Interaction between LDL-mimetic liposomes and acid-treated carbon nanotube electrode during Cu-mediated oxidation.

Oxidation of low-density lipoproteins (LDL) causes atherosclerosis. Detection of oxidation of LDL-mimetic liposomes using an electrode might serve as a convenient tool in the search of antioxidants for the prevention of atherosclerosis. This report proposes a reaction mechanism between LDL-mimetic liposomes and an acid-treated carbon nanotube (CNT) electrode.

Evaluation of various electrode materials for detection of oxidized low-density lipoproteins.

Measurement of oxidized low-density lipoprotein (LDL) generated by oxidative stress of various kinds might be useful for evaluating the risk of cardiovascular disease. We evaluated some electrode materials to detect oxidized LDL electrochemically. Some carbon nanotube dispersions were studied as electrode materials.

Detection of human adenovirus hexon antigen using carbon nanotube sensors.

Human adenoviruses (HAdVs) have been implicated in a wide range of diseases affecting primarily the respiratory, ocular and gastrointestinal systems. A rapid and efficient method for the detection of HAdV hexon antigen is described using carbon nanotube (CNT) sensors. Anti-HAdV antibody was immobilised on the reverse surface of a CNT sensor.

Detection of influenza virus hemagglutinin with randomly immobilized anti-hemagglutinin antibody on a carbon nanotube sensor.

Carbon nanotube sensors were capable of detecting hemagglutinin binding to anti-hemagglutinin antibody immobilized on the sensor. The carbon nanotube sensors were fabricated by chemical vapor deposition method and it showed field effect transistor property. Anti-hemagglutinin antibody was immobilized by cross-linking on the reverse surface of the carbon nanotube sensor.

A pH sensor based on electric properties of nanotubes on a glass substrate.

We fabricated a pH-sensitive device on a glass substrate based on properties of carbon nanotubes. Nanotubes were immobilized specifically on chemically modified areas on a substrate followed by deposition of metallic source and drain electrodes on the area. Some nanotubes connected the source and drain electrodes.

Application of carbon nanotubes for detecting anti-hemagglutinins based on antigen-antibody interaction.

Carbon nanotube sensors detected anti-hemagglutinin binding to immobilized hemagglutinins. An ultra-sensitive detection method for antibodies or antigens in serum is required. Hemagglutinins were immobilized on the reverse side of a carbon nanotube, thereby producing a source and a drain.