Abstract: This application provide a power supply device and a control method. In one example, a power supply device includes a first AC/DC unit and a second AC/DC unit. An input terminal of the first AC/DC unit and an input terminal of the second AC/DC unit are connected to an alternating current input bus. An output terminal of the first AC/DC unit is connected to a first direct current output bus. The first AC/DC unit is output stable. An output terminal of the second AC/DC unit is connected to a second direct current output bus. Power is output to a plurality of direct current output buses respectively through a plurality of AC/DC units to supply power to different loads.

Abstract: This application provide a power supply device and a control method. In one example, a power supply device includes a first AC/DC unit and a second AC/DC unit. An input terminal of the first AC/DC unit and an input terminal of the second AC/DC unit are connected to an alternating current input bus. An output terminal of the first AC/DC unit is connected to a first direct current output bus. The first AC/DC unit is output stable. An output terminal of the second AC/DC unit is connected to a second direct current output bus. Power is output to a plurality of direct current output buses respectively through a plurality of AC/DC units to supply power to different loads.

Abstract: A stable delivery system for the therapeutic release and application of nitric oxide to a patient suffering from a cutaneous injury or wound includes a S-nitrosothiol and transition element nanoparticles. The transition metal nanoparticles are selected to react with the S-nitrosothiol to release and diffuse nitric oxide into the injury or wound.

Abstract: A stable delivery system for the therapeutic release and application of nitric oxide to a patient suffering from a cutaneous injury or wound includes a S-nitrosothiol and transition element nanoparticles. The transition metal nanoparticles are selected to react with the S-nitrosothiol to release and diffuse nitric oxide into the injury or wound.

Abstract: A method of rapidly and accurately identifying and analyzing thiol proteins in a sample using gold nanoparticles. Disclosed are embodiments of a flow device for isolation, fractionation and subsequent instrumental analysis of thiol containing proteins from various samples or tissue sources using gold nanoparticles. Also disclosed are embodiments of a flow device for detecting, isolating and fractionating S-nitrosated proteins and peptides for subsequent analysis, including identification of S-nitrosation sites.

Abstract: An electrochemical sensor for measurement of hydrogen sulfide is described. The electrochemical sensor comprises an electrolyte; an electrolyte container comprising a hydrogen sulfide permeable membrane; a working electrode and a reference electrode both disposed in the electrolyte; and an instrument capable of maintaining a fixed DC potential in the range of 0 mV to 1,000 mV between the working electrode and the reference electrode. Also a method of detecting hydrogen sulfide in a sample. The method comprises providing an electrochemical sensor; at least partially immersing the gas permeable membrane in the sample; and detecting hydrogen sulfide in the sample. The detection may be qualitative or quantitative.

Abstract: An electrochemical sensor for measurement of hydrogen sulfide is described. The electrochemical sensor comprises an electrolyte; an electrolyte container comprising a hydrogen sulfide permeable membrane; a working electrode and a reference electrode both disposed in the electrolyte; and an instrument capable of maintaining a fixed DC potential in the range of 0 mV to 1,000 mV between the working electrode and the reference electrode. Also a method of detecting hydrogen sulfide in a sample. The method comprises providing an electrochemical sensor; at least partially immersing the gas permeable membrane in the sample; and detecting hydrogen sulfide in the sample. The detection may be qualitative or quantitative.

Abstract: A method of detecting and measuring levels of a sulfur-containing amino acid in a sample is provided. The method includes combining an enzyme with an aqueous solution possibly comprising a sulfur-containing amino acid. When a sulfur-containing amino acid is present in the solution, it reacts with the enzyme and produces hydrogen sulfide or ammonia. An electrochemical sensor is employed to detect the presence of hydrogen sulfide or ammonia in the solution, and thereby detect the presence of sulfur-containing amino acid. The concentration of sulfur-containing amino acid present in the sample can be quantitatively measured or calculated using this method.

Abstract: A dual sensor for the simultaneous amperometric monitoring of glucose and insulin, wherein the glucose probe is based on the biocatalytic action of glucose oxidase, and the insulin probe is based on the electrocatalytic activity of metal oxide. Further provided is an oxidase enzyme composite electrode with an internal oxygen-rich binder. The present invention also optionally includes metallizing components within the carbon paste to eliminate signals from interfering compounds. The present invention includes embodiments for both in vitro and in vivo uses.

Abstract: A storage and delivery system for directly applying nitric oxide to a user includes a portable and disposable capsule and a source of nitric oxide gas disposed within the cavity. Gas flow control apparatus controls the flow of nitric oxide gas from the cavity. Gas flow initiation apparatus allows the user to initiate the flow of nitric oxide gas. The encapsulated nitric oxide gas is applied by positioning the capsule proximate to the objective site of the user and initiating flow of the nitric oxide gas.

Abstract: A storage and delivery system for directly applying nitric oxide to a user includes a portable and disposable capsule and a source of nitric oxide gas disposed within the cavity. Gas flow control apparatus controls the flow of nitric oxide gas from the cavity. Gas flow initiation apparatus allows the user to initiate the flow of nitric oxide gas. The encapsulated nitric oxide gas is applied by positioning the capsule proximate to the objective site of the user and initiating flow of the nitric oxide gas.

Abstract: A storage and delivery system for directly applying nitric oxide to a user includes a portable and disposable capsule and a source of nitric oxide gas disposed within the cavity. Gas flow control apparatus controls the flow of nitric oxide gas from the cavity. Gas flow initiation apparatus allows the user to initiate the flow of nitric oxide gas. The encapsulated nitric oxide gas is applied by positioning the capsule proximate to the objective site of the user and initiating flow of the nitric oxide gas.