Abstract: To provide an image analyzing technology capable of obtaining an image with less shading and with enough speckle contrast. An imaging apparatus includes: a light source that irradiates an imaging object with coherent light with a first irradiation condition and a second irradiation condition; a speckle imaging unit that captures a first speckle image obtained from scattered light of the imaging object irradiate at the first irradiation condition, and a second speckle image obtained from scattered light of the imaging object irradiate at the second irradiation condition; and an information processing unit that separates speckle images at boundaries of average luminance difference formed in the first speckle image and the second speckle image, connecting the separaged speckle images at the boundaries, and analyzes the combined speckle combined image.

Abstract: Provided is an imaging technique capable of detecting a focus even in an imaging apparatus of a speckle image. The imaging apparatus includes a coherent light source that irradiates an imaging object with coherent light, an incoherent light source that irradiates the imaging object with incoherent light, a speckle imaging unit that captures a speckle image obtained from scattered light of the imaging object irradiated with the coherent light, a non-speckle imaging unit that captures a non-speckle image obtained from reflected light of the imaging object irradiated with the incoherent light, and a focus detection unit that detects a focus of the speckle imaging unit on the basis of a focal position of the non-speckle imaging unit.

Abstract: A control device according to an embodiment of the present technology includes an acquisition section, a block control section, and a calculator. The acquisition section acquires an image signal of a tissue of a living body irradiated with laser light and on which image-capturing has been performed. The block control section controls a size of a pixel block according to an image-capturing condition for the image-capturing on the tissue of a living body. The calculator calculates speckle data based on the acquired image signal, using the pixel block of which the size is controlled.

Abstract: A control apparatus according to an aspect of the present technology includes a signal generation section. The signal generation section generates speckle data on the basis of an image signal of a subject imaged by using laser light as illumination, and generates a control signal for controlling output from a laser light source that emits the laser light on the basis of the generated speckle data.

Abstract: An on-board network system includes: communication lines; a plurality of nodes, each of the nodes being directly and physically connected to at least one of the other nodes by the communication lines, the nodes including loop nodes physically connected to a loop by the communication lines, the nodes constituting a first logical network in which the nodes are connected with each other via one route through the communication lines; a communication disruption detecting unit configured to detect disruption of communications via the communication lines; a network reconstruction unit configured to reconstruct a second logical network when the disruption of communications is detected by the communication disruption detecting unit, the second logical network not including a communication line that causes the disruption; and a delivery unit configured to deliver the information of the second logical network to the nodes.

Abstract: According to the invention, immunogenicity of an antigenic peptide is increased by administering a fusion protein, which comprises an antigenic peptide and an adjuvant protein, wherein the adjuvant protein comprises two or more proteins selected from the group consisting of a Shiga toxin 2e B subunit (Stx2eB), an Escherichia coli heat-labile toxin B subunit (LTB), and a cholera toxin B subunit (CTB). or a transformant transformed by a gene coding for the fusion protein.

Abstract: Provided according to the present invention is a solenoid with a built-in permanent magnet, with which it is possible to suppress an increase in the amount of magnetic flux that passes through the chuck part, even when the magnetic flux generated by a coil is greater than the magnetic flux of the magnet, and to reliably reduce attraction force. In this solenoid, a permanent magnet and a coil are both built into a cylindrical case having an opening part; the permanent magnet and the coil are both separated and arranged inside the case; a ring member is arranged adjacent to the permanent magnet; a movable iron core is inserted inside the coil; and between the movable iron core and the coil, a metal coil cover is provided so as to cover the coil. The distance d between the case inner wall and the ring member can also be in the range of 0.1-0.3 mm.

Abstract: According to the invention, immunogenicity of an antigenic peptide is increased by administering a fusion protein, which comprises an antigenic peptide and an adjuvant protein, wherein the adjuvant protein comprises two or more proteins selected from the group consisting of a Shiga toxin 2e B subunit (Stx2eB), an Escherichia coli heat-labile toxin B subunit (LTB), and a cholera toxin B subunit (CTB). or a transformant transformed by a gene coding for the fusion protein.

Abstract: The imaging apparatus includes a coherent light source that irradiates an imaging object with coherent light, an incoherent light source that irradiates the imaging object with incoherent light, a speckle imaging unit that captures a speckle image obtained from scattered light of the imaging object irradiated with the coherent light, a non-speckle imaging unit that captures a non-speckle image obtained from reflected light of the imaging object irradiated with the incoherent light, and a focus detection unit that detects a focus of the speckle imaging unit on the basis of a focal position of the non-speckle imaging unit.

Abstract: According to the invention, immunogenicity of an antigenic peptide is increased by administering a fusion protein, which comprises an antigenic peptide and an adjuvant protein, wherein the adjuvant protein comprises two or more proteins selected from the group consisting of a Shiga toxin 2e B subunit (Stx2eB), an Escherichia coli heat-labile toxin B subunit (LTB), and a cholera toxin B subunit (CTB). or a transformant transformed by a gene coding for the fusion protein.

Abstract: The present invention provides an agent for controlling colibacillosis including a fusion protein comprising a subunit of Shiga toxin and a subunit of Escherichia coli heat-labile toxin.

Abstract: The present invention provides an agent for controlling Escherichia coli diarrhea comprising a Shiga toxin as an active ingredient.

Abstract: An on-board network system includes: communication lines; a plurality of nodes, each of the nodes being directly and physically connected to at least one of the other nodes by the communication lines, the nodes including loop nodes physically connected to a loop by the communication lines, the nodes constituting a first logical network in which the nodes are connected with each other via one route through the communication lines; a communication disruption detecting unit configured to detect disruption of communications via the communication lines; a network reconstruction unit configured to reconstruct a second logical network when the disruption of communications is detected by the communication disruption detecting unit, the second logical network not including a communication line that causes the disruption; and a delivery unit configured to deliver the information of the second logical network to the nodes.

Abstract: An object of the present invention is to optimize, and to increase the accumulation amount of, GP5 antigen, in order to enhance the performance of a PRRS vaccine. The present invention provides a fusion protein comprising an ectodomain (ectGP5) of Glycoprotein 5 (GP5) of porcine reproductive and respiratory syndrome (PRRS) virus, and an adjuvant protein.

Abstract: The present invention provides an agent for controlling Escherichia coli diarrhea comprising a Shiga toxin as an active ingredient.

Abstract: A powder transfer mechanism laminates powder layers containing water-soluble powder as a main component one by one at a modeling portion. An inkjet line head injects a water-based ink that dissolves the powder in an area of an uppermost layer of the powder layers laminated by the powder transfer mechanism, the area corresponding to a cross-sectional shape of a modeled object. Then, a heater heats the powder for each layer of the powder layers. Further, the heater heats the powder after the water-based ink is injected by the inkjet line head or before the water-based ink is injected by the inkjet line head. The present invention can be applied to a modeling apparatus, for example.

Abstract: According to an aspect of the invention, a wiring board includes an inorganic insulating layer and a conductive layer disposed on part of one main surface of the inorganic insulating layer. The part of the one main surface of the inorganic insulating layer includes a plurality of first recessed portions each of which has at least partially circular shape in a plan view. Part of the conductive layer enters into the plurality of first recessed portions. According to the aspect of the invention, it is possible to obtain a wiring board capable of reducing disconnection of the conductive layer and therefore having superior electrical reliability.

Abstract: The present invention provides an agent for controlling colibacillosis including a fusion protein comprising a subunit of Shiga toxin and a subunit of Escherichia coli heat-labile toxin.

Abstract: There is provided a method of manufacturing a structural object, including using rapid prototyping technology, forming a structure body from a powder material whose main component is a water-soluble compound. The formed structure body is impregnated with an adhesive that provides adhesive function upon reaction with moisture contained in the structure body.

Abstract: There is provided a scanning unit including a first base provided with a scanning mechanism at least having a laser light source that emits laser light of a predetermined wavelength and a scanner that scans a scanned body by using the laser light, a second base that is located at a surface of the first base opposite a surface thereof provided with the scanning mechanism and that is thermally separated from the first base; and a temperature adjustment mechanism that is provided between the first base and the second base and that adjusts a temperature of the scanning mechanism.