Abstract: A control device that executes a local dimming process of a display, the control device, includes a memory; and a processor configured to execute a process including identifying a changed area in which an image is changed in a frame to be displayed on the display, analyzing, in a case where the changed area is identified, every time a frame to be displayed on the display is received, the image in the changed area in the received frame, in a corresponding one of first units for processing so that the image in the changed area is analyzed in the first units for processing over multiple frames by time division processing, and generating control information for controlling the local dimming process for a corresponding area on the display, every time an analysis result with respect to the image in the first unit of processing is output.

Abstract: An image processing device includes a memory that stores a program and a processor that executes the program stored in the memory to perform a process. The process includes obtaining input image data that is generated by combining, in a horizontal direction, an effective display area of first image data and an effective display area obtained by expanding an effective display area of second image data in the vertical direction, the vertical size of the second image data being smaller than the vertical size of the first image data; and generating second output image data corresponding to the second image data by reducing the vertical size of second intermediate image data among first intermediate image data and the second intermediate image data, which are obtained by dividing the input image data in the horizontal direction, based on the vertical size of the effective display area of the second image data.

Abstract: A control device that executes a local dimming process of a display, the control device, includes a memory; and a processor configured to execute a process including identifying a changed area in which an image is changed in a frame to be displayed on the display, analyzing, in a case where the changed area is identified, every time a frame to be displayed on the display is received, the image in the changed area in the received frame, in a corresponding one of first units for processing so that the image in the changed area is analyzed in the first units for processing over multiple frames by time division processing, and generating control information for controlling the local dimming process for a corresponding area on the display, every time an analysis result with respect to the image in the first unit of processing is output.

Abstract: An image processing device includes a memory that stores a program and a processor that executes the program stored in the memory to perform a process. The process includes obtaining input image data that is generated by combining, in a horizontal direction, an effective display area of first image data and an effective display area obtained by expanding an effective display area of second image data in the vertical direction, the vertical size of the second image data being smaller than the vertical size of the first image data; and generating second output image data corresponding to the second image data by reducing the vertical size of second intermediate image data among first intermediate image data and the second intermediate image data, which are obtained by dividing the input image data in the horizontal direction, based on the vertical size of the effective display area of the second image data.

Abstract: A pressure sensor includes a pressure sensor element, a joint provided to a target member, and an attachment member that is fitted into the joint through the connection section and connected to the target member. Each of the pressure sensor element and the joint is formed of a material that is not embrittled upon being in contact with a fluid to be measured that embrittles a material, and more rigid than the attachment member. The connection section is subjected to a plastic deformation connection (metal flow). An expensive hydrogen embrittlement resistant material is used for the pressure sensor element and the joint that are brought into contact with the fluid to be measured, and an inexpensive material is used for the attachment member that is not brought into contact with the fluid to be measured, thereby reducing the production cost of the pressure sensor.

Abstract: A manufacturing method of a pressure sensor, in which the pressure sensor includes: a metal joint having an introduction hole configured to flow a measurement target fluid therethrough; and a sensor module metal member including: a cylindrical portion provided to the joint; a diaphragm; and a dent configured to receive the measurement target fluid from the introduction hole, includes: welding the joint to the sensor module metal member; and subsequently, heating the joint and the sensor module metal member.

Abstract: A device includes: a sensor module; a housing that houses the sensor module; a connector provided to the housing; a terminal provided to the connector; and an elastic electrically conductive member provided in a space between the sensor module and the connector and interposed between the terminal and a pad. The sensor module includes: a ceramic module body including a diaphragm and a cylindrical portion integral with a periphery of the diaphragm; a detector provided on a flat surface of the diaphragm; and the pad and an electronic component provided on a flat surface of the cylindrical portion radially outwardly adjacent to the flat surface of the diaphragm. The pad is electrically connected to the electrically conductive member.

Abstract: For producing a three-dimensional circuit component, an electronic component is mounted on a synthetic resin block. A plurality of electrically-conductive patterns used to establish an electrical connection to the electronic component are formed on the block along a three-dimensional shape of the block. An end of each electrically-conductive patterns is provided with a solder-disposed section. A solder is provided between the solder-disposed section and an opposed surface of the electronic component. The section of each electrically-conductive patterns other than the solder-disposed section and a section on which the electronic component is mounted is internally formed in the block. Since the section of each electrically-conductive patterns other than the section on which the electronic component is mounted is internally formed in the block, the electrically-conductive patterns are not unnecessarily exposed.

Abstract: A pressure sensor includes a pressure sensor element, a joint provided to a target member, and an attachment member that is fitted into the joint through the connection section and connected to the target member. Each of the pressure sensor element and the joint is formed of a material that is not embrittled upon being in contact with a fluid to be measured that embrittles a material, and more rigid than the attachment member. The connection section is subjected to a plastic deformation connection (metal flow). An expensive hydrogen embrittlement resistant material is used for the pressure sensor element and the joint that are brought into contact with the fluid to be measured, and an inexpensive material is used for the attachment member that is not brought into contact with the fluid to be measured, thereby reducing the production cost of the pressure sensor.

Abstract: A device includes: a sensor module; a housing that houses the sensor module; a connector provided to the housing; a terminal provided to the connector; and an elastic electrically conductive member provided in a space between the sensor module and the connector and interposed between the terminal and a pad. The sensor module includes: a ceramic module body including a diaphragm and a cylindrical portion integral with a periphery of the diaphragm; a detector provided on a flat surface of the diaphragm; and the pad and an electronic component provided on a flat surface of the cylindrical portion radially outwardly adjacent to the flat surface of the diaphragm. The pad is electrically connected to the electrically conductive member.

Abstract: There is provided a demodulation device including: a first noise elimination circuit eliminating a noise in an output signal of IQ coordinates from a demodulation unit demodulating an input signal, in which the first noise elimination circuit includes: a first subtracter subtracting a first noise replica signal from the signal of the IQ coordinates that is output from the demodulation unit; an error information generation unit calculating error information of an output signal of the first subtracter to an ideal signal point of the IQ coordinates; a first frequency detection unit detecting a frequency of the noise based on the error information; and a first amplitude adjusting unit adjusting an amplitude of the first noise replica signal based on the error information and the frequency of the noise detected in the first frequency detection unit to output the first noise replica signal to the first subtracter.

Abstract: For producing a three-dimensional circuit component, an electronic component is mounted on a synthetic resin block. A plurality of electrically-conductive patterns used to establish an electrical connection to the electronic component are formed on the block along a three-dimensional shape of the block. An end of each electrically-conductive patterns is provided with a solder-disposed section. A solder is provided between the solder-disposed section and an opposed surface of the electronic component. The section of each electrically-conductive patterns other than the solder-disposed section and a section on which the electronic component is mounted is internally formed in the block. Since the section of each electrically-conductive patterns other than the section on which the electronic component is mounted is internally formed in the block, the electrically-conductive patterns are not unnecessarily exposed.

Abstract: There is provided a demodulation device including: a demodulation unit demodulating an input signal to thereby output a signal of IQ coordinates; and a first noise elimination circuit eliminating a noise in the signal of the IQ coordinates that is output from the demodulation unit, in which the first noise elimination circuit includes: a first subtracter subtracting a first noise replica signal from the signal of the IQ coordinates that is output from the demodulation unit; an error information generation unit calculating error information of an output signal of the first subtracter to an ideal signal point of the IQ coordinates; a first frequency detection unit detecting a frequency of the noise based on the error information; and a first amplitude adjusting unit adjusting an amplitude of the first noise replica signal based on the error information and the frequency of the noise detected in the first frequency detection unit to output the first noise replica signal to the first subtracter.

Abstract: The invention is directed to a technique for realtime processing of photographed pictures with less memory requirements. An image compressor compresses unit images, and so on of a given source picture individually. By converting reference data of compressed unit images and so on, the image compressor creates compressed data of the source picture. From the image compressor, a reference parameter generator receives original reference data corresponding to each unit image and so on having undergone the reference data conversion. An image decompressor retrieves a plurality of compressed unit images, and so on in an order suitable for a specified image editing operation. The image processor outputs the decompressed unit images after editing them to effect the specified image editing operation.

Abstract: The invention is directed to a technique for realtime processing of photographed pictures with less memory requirements. An image compressor compresses unit images, and so on of a given source picture individually. By converting reference data of compressed unit images and so on, the image compressor creates compressed data of the source picture. From the image compressor, a reference parameter generator receives original reference data corresponding to each unit image and so on having undergone the reference data conversion. An image decompressor retrieves a plurality of compressed unit images, and so on in an order suitable for a specified image editing operation. The image processor outputs the decompressed unit images after editing them to effect the specified image editing operation.