Patent application number | Description | Published |
20090017293 | Carbon nanocomposite material and method of manufacturing the same - A carbon nanocomposite material composed of a carbon nanomaterial and a film formed on the surface thereof is disclosed. The film contains the element Si. The average thickness of the film is 10 to 50 nm. | 01-15-2009 |
20100064851 | Method for manufacturing material for forming composite metal and method for manufacturing article formed from composite metal - A method for kneading a carbon nanomaterial with a metal material and manufacturing a composite-metal-forming material. A semi-molten metal material obtained by heating the metal material to a temperature of a region where a solid and a liquid are both present is kneaded with the carbon nanomaterial, and the composite metal material is obtained. The composite metal material is heated to the solution temperature of the metal material, and a solution treatment is performed, whereby the composite-metal-forming material is obtained. | 03-18-2010 |
20100068089 | Method for manufacturing composite metal alloy and method for manufacturing article from composite metal - A method for manufacturing a composite metal alloy from a carbon nanomaterial and a metal material is disclosed. The carbon nanomaterial and the metal material are mixed, and a mixture is obtained. Afterwards, the mixture is dissolved. In the dissolving step, the carbon nanomaterial moves through the melt while adhering to the metal material. | 03-18-2010 |
20100227154 | Composite plated product and method for manufacturing the same - A composite plated product in which a metal material is coated with a plating film in a nickel bath in which carbon nanomaterials and hard microparticles are mixed. The carbon nanomaterials and hard microparticles are compounded with nickel or a nickel alloy in the plating film. | 09-09-2010 |
20110014493 | Composite-plated article and method for producing same - A composite-plated article in which carbon nanofibers are used, and an adequate degree of strength is obtained thereby. Carbon nanofibers having microparticles bonded thereto are used. On reacting with carbon and forming a compound, the microparticles will be securely bonded to the carbon nanofibers, and a high-strength composite-plated article is obtained. | 01-20-2011 |
Patent application number | Description | Published |
20090245124 | Receiving device, clock synchronizing method, and computer program - There is provided a receiving device including: a receiving unit that receives a packet stream; an oscillator; a measuring unit that performs a measuring operation; an acquiring unit that reads the newest time stamp read from the packet stream received by the receiving unit and the newest measurement value measured by the measuring unit with a predetermined period, from a point of time when the packet stream starts to be received; a calculating unit that calculates an accumulation value of the time stamps and the measurement values acquired by the acquiring unit; a comparing unit that compares a difference between the accumulation value of the time stamps and the accumulation value of the measurement values calculated by the calculating unit, and a value corresponding to a network jitter; and a frequency control unit that controls the oscillation frequency of the oscillator based on the comparison result by the comparing unit. | 10-01-2009 |
20130177846 | TONER AND DEVELOPER - To provide a toner, containing: a binder resin; a colorant; a releasing agent; and a crystalline polyester resin, wherein the toner satisfies the following formulae (1) to (3): 40° C.≦X≦55° C. Formula (1) 85° C.≦Y≦92° C. Formula (2) 35° C.≦Y−X≦50° C. Formula (3) where X is an onset temperature and Y is an endset temperature of an endothermic peak on a differential scanning calorimetry (DSC) curve of the toner as measured by a differential scanning calorimeter (DSC). | 07-11-2013 |
20130209931 | TONER AND METHOD FOR PRODUCING THE SAME - A toner including base particles each containing a crystalline polyester and a non-crystalline polyester, wherein the toner has a glass transition temperature of 45° C. or higher where the glass transition temperature is determined from a DSC curve of the toner obtained in the first elevation of temperature thereof, and wherein the toner has a temperature width of 8° C. or lower where the temperature width is a temperature width at ⅓ the height of an endothermic peak attributed to the crystalline polyester in the DSC curve. | 08-15-2013 |