2+, Cd2+) [5], chlorinated phenols [6], histamine and serotonin [7, 8], and even nonmetal proteins [9]. The BDD electrodes have also been employed to fabricate modified electrodes including As3+ detection with iridiumimplanted BDD [10], DNA modified BDD [11] and cytochrome c modified BDD [12]. In spite of excellent performance of BDD electrodes, high temperature between 400–700° C is needed for BDD fabrication, which limits the substrates only to inorganic materials such as silicon wafer, metals and glass plate. More recently, nanocarbon materials including carbon nanotubes (CNTs), carbon nanofibers (CNFs) and graphene nanosheet have been more intensively studied with a view to using them as electrode materials for fuel and biofuel cells [13–15]. 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引用次数: 1
摘要
碳基电极作为分析应用的电极材料,已广泛应用于高效液相色谱(HPLC)、毛细管电泳(CE)和各种生物传感器的检测器。与铂、金等新型金属电极相比,碳材料通常具有更宽的电位窗口。这些电极具有化学稳定性、高导电性和低成本。最近的一篇综述文章很好地描述了某些碳基电极的电化学[1]。玻璃碳(GC)和高取向热解石墨(HOPG)传统上用于各种电分析方法。后来,碳糊电极主要用于开发酶促生物传感器,因为碳糊成本低,电极只需通过打印制造,各种生物分子只需与碳墨水混合即可修饰。在过去的20年里,使用掺硼金刚石(BDD)电极的电化学测量得到了许多研究小组的深入研究[2-4]。由于其化学稳定性和较低的背景噪声水平,BDD电极比其他电极材料显示出极宽的电位窗口。由于这些独特的性能,BDD电极在检测重金属离子(Pb2+, Cd2+)[5],氯化酚[6],组胺和血清素[7,8],甚至非金属蛋白质[9]等方面具有优势。BDD电极也被用于制备修饰电极,包括用植入铱的BDD[10]、DNA修饰BDD[11]和细胞色素c修饰BDD[12]检测As3+。尽管BDD电极具有优异的性能,但制造BDD需要400-700℃的高温,这限制了衬底只能使用硅片、金属和玻璃板等无机材料。最近,包括碳纳米管(CNTs)、碳纳米纤维(CNFs)和石墨烯纳米片在内的纳米碳材料得到了更深入的研究,以期将其用作燃料和生物燃料电池的电极材料[13-15]。对于电分析应用,碳纳米管和石墨烯已被用于制造各种基于碳膜电极的电分析,包括Shiba Shunsuke, Kamata Tomoyuki, Dai Kato和Osamu Niwa
As electrode materials for analytical applications, carbon-based electrodes have been widely employed as detectors for high performance liquid chromatography (HPLC), capillary electrophoresis (CE) and various biosensors. Carbon materials usually shows wider potential window compared with those of novel metals such as platinum and gold electrode. These electrodes are chemically stable, highly conductive and low cost. A recent review article has well described the electrochemistry of certain carbon-based electrodes [1]. Glassy carbon (GC) and highly oriented pyrolytic graphite (HOPG) have been traditionally utilized for various electroanalytical methods. Later, carbon paste electrodes have been used mainly to develop enzymatic biosensors because carbon paste is low cost and the electrode can be fabricated only by printing and various biomolecules can be modified only by mixing with carbon ink. In the last 20 years, electrochemical measurements using boron-doped diamond (BDD) electrodes have become more intensively studied by many groups [2–4]. A BDD electrode shows extremely wider potential window due to its chemical stability and lower background noise level than other electrode materials. Due to such unique performances, BDD electrodes are advantageous in terms of detecting various species including heavy metal ions (Pb2+, Cd2+) [5], chlorinated phenols [6], histamine and serotonin [7, 8], and even nonmetal proteins [9]. The BDD electrodes have also been employed to fabricate modified electrodes including As3+ detection with iridiumimplanted BDD [10], DNA modified BDD [11] and cytochrome c modified BDD [12]. In spite of excellent performance of BDD electrodes, high temperature between 400–700° C is needed for BDD fabrication, which limits the substrates only to inorganic materials such as silicon wafer, metals and glass plate. More recently, nanocarbon materials including carbon nanotubes (CNTs), carbon nanofibers (CNFs) and graphene nanosheet have been more intensively studied with a view to using them as electrode materials for fuel and biofuel cells [13–15]. For electroanalytical application CNT and graphene have been employed to fabricate various Electroanalysis with Carbon Film-based Electrodes Shunsuke Shiba, Tomoyuki Kamata, Dai Kato and Osamu Niwa