Abstract: A data processing device includes a data selector circuit that divides a plurality of types of data into another plurality of types of data in accordance with a classification of the data, a plurality of compression circuits that respectively compress the plurality of types of data in parallel with each other in accordance with each of the plurality of types of data, and a data transmission circuit that transmits the plurality of types of compressed data to a terminal.

Abstract: Making effective use of an image encoder and an image decoder for processing a color image of a general-purpose standard bit depth, an image transmission device capable of transmitting/receiving a monochrome image of a higher bit depth is configured. An image transmission device includes an image encoder to encode a high bit-depth monochrome image and output encoded data and an image decoder to generate, by decoding the encoded data received via a transmission path, a high bit-depth monochrome image. The image encoder decomposes the input high bit-depth image data into plural bit planes corresponding to color image data of a standard bit depth and encodes the standard bit-depth color image data. The image decoder decodes the color image data of the standard bit depth and synthesizes, from the decoded standard bit-depth color image data, a high bit-depth monochrome image.

Abstract: A data processing device includes a data selector circuit that divides a plurality of types of data into another plurality of types of data in accordance with a classification of the data, a plurality of compression circuits that respectively compress the plurality of types of data in parallel with each other in accordance with each of the plurality of types of data, and a data transmission circuit that transmits the plurality of types of compressed data to a terminal.

Abstract: A data selector circuit divides a group of data including a plurality of types of data into the plurality of types of data. A first compression circuit and a second compression circuit respectively compress the plurality of types of data in parallel with each other in accordance with each of the plurality of types of data. The first compression circuit compresses data and obtains compressed data. The second compression circuit compresses data and obtains compressed data. The data transmission circuit-transmits the compressed data and the compressed data to a terminal.

Abstract: A data selector circuit divides a group of data including a plurality of types of data into the plurality of types of data. A first compression circuit and a second compression circuit respectively compress the plurality of types of data in parallel with each other in accordance with each of the plurality of types of data. The first compression circuit compresses data and obtains compressed data. The second compression circuit compresses data and obtains compressed data. The data transmission circuit-transmits the compressed data and the compressed data to a terminal.

Abstract: Making effective use of an image encoder and an image decoder for processing a color image of a general-purpose standard bit depth, an image transmission device capable of transmitting/receiving a monochrome image of a higher bit depth is configured. An image transmission device includes an image encoder to encode a high bit-depth monochrome image and output encoded data and an image decoder to generate, by decoding the encoded data received via a transmission path, a high bit-depth monochrome image. The image encoder decomposes the input high bit-depth image data into plural bit planes corresponding to color image data of a standard bit depth and encodes the standard bit-depth color image data. The image decoder decodes the color image data of the standard bit depth and synthesizes, from the decoded standard bit-depth color image data, a high bit-depth monochrome image.

Abstract: A data selector circuit divides a group of data including a plurality of types of data into the plurality of types of data. A first compression circuit and a second compression circuit respectively compress the plurality of types of data in parallel with each other in accordance with each of the plurality of types of data. The first compression circuit compresses data and obtains compressed data. The second compression circuit compresses data and obtains compressed data. The data transmission circuit-transmits the compressed data and the compressed data to a terminal.

Abstract: The radar signal processing apparatus according to the present invention comprises a noise distribution measurement system comprising an edge detecting circuit, a noise distribution measuring circuit, a template, and a pattern matching circuit and an adaptive type target detecting circuit.

Abstract: A radar signal processor for use in a pulse radar system. Reception signals are given from a range divide and output circuit to a plurality of integration point variable coherent integrators, each of which is allocated to a different range domain. The range domain is given to an integration point setting section provided corresponding to each integration point variable coherent integrator. The integration point setting section determines the number of coherent integration points based on the given range domain and sets it in the corresponding integration point variable coherent integrator. The signal resulting from coherent integration by the integration point variable coherent integrator is discriminated to frequencies, then supplied to any square detector for square detection for each frequency component. Square detection output is fed into a CFAR detector, which then makes its false alarm rate constant for a supply to a display, etc.