Abstract: A preparation method of carboxylic acids or ketones using ozone, singlet state oxygen atom O(1D) or hydroxyl free radical is provided. The method includes: filling ozone, singlet state oxygen atom O(1D) and/or hydroxyl free radical to cycloalkanes or benzenes at a pre-determined temperature and a pre-determined pressure in the presence or absence of light irradiation to produce carboxylic acids or ketones. The reaction occurs at room temperature and atmospheric pressure without producing harmful side products. The preparation method is a simple, low energy consuming, and eco-friendly method.

Abstract: A preparation method of carboxylic acids or ketones using ozone, singlet state oxygen atom O(1D) or hydroxyl free radical is provided. The method includes: filling ozone, singlet state oxygen atom O(1D) and/or hydroxyl free radical to cycloalkanes or benzenes at a pre-determined temperature and a pre-determined pressure in the presence or absence of light irradiation to produce carboxylic acids or ketones. The reaction occurs at room temperature and atmospheric pressure without producing harmful side products. The preparation method is a simple, low energy consuming, and eco-friendly method.

Abstract: The present invention provides a hybrid nanomaterial electrode, comprising a pair of spaced-apart electrodes, at least three pairs of metallic nanowires disposed between the electrodes and respectively connected with the electrodes, and at least a detecting material connecting with the metallic nanowires. The detecting material is formed as a semiconductor nanostructure or a conductor nanostructure. The hybrid nanomaterial electrode of the present invention can be used in a gas detector for detecting volatile organic compounds, and has the advantage of providing high sensitivity, low detection limit, and the ability to operate at room temperature.

Abstract: The present invention provides a hybrid nanomaterial electrode, comprising a pair of spaced-apart electrodes, at least three pairs of metallic nanowires disposed between the electrodes and respectively connected with the electrodes, and at least a detecting material connecting with the metallic nanowires. The detecting material is formed as a semiconductor nanostructure or a conductor nanostructure. The hybrid nanomaterial electrode of the present invention can be used in a gas detector for detecting volatile organic compounds, and has the advantage of providing high sensitivity, low detection limit, and the ability to operate at room temperature.

Abstract: The invention provides a method for generation of a singlet oxygen comprising the following steps: irradiating with light on a metal nanoparticle at a specific wavelength; and transmitting a photon energy to sensitize a molecular oxygen to generate the singlet oxygen; wherein, the amount of the singlet oxygen is dependent on the wavelength of excitation light and aspect ratio of the metal nanoparticle.

Abstract: A method for separating labeled cells and a use (of the labeled cells) thereof are provided. More specifically, a method for labeling cells using fluorescent magnetic nanodiamonds, and a method for separating the labeled cells using the labeling method by the fluorescent or magnetic properties of the nanodiamonds are provided.

Abstract: The invention provides a compound of silver nanowire with polymer. The compound comprises a resin, a dispersant, and a plurality of silver nanowires. The dispersant is capable of copolymerizing with the resin. The dispersant has a plurality of functional groups capable of connecting with the silver nanowires respectively. Therefore, the silver nanowires could disperse in the resin by means of the functional groups of the dispersant.

Abstract: The invention provides a compound of silver nanowire with polymer. The compound comprises a resin, a dispersant, and a plurality of silver nanowires. The dispersant is capable of copolymerizing with the resin. The dispersant has a plurality of functional groups capable of connecting with the silver nanowires respectively. Therefore, the silver nanowires could disperse in the resin by means of the functional groups of the dispersant.

Abstract: The present invention discloses deuterated semiconducting organic compounds. The deuterated semiconducting organic compounds comprise at least one partially or fully deuterated non-conjugated portion linked to the conjugated portion. The mentioned deuterated semiconducting organic compounds can be used in optoelectronic devices, such as light-emitting devices and photodiodes, with enhanced performance and lifetime. The deuterated semiconducting organic compounds of this application can be employed as emissive layer, charge-transporting layer, or energy transfer material in organic light-emitting devices.

Abstract: An art is provided to realize a current emitting device capable of emitting current of higher density under the same or lower onset emission voltage. The current emitting device is preferably an array of carbon nanotubes or a film including carbon nanotubes. The art is based on using O2, and/or O3, and/or CO2, and/or NO2, and/or SO2, and/or SO3 to oxidize a current emitting device composed of material including carbon, until the current emitting device has at least part thereof changed in shape. The current emitting device thus processed works better with a display, or becomes capable of emitting current of higher density under the same or lower onset emission voltage. As far as experiments showed, the emitted current density achieved by the art can be eight times the amount emitted by an array of nanotubes having not been processed according to the art, and the onset emission voltage can be lowered by the art from 0.8 V/?m to 0.5 V/?m.

Abstract: An art is provided to realize a current emitting device capable of emitting current of higher density under the same or lower onset emission voltage. The current emitting device is preferably an array of carbon nanotubes or a film including carbon nanotubes. The art is based on oxidizing a current emitting device composed of material including carbon, until the current emitting device has at least part thereof changed in shape. The current emitting device thus processed works better with a display, or becomes capable of emitting current of higher density under the same or lower onset emission voltage. As far as experiments showed, the emitted current density achieved by the art can be eight times the amount emitted by an array of nanotubes having not been processed according to the art, and the onset emission voltage can be lowered by the art from 0.8 V/&mgr;m to 0.5 V/&mgr;m.