Abstract: A method for dispersing conductive particles includes: forming an electric field between a first electrode and a second electrode of an electrostatic adsorption device including the first electrode including a disposition part having electrostatic diffusivity or conductivity on which particles are disposed and the second electrode including an adsorption part having electrostatic diffusivity or conductivity and facing the disposition part, to cause a blend particle in which the conductive particles each having a particle size smaller than a particle size of an intermediate particle are attached to the intermediate particle and which is disposed on the disposition part, to reciprocate between the disposition part and the adsorption part, and to cause the conductive particles to be adsorbed onto the adsorption part.

Abstract: A method for dispersing conductive particles includes: forming an electric field between a first electrode and a second electrode of an electrostatic adsorption device including the first electrode including a disposition part having electrostatic diffusivity or conductivity on which particles are disposed and the second electrode including an adsorption part having electrostatic diffusivity or conductivity and facing the disposition part, to cause a blend particle in which the conductive particles each having a particle size smaller than a particle size of an intermediate particle are attached to the intermediate particle and which is disposed on the disposition part, to reciprocate between the disposition part and the adsorption part, and to cause the conductive particles to be adsorbed onto the adsorption part.

Abstract: A steel with high hardness and excellent toughness contains, in mass %, 0.40-1.00% C, 0.10-2.00% Si, 0.10-1.00% Mn, 0.030% or less P, 0.030% or less S, 1.10-3.20% Cr, 0.010-0.10% Al, and 0.15-0.50% V, and further contains at least one or two of 2.50% or less Ni and 1.00% or less Mo, with an amount of (C+V) being 0.60% or more in mass %, with the balance consisting of Fe and unavoidable impurities. The steel has a microstructure which is a martensitic structure with finely dispersed Fe-based ? carbides, with its prior austenite grain size being 20 ?m or less.

Abstract: A steel with high hardness and excellent toughness contains, in mass %, 0.40-1.00% C, 0.10-2.00% Si, 0.10-1.00% Mn, 0.030% or less P, 0.030% or less S, 1.10-3.20% Cr, 0.010-0.10% Al, and 0.15-0.50% V, and further contains at least one or two of 2.50% or less Ni and 1.00% or less Mo, with an amount of (C+V) being 0.60% or more in mass %, with the balance consisting of Fe and unavoidable impurities. The steel has a microstructure which is a martensitic structure with finely dispersed Fe-based ? carbides, with its prior austenite grain size being 20 ?m or less.

Abstract: Differences in the output of the printed barcode caused by differences interpreting the barcode generating code of an application program are absorbed so that the barcode desired by the user can be printed. The printer driver 32 of the host computer 11 extracts the character data contained in plural blocks of input barcode generation data, combines the extracted character data to generate a character data array, and based on the generated character data array generates and outputs a single barcode generation command CMB to the printer 12.

Abstract: The object of the present invention is to overcome conventional demerits of pullulan powders prepared by conventional techniques, i.e., they could not be homogeneously mixed with non-reducing saccharides composed of glucose units when mixed together, and the resulting mixtures do not easily dissolve in water; and to provide a pullulan-containing powder with an improved rate of water dissolution, as well as to provide preparations and uses thereof. The present invention solves the above object by providing a pullulan-containing powder which uniformly comprises pullulan as a main ingredient and a non-reducing saccharide, and their process and uses; wherein the pullulan-containing powder is prepared by the steps of preparing a solution dissolving pullulan and a non-reducing saccharide homogeneously, pulverizing the solution, and collecting the resulting pullulan-containing powder.

Abstract: A method of controlling a printer 1 that cuts recording paper according to a paper cut command after printing print data received from a host computer 80 on the recording paper 10. If the paper cut command is received while performing an automatic clogged nozzle detection process on the inkjet head 17 after printing ends (S1: Yes), the automatic clogged nozzle detection process is interrupted (S2), and the cutting process is performed (S3).

Abstract: A printer driver conserves recording paper by removing blank space formed at the top and bottom of each page when printing. The printer driver acquires the coordinates of the top and bottom of the part of the print image, and calculates the page length required to print the middle area between the top and bottom blank space areas based on these coordinates. The print data for printing this middle area is then extracted and printed. When printing is completed, the recording paper is conveyed only the difference between the page length and the transportation distance of the recording paper to set the print head to a position separated only the page length from the printing start position of the area print data, that is, to a position touching the middle area. As a result, blank space between the middle areas of consecutively printed pages is eliminated.

Abstract: An air intake device for an engine is provided that includes a throttle body (1), a throttle valve (5) that has a valve shaft (5a) rotatably supported on the throttle body (1), a throttle drum (8) connected to one end of the throttle valve (5), a throttle sensor (51) connected to the other end of the valve shaft (5a), a bypass (20) bypassing the throttle valve (5), and a bypass valve (25) that opens and closes the bypass (20), a bearing boss (3) supporting one end part, on the throttle drum (8) side, of the valve shaft (5a) being integrally and projecting provided on one side face of the throttle body (1), wherein the bypass (20) is formed so as to surround the bearing boss (3). This enables the air intake device for an engine to be made compact in spite of the bypass being present.

Abstract: An air intake device for an engine is provided that includes a bypass (20) connected to an air intake path (2) while bypassing a throttle valve (5), and a bypass valve (V) for controlling the degree of opening of the bypass (20), the bypass valve (V) being formed from a tubular valve chamber (15) having its interior opening on the upstream side of the bypass (20) and having an inner face with a metering hole (16) opening toward the downstream side of the bypass (20), and a valve body (25) slidably but non-rotatably fitted into the valve chamber (15) and opening and closing the metering hole (16), wherein an inner face (A) of the valve chamber (15) on which the metering hole (16) opens and an outer face (B1) of the valve body (25) opposing the inner face (A) and covering the metering hole (16) are formed in the same shape so as to enable them to be in intimate contact with each other, and other inner (A) and outer faces (B2) of the valve chamber (15) and the valve body (25) are formed so that there is a gap (g

Abstract: A method of controlling a printer 1 that cuts recording paper according to a paper cut command after printing print data received from a host computer 80 on the recording paper 10. If the paper cut command is received while performing an automatic clogged nozzle detection process on the inkjet head 17 after printing ends (S1: Yes), the automatic clogged nozzle detection process is interrupted (S2), and the cutting process is performed (S3).

Abstract: A printer control method and printer driver enable printing efficiently and improving work efficiency while also enabling high precision printing. A method of controlling a printer 1 that, when printing print data received from a host computer 80 to recording paper, pulls the back side of the printed surface of the recording paper that is printed to the vacuum platen side by a vacuum fan 35, including a step of : setting a delay time until stopping operation of the vacuum fan 35 after printing ends based on input from a control unit 81, which is a printer driver installed on the host computer 80.

Abstract: A printer, image registration method, and printer system improve image data processing efficiency by tracking and storing the identical image data that is registered and stored in a printer. The image registration device has a graphics register for registering images in a printer. The graphics register sends the image data to be registered to the printer, receives an identification number from the printer, and records and stores a registered image data information file linking the image data sent to the printer with the printer identification number.

Abstract: A printer, image registration method, and printer system improve image data processing efficiency by tracking and storing the identical image data that is registered and stored in a printer. The image registration device has a graphics register for registering images in a printer. The graphics register sends the image data to be registered to the printer, receives an identification number from the printer, and records and stores a registered image data information file linking the image data sent to the printer with the printer identification number.

Abstract: A printer, image registration method, and printer system improve image data processing efficiency by tracking and storing the identical image data that is registered and stored in a printer. The image registration device has a graphics register for registering images in a printer. The graphics register sends the image data to be registered to the printer, receives an identification number from the printer, and records and stores a registered image data information file linking the image data sent to the printer with the printer identification number.

Abstract: Since conventional high pullulan content shaped products have a low stability to the change of humidity, the object of the present invention is to provide a high pullulan content shaped product having a satisfactory stability to the change of humidity, a process for producing the same, and uses. The present invention solves the above object by establishing high pullulan content shaped product with an improved stability to the change of humidity by incorporating a prescribed amount of ?,?-trehalose into pullulan in preparing the high pullulan content shaped product, and a process for producing the same, and by providing uses of the high pullulan content shaped product obtainable by the process.

Abstract: An air intake device for an engine is provided that includes a throttle body (1), a throttle valve (5) that has a valve shaft (5a) rotatably supported on the throttle body (1), a throttle drum (8) connected to one end of the throttle valve (5), a throttle sensor (51) connected to the other end of the valve shaft (5a), a bypass (20) bypassing the throttle valve (5), and a bypass valve (25) that opens and closes the bypass (20), a bearing boss (3) supporting one end part, on the throttle drum (8) side, of the valve shaft (5a) being integrally and projecting provided on one side face of the throttle body (1), wherein the bypass (20) is formed so as to surround the bearing boss (3). This enables the air intake device for an engine to be made compact in spite of the bypass being present.

Abstract: Differences in the output of the printed barcode caused by differences interpreting the barcode generating code of an application program are absorbed so that the barcode desired by the user can be printed. The printer driver 32 of the host computer 11 extracts the character data contained in plural blocks of input barcode generation data, combines the extracted character data to generate a character data array, and based on the generated character data array generates and outputs a single barcode generation command CMB to the printer 12.

Abstract: An air intake device for an engine is provided that includes a bypass (20) connected to an air intake path (2) while bypassing a throttle valve (5), and a bypass valve (V) for controlling the degree of opening of the bypass (20), the bypass valve (V) being formed from a tubular valve chamber (15) having its interior opening on the upstream side of the bypass (20) and having an inner face with a metering hole (16) opening toward the downstream side of the bypass (20), and a valve body (25) slidably but non-rotatably fitted into the valve chamber (15) and opening and closing the metering hole (16), wherein an inner face (A) of the valve chamber (15) on which the metering hole (16) opens and an outer face (B1) of the valve body (25) opposing the inner face (A) and covering the metering hole (16) are formed in the same shape so as to enable them to be in intimate contact with each other, and other inner (A) and outer faces (B2) of the valve chamber (15) and the valve body (25) are formed so that there is a gap (g

Abstract: A printer driver conserves recording paper by removing blank space formed at the top and bottom of each page when printing. The printer driver 9 acquires the coordinates of the top and bottom of the part of the print image that is not blank space from the print image B of the print data for one page, and calculates the page length L required to print the middle area H between the top and bottom blank space areas based on these coordinates. The area print data for printing this middle area H is then extracted and printed. When printing is completed, the recording paper 11 is conveyed only the difference N between the page length L and the transportation distance M of the recording paper 11 to set the print head 10 to a position separated only the page length L from the printing start position of the area print data, that is, to a position touching the middle area H. As a result, only the middle area H for each page is printed to the recording paper 11.