Abstract: A fiber-reinforced resin molding material molded product includes a fiber-reinforced resin molding material prepared by impregnating chopped fiber bundles obtained by cutting a reinforcing fiber bundle with a matrix resin, wherein in a region excluding 30 mm from an edge of the molded product, when an arbitrary rectangular region having an area of 40 mm2 or more and defined by a thickness of the molded product and a width in a direction perpendicular to a thickness direction of the molded product is set in a cross section in an arbitrary thickness direction of the molded product, with respect to a bundle thickness of the chopped fiber bundles present in the set rectangular region.

Abstract: A fiber-reinforced resin molding material is obtained by impregnating a chopped fiber bundle with a matrix resin, has a layered structure including three or more layers in a thickness direction thereof, and satisfies the relationships Lao>Lam and Wao>Wam, where Lao and Wao represent the number average fiber length and the number average fiber bundle width, respectively, of the chopped fiber bundle in the outermost layer thereof, and Lam and Wam represent the number average fiber length and the number average fiber bundle width, respectively, of the chopped fiber bundle in a middle layer thereof.

Abstract: A jointed strand includes a superposed portion in which a first strand end in which fibers are oriented in one direction and a second strand end in which fibers are oriented in one direction are superposed; and a joint portion in which fibers of the first strand and the second strand are interlaced at the superposed portion, wherein the joint portion has a slit extending in a fiber orientation direction and a joint spot adjacent to the slit at one location or a plurality of locations aligned in a direction orthogonal to the fiber orientation direction, and monofilaments of the first strand and the second strand are interlaced at the joint spot.

Abstract: A reinforcing-fiber composite material includes not less than 20 wt % but less than 70 wt % of discontinuous reinforcing fibers, and a matrix resin, wherein at least a portion of the discontinuous reinforcing fibers forms a fiber aggregation, and at least one bundle of the fiber aggregation has a surface that, when projected onto a two-dimensional plane, has at least one region where the number of monofilaments constituting the aggregation is reduced, at opposite ends in a longitudinal direction of a minimum circumscribed rectangle of the projected surface, and at portions other than the opposite ends.

Abstract: A fiber-reinforced resin molding material molded product includes a fiber-reinforced resin molding material prepared by impregnating chopped fiber bundles obtained by cutting a reinforcing fiber bundle with a matrix resin, wherein in a region excluding 30 mm from an edge of the molded product, when an arbitrary rectangular region having an area of 40 mm2 or more and defined by a thickness of the molded product and a width in a direction perpendicular to a thickness direction of the molded product is set in a cross section in an arbitrary thickness direction of the molded product, with respect to a bundle thickness of the chopped fiber bundles present in the set rectangular region.

Abstract: A fiber-reinforced resin molding material is obtained by impregnating a chopped fiber bundle with a matrix resin, has a layered structure including three or more layers in a thickness direction thereof, and satisfies the relationships Lao>Lam and Wao>Wam, where Lao and Wao represent the number average fiber length and the number average fiber bundle width, respectively, of the chopped fiber bundle in the outermost layer thereof, and Lam and Wam represent the number average fiber length and the number average fiber bundle width, respectively, of the chopped fiber bundle in a middle layer thereof.

Abstract: A fiber-reinforced resin molding material [C] includes a chopped fiber bundle [A] and a matrix resin [B], the material being characterized in that, when divided into n layers along the thickness direction of the fiber-reinforced resin molding material [C], the number-average fiber length [Lk] of the chopped fiber bundle [Ak] constituting each layer Fk (1?k?n) gradually increases from one outermost layer F1 of the fiber-reinforced resin molding material [C] toward the other outermost layer Fn. Also provided is a molded article obtained by molding the fiber-reinforced resin molding material. This fiber-reinforced resin molding material exhibits excellent flowability, and can exhibit excellent mechanical properties when made into a molded article.

Abstract: A three-dimensional shaping apparatus includes: a shaping chamber configured to hold powder; a leveler configured to move from a first position to a second position in a first direction on a top surface of the powder held in the shaping chamber to flatten the top surface of the powder; an ejector configured to eject a shaping liquid to the flattened top surface of the powder held in the shaping chamber; and a suction mechanism including a suction inlet arranged close to the second position of the shaping chamber.

Abstract: A three-dimensional fabrication apparatus includes a fabrication chamber, a supply chamber, a flattening unit, and a powder collector. The powder collector is disposed forward from the flattening unit in a transfer direction of the flattening unit. The powder collector is movable with movement of the flattening unit. The powder collector includes a body container, a collection port, and a discharge port. When the flattening unit transfers and supplies powder, the powder collector collects a portion of the powder from the collection port and contains the portion of the powder in the body container. When the flattening unit returns to the supply chamber, the powder collector discharges and supplies the powder from the body container to the supply chamber through the discharge port.

Abstract: A recording system, includes a recording apparatus configured to perform recording using a recording head having a plurality of recording elements; and an information processing apparatus configured to send a print job to the recording apparatus to shift a range of use of the recording elements in an array direction of the recording elements. The information processing apparatus includes a head shading correction unit configured to execute, based on information indicating that the range of use of the recording elements is one of plural ranges of use, head shading correction corresponding to the one range on image data; and a sending unit configured to send the image data subjected to the head shading correction to the recording apparatus. The recording apparatus includes a recording control unit configured to control the recording head to perform recording at the one range by using the image data subjected to the head shading correction.

Abstract: A three-dimensional shaping apparatus includes: a shaping chamber configured to hold powder; a leveler configured to move from a first position to a second position in a first direction on a top surface of the powder held in the shaping chamber to flatten the top surface of the powder; an ejector configured to eject a shaping liquid to the flattened top surface of the powder held in the shaping chamber; and a suction mechanism including a suction inlet arranged close to the second position of the shaping chamber.

Abstract: A three-dimensional fabrication apparatus includes a fabrication chamber, a supply chamber, a flattening unit, and a powder collector. The powder collector is disposed forward from the flattening unit in a transfer direction of the flattening unit. The powder collector is movable with movement of the flattening unit. The powder collector includes a body container, a collection port, and a discharge port. When the flattening unit transfers and supplies powder, the powder collector collects a portion of the powder from the collection port and contains the portion of the powder in the body container. When the flattening unit returns to the supply chamber, the powder collector discharges and supplies the powder from the body container to the supply chamber through the discharge port.

Abstract: An image forming apparatus includes: a droplet discharging head that includes nozzle rows; a light emitting unit that irradiates a droplet with laser light emitted in a direction intersecting a discharging direction of the droplet; a light-receiving unit that receives scattered light scattered when the droplet is irradiated by the laser light and outputs a signal corresponding to an amount of the scattered light; and a droplet discharge detecting unit that detects a droplet discharging status of the nozzles based on the signal. The laser light is emitted with an optical axis shifted from middle between two adjacent nozzle rows; and the droplet discharge detecting unit selects two nozzles adjacent in a direction intersecting the nozzle rows as detection target nozzles, and detects the droplet discharging status of the detection target nozzles based on the scattered light scattered when droplets are simultaneously discharged from the detection target nozzles.

Abstract: A recording system, including: a recording apparatus configured to perform recording using a recording head having a plurality of recording elements; and an information processing apparatus configured to send a print job to the recording apparatus to shift a range of use of the recording elements in an array direction of the recording elements, the information processing apparatus including: a head shading correction unit configured to execute, based on information indicating that the range of use of the recording elements is one of ranges of use, head shading correction corresponding to the one range on image data; and a sending unit configured to send the image data subjected to the head shading correction to the recording apparatus, the recording apparatus including a recording control unit configured to control the recording head to perform recording at the one range by using the image data subjected to the head shading correction.

Abstract: An image forming apparatus includes: a droplet discharging head that includes nozzle rows; a light emitting unit that irradiates a droplet with laser light emitted in a direction intersecting a discharging direction of the droplet; a light-receiving unit that receives scattered light scattered when the droplet is irradiated by the laser light and outputs a signal corresponding to an amount of the scattered light; and a droplet discharge detecting unit that detects a droplet discharging status of the nozzles based on the signal. The laser light is emitted with an optical axis shifted from middle between two adjacent nozzle rows; and the droplet discharge detecting unit selects two nozzles adjacent in a direction intersecting the nozzle rows as detection target nozzles, and detects the droplet discharging status of the detection target nozzles based on the scattered light scattered when droplets are simultaneously discharged from the detection target nozzles.

Abstract: This invention provides an image processing method and image processing apparatus, which allow the user to select an image for which an amount of printing material applied to a printing medium is to be reduced. To an object selected on a selection window, a CPU applies image processing for reducing a printing material to data of an internal part of the selected object except for its contour using a program of a printer driver. Then, this invention can provide an image processing method and image processing apparatus, which are convenient for the user.

Abstract: To provide a control method and a control program of a prober that are capable of enhancing throughput. Chips are tested in step S2. In step S3, when the counted number Y of conforming chips has reached a predetermined number of conforming chips X which constitutes conditions for testing, the process advances to step S10. In step S10, testing of wafers taking place at that time is interrupted, and this wafer is stored in an output cassette OC1. In a subsequent step S11, the subsequent wafer is tested, and stored in the output cassette OC2 (step S12). When all wafers have been tested, the process advances to step S14, and testing of the lot is completed. As a result, wafers that remain untested and wafers that have been tested stored separately in the input cassette and the output cassettes.

Abstract: To provide a control method and a control program of a prober that are capable of enhancing throughput. Chips are tested in step S2. In step S3, when the counted number Y of conforming chips has reached a predetermined number of conforming chips X which constitutes conditions for testing, the process advances to step S10. In step S10, testing of wafers taking place at that time is interrupted, and this wafer is stored in an output cassette OC1. In a subsequent step S11, the subsequent wafer is tested, and stored in the output cassette OC2 (step S12). When all wafers have been tested, the process advances to step S14, and testing of the lot is completed. As a result, wafers that remain untested and wafers that have been tested stored separately in the input cassette and the output cassettes.

Abstract: A probe needle having a coaxial structure that facilitates assembly of a probe card. The probe needle is manufactured by covering a central conductive body with an insulative tube, and forming a conductive layer around the insulative tube by superimposing a film of fine conductive grains around the insulative tube.

Abstract: An object of this invention is to provide a band distribution inspecting device and band distribution inspecting method capable of carrying out inspection on whether or not a scattered oscillation signal oscillated containing a frequency variation from the fundamental frequency with the fundamental frequency as a reference point has a band distribution rapidly, with a simple way and at a cheap price. A scattered oscillation signal SSS inputted to a band distribution detecting section 22 is outputted as a predetermined band pass signal SBP through a band pass filter 17 having a predetermined pass band of a predetermined narrow-band width ?f within a band distribution. This signal is converted to a root-mean-square value by a smoother 19, smoothed by a capacitor C1 and transferred to a general purpose inspecting device 21 as a DC signal SAV.