A novel ion selective electrode for determination of chlorine ion was prepared based on the sol-gel technique.The electrode used silver chloride as a electrical active material.This method is simple ,easy to operate a...A novel ion selective electrode for determination of chlorine ion was prepared based on the sol-gel technique.The electrode used silver chloride as a electrical active material.This method is simple ,easy to operate and fast.The Nerust response had a linear relationship with the concentration of chlorine ion in the range of 1.0×10-1mol·L-1~7.0×10-5mol·L-1,at pH 3.0-5.2 with a slope of 56mV/decade and a detection limit of 5.5×10-5mol·L-1.展开更多
Metal nanowire networks represent a promising candidate for the rapid fabrication of transparent electrodes with high transmission and low sheet-resistance values at very low deposition temperatures. A commonly encoun...Metal nanowire networks represent a promising candidate for the rapid fabrication of transparent electrodes with high transmission and low sheet-resistance values at very low deposition temperatures. A commonly encountered challenge in the formation of conductive nanowire electrodes is establishing high-quality electronic contact between nanowires to facilitate long-range current transport through the network. A new system involving nanowire ligand removal and replacement with a semiconducting sol-gel tin oxide matrix has enabled the fabrication of high-performance transparent electrodes at dramatically reduced temperatures with minimal need for post-deposition treatment.展开更多
文摘A novel ion selective electrode for determination of chlorine ion was prepared based on the sol-gel technique.The electrode used silver chloride as a electrical active material.This method is simple ,easy to operate and fast.The Nerust response had a linear relationship with the concentration of chlorine ion in the range of 1.0×10-1mol·L-1~7.0×10-5mol·L-1,at pH 3.0-5.2 with a slope of 56mV/decade and a detection limit of 5.5×10-5mol·L-1.
文摘Metal nanowire networks represent a promising candidate for the rapid fabrication of transparent electrodes with high transmission and low sheet-resistance values at very low deposition temperatures. A commonly encountered challenge in the formation of conductive nanowire electrodes is establishing high-quality electronic contact between nanowires to facilitate long-range current transport through the network. A new system involving nanowire ligand removal and replacement with a semiconducting sol-gel tin oxide matrix has enabled the fabrication of high-performance transparent electrodes at dramatically reduced temperatures with minimal need for post-deposition treatment.