Abstract: A resin composition is provided containing a polymer having a structural unit represented by the following Formula (1) in the molecule, and an inorganic filler, in which the inorganic filler contains silica in which a ratio of a number of Si atoms contained in silanol groups to a total number of Si atoms is 3% or less. In Formula (1), Z represents an arylene group, R1 to R3 each independently represent a hydrogen atom or an alkyl group, and R4 to R6 each independently represent a hydrogen atom or an alkyl group having 1 to 6 carbon atoms.

Abstract: A display device includes: a display that generates image display light; a concave mirror that reflects the image display light such that the image display light is projected onto a transparent member; and a drive mechanism that moves the display in a range in which a distance from the concave mirror to the display is smaller than or equal to a reference distance at which the image display light traveling from the concave mirror to the transparent member becomes parallel light.

Abstract: A robot controller that controls a robot by automatically obtaining a controller capable of suitably controlling a wide range of robots. An image is acquired from an image capturing apparatus that photographs an environment including the robot. The robot is driven based on an output result obtained by inputting the image to a neural network. The neural network is updated according to a reward generated in a case where a plurality of virtual images photographed while changing an environmental condition of a virtual environment generated by virtualizing the environment and a state of a virtual robot are input to the neural network, and a policy of the virtual robot, which is output from the neural network, satisfies a predetermined condition.

Abstract: There is provided a heat treatment apparatus for performing a predetermined film forming process on a substrate by mounting the substrate on a surface of a rotary table installed in a processing vessel and heating the substrate by a heating part while rotating the rotary table. The heat treatment apparatus includes: a first temperature measuring part of a contact-type configured to measure a temperature of the heating part; a second temperature measuring part of a non-contact type configured to measure a temperature of the substrate mounted on the rotary table in a state where the rotary table is being rotated; and a temperature control part configured to control the heating part based on a first measurement value measured by the first temperature measuring part and a second measurement value measured by the second temperature measuring part.

Abstract: A display device includes: a display that generates image display light; a concave mirror that reflects the image display light such that the image display light is projected onto a transparent member; and a drive mechanism that moves the display in a range in which a distance from the concave mirror to the display is smaller than or equal to a reference distance at which the image display light traveling from the concave mirror to the transparent member becomes parallel light.

Abstract: A substrate processing apparatus includes: a rotary table provided in a processing container; a stage provided on the rotary table to place a substrate thereon, and configured to revolve by a rotation of the rotary table; a heater configured to heat the substrate placed on the stage; and a rotation shaft configured to rotate together with the rotary table and support the stage to be rotatable; and a deflector configured to deflect heating light emitted from the heater toward the rotation shaft.

Abstract: A light output apparatus for vehicle according to an embodiment includes a transmission member disposed on an outer-surface side of a vehicle, the transmission member being adapted to let visible light pass therethrough, and to receive ultraviolet light and emit light by itself. The apparatus scans a visible light laser and an ultraviolet light laser, and projects the visible light laser and the ultraviolet light laser onto the transmission member. The apparatus performs control, based on vehicle information about the vehicle, to show first information by projecting the ultraviolet light laser onto the transmission member and thereby making the transmission member emit light, and to project the visible light laser onto the transmission member and thereby project second information onto a surface which the visible light laser reaches after passing through the transmission member.

Abstract: A vehicle display device includes a display configured to display a video; a first mirror configured to reflect the video displayed in the display; and a second mirror configured to reflect the video reflected on the first mirror, wherein a distance from eye point of occupant of vehicle to a reflecting image formed by the second mirror is optically extended such that it becomes longer than a distance from the eye point of the occupant to a display surface of the display.

Abstract: A robot controller that controls a robot by automatically obtaining a controller capable of suitably controlling a wide range of robots. An image is acquired from an image capturing apparatus that photographs an environment including the robot. The robot is driven based on an output result obtained by inputting the image to a neural network. The neural network is updated according to a reward generated in a case where a plurality of virtual images photographed while changing an environmental condition of a virtual environment generated by virtualizing the environment and a state of a virtual robot are input to the neural network, and a policy of the virtual robot, which is output from the neural network, satisfies a predetermined condition.

Abstract: A light output apparatus for vehicle according to an embodiment includes a transmission member disposed on an outer-surface side of a vehicle, the transmission member being adapted to let visible light pass therethrough, and to receive ultraviolet light and emit light by itself. The apparatus scans a visible light laser and an ultraviolet light laser, and projects the visible light laser and the ultraviolet light laser onto the transmission member. The apparatus performs control, based on vehicle information about the vehicle, to show first information by projecting the ultraviolet light laser onto the transmission member and thereby making the transmission member emit light, and to project the visible light laser onto the transmission member and thereby project second information onto a surface which the visible light laser reaches after passing through the transmission member.

Abstract: This invention provides a robot control device for controlling a robot configured to perform a predetermined operation, where the robot control device comprises an acquisition unit configured to acquire a plurality of images captured by a plurality of image capturing devices including a first image capturing device and a second image capturing device different from the first image capturing device; and a specification unit configured to use the plurality of captured images acquired by the acquisition unit as inputs to a neural network, and configured to specify a control instruction for the robot based on an output as a result from the neural network.

Abstract: A display apparatus includes: a display surface configured to display an image; and a concave mirror configured to reflect light beams from the display surface toward a transparent member, in which a virtual image of the image is presented by the transparent member. An optical path after a first light beam is reflected in the transparent member coincides with an optical path after a second light beam is reflected in the transparent member by the reflection in the concave mirror, the first light beam reaching the transparent member from one point on the display surface and reflecting on a front surface of the transparent member, and the second light beam reaching the transparent member from the one point and reflecting on a rear surface of the transparent member.

Abstract: There is provided an on-vehicle display controller including a video data acquiring unit configured to acquire captured video data obtained through imaging by an imager that is configured to image surroundings of a vehicle, a detecting unit configured to detect at least one following vehicle in the captured video data, an identifying unit configured to identify a lower part of the following vehicle detected by the detecting unit, a display video data generating unit configured to set a clipping area of the captured video data so as to include the lower part of the following vehicle identified by the identifying unit, and generate display video data by performing clipping the clipping area from the captured video data, and a display controller configured to cause a display used in the vehicle to display the display video data generated by the display video data generating unit.

Abstract: When the protruding length of a cutting blade 11 protruding below a lower surface of a base 2 of a portable machining device 1 is set to its maximum length, at least a part of a controller 31 for controlling an electric motor 12 is configured to be located behind a handle 14 in the front-to-rear direction. Furthermore, the controller 31 is disposed so as to be tilted in the left-to-right direction or in the up-to-down direction with respect to the cutting blade 11. Because of this configuration, the height of the handle 14 can be restricted and at the same time the controller 31 can be disposed in a compact manner.

Abstract: A vehicle display device includes a display configured to display a video; a first mirror configured to reflect the video displayed in the display; and a second mirror configured to reflect the video reflected on the first mirror, wherein a distance from eye point of occupant of vehicle to a reflecting image formed by the second mirror is optically extended such that it becomes longer than a distance from the eye point of the occupant to a display surface of the display.

Abstract: The purpose of the present invention is to provide a method and kit for highly precise DNA typing, in which a high throughput sequencer is used and ambiguity derived from phase ambiguity is eliminated. The present invention provides a method for the DNA typing of HLA, which is characterized by comprising: (1) a step of preparing sets of primers which respectively hybridize specifically to an upstream region and a downstream region of at least 2 genes selected from genes belonging to HLA class I and HLA class II in a human genome sequence, and are capable of amplifying under the same PCR conditions; (2) a step of simultaneously amplifying said at least 2 genes in a test sample (DNA) using the sets of primers in a single container under the same PCR conditions; (3) a step of determining the nucleotide sequences of PCR amplified products; and (4) a step of optionally carrying out a homology search within a database.

Abstract: A vehicular display control device includes a video acquiring unit configured to acquire video data captured by a rear camera configured to capture a rear view of a vehicle, a frequency detecting unit configured to detect a frequency of a driver's action in the vehicle for changing a range of view with respect to a display installed in front of the driver, a video data generating unit configured to clip, when the frequency of the driver's action detected by the frequency detecting unit becomes high, a clipping range in the captured video data acquired by the video acquiring unit wider than a clipping range before the frequency of the driver's action becomes high to generate video data for a predetermined time, and a display controller configured to cause a display installed in front of the driver to display the video data generated by the video data generating unit.

Abstract: The purpose of the present invention is to provide a method and kit for highly precise DNA typing, in which ambiguity derived from phase ambiguity is eliminated. The present invention provides a method for the DNA typing of HLA, which is characterized by comprising: (1) a step of preparing a set of primers which can respectively anneal specifically to an upstream region and a downstream region of each of HLA-A, HLA-B, HLA-C, HLA-DQA1, HLA-DQB1, HLA-DPA1 and HLA-DPB1 gene in the nucleotide sequence for the human genome, and a set of primers which can respectively anneal specifically to exon-2 and a 3?-side non-translated region in HLA-DRB1; (2) a step of carrying out the PCR amplification of a sample to be tested (DNA) using the sets of primers; (3) a step of determining the nucleotide sequence for a PCR-amplified product; and (4) an optional step of carrying out the homology search in a data base.