Abstract: There is provided a method for producing a fluoropolymer, the method including polymerizing a fluoromonomer in an aqueous medium to obtain a polymerization dispersion containing the fluoropolymer, and bringing the fluoropolymer in the polymerization dispersion into contact with an alcohol having 3 to 5 carbon atoms to coagulate the fluoropolymer to thereby obtain the fluoropolymer.

Abstract: A light emitting device includes: a resin package including: a resin part, and a plurality of leads including a first lead and a second lead, wherein the resin package has a concave portion having a bottom face at which a part of an upper surface of the first lead and a part of an upper surface of the second lead are exposed from the resin part; a light emitting element mounted on the bottom face of the concave portion; and a sealing member covering the light emitting element in the concave portion. The plurality of leads comprise a plurality of notch parts including a first notch part on a first side corresponding to a first outer side surface of the resin package and a second notch part on a second side corresponding to a second outer side surface of the resin package.

Abstract: A printer includes a printer body, a hopper, an open-and-close cover, a paper support, and a support holder. The hopper pushes paper up while supporting the paper. The open-and-close cover is able to be opened from and closed toward the printer body. The paper support is provided in such a way as to be able to be housed inside and drawn away from the open-and-close cover, and is configured to support the paper by being drawn out. The support holder supports the paper, together with the hopper and the paper support. The support holder switches between an upright orientation for being housed into the printer body and a tilted orientation for supporting the paper together with the hopper and the paper support by the opening and closing of the open-and-close cover.

Abstract: A printer includes a printer body, a hopper, an open-and-close cover, a paper support, and a support holder. The hopper pushes paper up while supporting the paper. The open-and-close cover is able to be opened from and closed toward the printer body. The paper support is provided in such a way as to be able to be housed inside and drawn away from the open-and-close cover, and is configured to support the paper by being drawn out. The support holder supports the paper, together with the hopper and the paper support. The support holder switches between an upright orientation for being housed into the printer body and a tilted orientation for supporting the paper together with the hopper and the paper support by the opening and closing of the open-and-close cover.

Abstract: A printer includes a printer body, a hopper, an open-and-close cover, a paper support, and a support holder. The hopper pushes paper up while supporting the paper. The open-and-close cover is able to be opened from and closed toward the printer body. The paper support is provided in such a way as to be able to be housed inside and drawn away from the open-and-close cover, and is configured to support the paper by being drawn out. The support holder supports the paper, together with the hopper and the paper support. The support holder switches between an upright orientation for being housed into the printer body and a tilted orientation for supporting the paper together with the hopper and the paper support by the opening and closing of the open-and-close cover.

Abstract: A cylinder case includes a first main path communicating first port with an end surface, a second main path communicating a second port with the end surface, first and second front chamber paths respectively communicating a front chamber with the end surface, and first and second rear chamber paths respectively communicating a rear chamber with the end surface. A manifold block includes a first intermediate path communicating first and second manifold holes opened in an abutting surface with each other and a second intermediate path communicating third and fourth manifold holes opened in the abutting surface. The manifold block configured to be attached and fixed to the cylinder case such that the abutting surface is abutted against the end surface and a relative position of the abutting surface with respect to the end surface portion is capable of being selected from a first position and a second position.

Abstract: An image forming apparatus includes a plurality of print heads, a sensor, a processor, and an image forming unit. The plurality of print heads are arranged in parallel. The sensor detects a color shift amount of each color to be printed by the plurality of print heads in a main scanning direction based on an output result of a test pattern by the plurality of print heads. The processor sets a color shift correction value for correcting the color shift amount on the basis of a color having a largest color shift amount. The processor controls light emission of the plurality of print heads based on the color shift correction value and image data. The image forming unit forms an image based on the image data on a sheet by light emission of the plurality of print heads.

Abstract: A printer includes a printer body, a hopper, an open-and-close cover, a paper support, and a support holder. The hopper pushes paper up while supporting the paper. The open-and-close cover is able to be opened from and closed toward the printer body. The paper support is provided in such a way as to be able to be housed inside and drawn away from the open-and-close cover, and is configured to support the paper by being drawn out. The support holder supports the paper, together with the hopper and the paper support. The support holder switches between an upright orientation for being housed into the printer body and a tilted orientation for supporting the paper together with the hopper and the paper support by the opening and closing of the open-and-close cover.

Abstract: An image forming apparatus includes a plurality of print heads, a sensor, a processor, and an image forming unit. The plurality of print heads are arranged in parallel. The sensor detects a color shift amount of each color to be printed by the plurality of print heads in a main scanning direction based on an output result of a test pattern by the plurality of print heads. The processor sets a color shift correction value for correcting the color shift amount on the basis of a color having a largest color shift amount. The processor controls light emission of the plurality of print heads based on the color shift correction value and image data. The image forming unit forms an image based on the image data on a sheet by light emission of the plurality of print heads.

Abstract: An image forming apparatus includes a plurality of print heads, a sensor, a processor, and an image forming unit. The plurality of print heads are arranged in parallel. The sensor detects a color shift amount of each color to be printed by the plurality of print heads in a main scanning direction based on an output result of a test pattern by the plurality of print heads. The processor sets a color shift correction value for correcting the color shift amount on the basis of a color having a largest color shift amount. The processor controls light emission of the plurality of print heads based on the color shift correction value and image data. The image forming unit forms an image based on the image data on a sheet by light emission of the plurality of print heads.

Abstract: A semiconductor storage device according to the present embodiment includes a plurality of memory cell arrays, a plurality of block selectors, and a controller. The memory cell arrays each include a plurality of subblocks connected to each other via common word lines, and include memory cells at respective intersections between the word lines and bit lines provided in each subblock. The block selectors each include switching elements connected to bit lines in a corresponding one of the subblocks at one ends and to a corresponding sense amplifier at the other ends. The controller maintains, in a case where data is read out from one subblock in a same memory cell array and thereafter data is read out from another subblock in the same memory cell array, switching elements in a block selector corresponding to the one subblock in a conductive state.

Abstract: A cylinder case includes a first main path communicating first port with an end surface, a second main path communicating a second port with the end surface, first and second front chamber paths respectively communicating a front chamber with the end surface, and first and second rear chamber paths respectively communicating a rear chamber with the end surface. A manifold block includes a first intermediate path communicating first and second manifold holes opened in an abutting surface with each other and a second intermediate path communicating third and fourth manifold holes opened in the abutting surface. The manifold block configured to be attached and fixed to the cylinder case such that the abutting surface is abutted against the end surface and a relative position of the abutting surface with respect to the end surface portion is capable of being selected from a first position and a second position.

Abstract: An image forming apparatus includes an image forming unit configured to form an image on an image carrier using a developer, an image sensor configured to detect the image formed on the image carrier, and a correction controller configured to control the image forming unit to form an imaging correction pattern, and perform an imaging correction using a detection result of the image sensor detecting the image correction pattern. The correction controller is configured to control the image forming unit to form a first imaging correction pattern including a first number of one or more sub-patterns for an imaging correction until a predetermined condition is satisfied, and upon the predetermined condition being satisfied, form a second imaging correction pattern including a second number of sub-patterns more than the first number for a subsequent imaging correction.

Abstract: An image forming apparatus includes an image forming unit configured to form an image on an image carrier using a developer, an image sensor configured to detect the image formed on the image carrier, and a correction controller configured to control the image forming unit to form an imaging correction pattern, and perform an imaging correction using a detection result of the image sensor detecting the image correction pattern. The correction controller is configured to control the image forming unit to form a first imaging correction pattern including a first number of one or more sub-patterns for an imaging correction until a predetermined condition is satisfied, and upon the predetermined condition being satisfied, form a second imaging correction pattern including a second number of sub-patterns more than the first number for a subsequent imaging correction.

Abstract: An image forming apparatus includes a printer, a sensor, and a processor. The printer forms an image with image forming material of colors on a medium. The sensor detects the image forming material of each color on the medium. The processor forms a pattern with the image forming material of the colors on the medium using the printer, acquires a position of a pattern of each color using the sensor, and after executing correction for bringing positions where images of the other colors are formed close to a position where an image of a reference color is formed based on the position of each pattern, corrects a position where either an image of a first color or an image of a second color is formed by the printer based on a distance between patterns of the first color and second color furthest away from each other.

Abstract: An image forming apparatus includes a printer, a sensor, and a processor. The printer forms an image with image forming material of colors on a medium. The sensor detects the image forming material of each color on the medium. The processor forms a pattern with the image forming material of the colors on the medium using the printer, acquires a position of a pattern of each color using the sensor, and after executing correction for bringing positions where images of the other colors are formed close to a position where an image of a reference color is formed based on the position of each pattern, corrects a position where either an image of a first color or an image of a second color is formed by the printer based on a distance between patterns of the first color and second color furthest away from each other.

Abstract: A gear machining method includes a first intersection angle setting step of setting a first intersection angle with a rotation axis of a workpiece during machining of a second tooth flank, a first rotational direction setting step of setting a rotational direction of the workpiece and a rotational direction of a machining tool during machining of the second tooth flank to a same rotational direction, and a second rotational direction setting step of setting a rotational direction of the workpiece and a rotational direction of the machining tool during machining of a fourth tooth flank to a same rotational direction that is opposite to the rotational direction during machining of the second tooth flank.

Abstract: An image forming apparatus includes a laser device, a sensor, and a control unit. The laser device emits laser light which is reference for image forming. The sensor detects the laser light emitted from the laser device. The control unit changes an output direction of the laser light emitted from the laser device if the laser light is not detected by the sensor .

Abstract: An image forming apparatus includes a laser device, a sensor, and a control unit. The laser device emits laser light which is reference for image forming. The sensor detects the laser light emitted from the laser device. The control unit changes an output direction of the laser light emitted from the laser device if the laser light is not detected by the sensor.

Abstract: In accordance with an embodiment, an image processing apparatus comprises a sensor and a controller. The sensor detects a laser light reflected from a polygon mirror having a plurality of reflection surfaces. The controller determines whether to execute a position alignment control based on a detected detection interval of the laser light to execute the position alignment control in response to a result of the determination.