Abstract: An image processing apparatus includes a processor that performs image processing and that is constructed by using a reconfigurable-circuit device whose circuit is reconfigurable. The processor is configured to acquire image data that corresponds to each of one or more small regions into which an image is divided, determine a feature of the image data that is acquired and that corresponds to each of the one or more small regions, select a circuit configuration and perform processing in accordance with the obtained feature of the image data that corresponds to each of the one or more small regions, and cause a repository to retain rendering information, which is the image data that corresponds to each of the one or more small regions and that has undergone the processing.

Abstract: An information processing apparatus includes an integrated circuit that is capable of reconfiguring a logic circuit, that executes data processing, and that is capable of acquiring signal data from an acquisition target position set in a circuit portion where the data processing is performed and outputting the signal data, a change unit that changes the acquisition target position in the circuit portion where the data processing of the integrated circuit is performed in a case where an error is generated in the data processing of the integrated circuit, and a control unit that causes the integrated circuit to re-execute the data processing in which the error is generated, after the acquisition target position is changed.

Abstract: A semiconductor device includes: a detector that detects unauthorized access; and a reconfiguration unit that, in response to detection of the unauthorized access by the detector, reconfigures a reconfiguration area where a circuit that defines an operation was present to a state in which the circuit does not execute an operation based on the circuit.

Abstract: An image processing apparatus includes a processor that performs image processing and that is constructed by using a reconfigurable-circuit device whose circuit is reconfigurable. The processor is configured to acquire image data that corresponds to each of one or more small regions into which an image is divided, determine a feature of the image data that is acquired and that corresponds to each of the one or more small regions, select a circuit configuration and perform processing in accordance with the obtained feature of the image data that corresponds to each of the one or more small regions, and cause a repository to retain rendering information, which is the image data that corresponds to each of the one or more small regions and that has undergone the processing.

Abstract: A data processing device includes a software processing section that performs software processing on data, a hardware processing section that performs hardware processing on data, and a memory that stores data transmitted and received between the software processing section and the hardware processing section and sequentially outputs the stored data to the hardware processing section.

Abstract: Disclosed is a device and method allowing a trace amount of a target substance to be detected. A metallic nanoparticle assembly structure is formed of metallic nanoparticles assembled together and modified with a host molecule allowing the target substance to specifically adhere thereto. A metallic nanorod is modified with a host molecule allowing the target substance to specifically adhere thereto. The metallic nanorod is conjugated to the metallic nanoparticle assembly structure by the target substance. An extinction spectrum of localized surface plasmon resonance or a surface enhanced Raman scattering (SERS) spectrum induced in the metallic nanoparticle assembly structure and the metallic nanostructure is measured with a spectroscope. The target substance is detected based on that spectrum.

Abstract: An electronic apparatus includes the following elements. A circuit forming device forms a circuit configured in accordance with configuration information. A first storage unit stores first configuration information externally obtained via a first communication line. The first configuration information is used for forming a first circuit implementing a function including a first communication function in the circuit forming device. A second storage unit stores second configuration information different from the first configuration information. The second configuration information is used for forming a second circuit implementing a function including the first communication function in the circuit forming device.

Abstract: An electronic apparatus includes the following elements. A circuit forming device forms a circuit configured in accordance with configuration information. A first storage unit stores first configuration information externally obtained via a first communication line. The first configuration information is used for forming a first circuit implementing a function including a first communication function in the circuit forming device. A second storage unit stores second configuration information different from the first configuration information. The second configuration information is used for forming a second circuit implementing a function including the first communication function in the circuit forming device.

Abstract: The present invention is a sensor for detecting a microorganism, which is provided with a detection unit equipped with a detection electrode and a polymer layer, wherein the polymer layer is arranged on the detection electrode and is provided with a template having a three-dimensional structure complementary to a three-dimensional structure of a microorganism to be detected. The sensor detects a microorganism on the basis of the captured state of the microorganism onto the template. The polymer layer is formed by a manufacturing method including a polymerization step of polymerizing a monomer in the presence of the microorganism to be detected to form a polymer layer having the microorganism incorporated therein on the detection electrode, and a disruption step of bringing at least a part of the microorganism incorporated in the polymer layer into contact with a solution containing a lytic enzyme to disrupt the microorganism.

Abstract: The present invention provides a sensor including a detection unit having a detection electrode and a polymer layer that is disposed on the detection electrode and includes a mold having a three-dimensional structure complementary to a steric structure of a microorganism to be detected. The sensor detects the microorganism based on a state of capturing the microorganism in the mold. The polymer layer is formed by a manufacturing method including: a polymerization step of polymerizing a monomer in the presence of the microorganism to be detected, to form the polymer layer having captured the microorganism on the detection electrode; a destruction step of partially destroying the microorganism captured in the polymer layer; and a peroxidation step of peroxidizing the polymer layer to release the microorganism from the polymer layer.

Abstract: The present invention provides a sensor including a detection unit having a detection electrode and a polymer layer that is disposed on the detection electrode and includes a mold having a three-dimensional structure complementary to a steric structure of a microorganism to be detected. The sensor detects the microorganism based on a state of capturing the microorganism in the mold. The polymer layer is formed by a manufacturing method including: a polymerization step of polymerizing a monomer in the presence of the microorganism to be detected, to form the polymer layer having captured the microorganism on the detection electrode; a destruction step of partially destroying the microorganism captured in the polymer layer; and a peroxidation step of peroxidizing the polymer layer to release the microorganism from the polymer layer.

Abstract: Disclosed is a device and method allowing a trace amount of a target substance to be detected. A metallic nanoparticle assembly structure is formed of metallic nanoparticles assembled together and modified with a host molecule allowing the target substance to specifically adhere thereto. A metallic nanorod is modified with a host molecule allowing the target substance to specifically adhere thereto. The metallic nanorod is conjugated to the metallic nanoparticle assembly structure by the target substance. An extinction spectrum of localized surface plasmon resonance or a surface enhanced Raman scattering (SERS) spectrum induced in the metallic nanoparticle assembly structure and the metallic nanostructure is measured with a spectroscope. The target substance is detected based on that spectrum.

Abstract: An image processing apparatus including: an assignment portion that, when a plurality of dynamic reconfigurable processors (DRPs) execute image processes by a pipeline process mode based on a print job, assigns identification numbers identifying the DRPs to the DRPs based on the number of DRPs; a first change portion that changes an assignment process by the assignment portion, based on whether a DRP of a final stage in the DRPs is connected to an outputting portion, the outputting portion outputting the results of the image processes to an outside; and a second change portion that, when the DRP of the final stage in the DRPs is disconnected from the outputting portion, further changes the assignment process by the assignment portion based on whether the DRPs are placed on only a single substrate.

Abstract: An image processing apparatus including: an assignment portion that, when a plurality of dynamic reconfigurable processors (DRPs) execute image processes by a pipeline process mode based on a print job, assigns identification numbers identifying the DRPs to the DRPs based on the number of DRPs; and a change portion that changes an assignment process by the assignment portion, based on whether a DRP of a final stage in the DRPs is connected to an outputting portion, the outputting portion outputting the results of the image processes to an outside; wherein when the DRP of the final stage is connected to the outputting portion, the assignment portion calculates a maximum identification number based on the total of the number of DRPs, assigns the maximum identification number to the DRP of the final stage, and sequentially assigns values acquired by decreasing the maximum identification number to remaining DRPs.

Abstract: An image processing apparatus including: an assignment portion that, when a plurality of dynamic reconfigurable processors (DRPs) execute image processes by a pipeline process mode based on a print job, assigns identification numbers identifying the DRPs to the DRPs based on the number of DRPs; a first change portion that changes an assignment process by the assignment portion, based on whether a DRP of a final stage in the DRPs is connected to an outputting portion, the outputting portion outputting the results of the image processes to an outside; and a second change portion that, when the DRP of the final stage in the DRPs is disconnected from the outputting portion, further changes the assignment process by the assignment portion based on whether the DRPs are placed on only a single substrate.

Abstract: An image processing apparatus including: an assignment portion that, when a plurality of dynamic reconfigurable processors (DRPs) execute image processes by a pipeline process mode based on a print job, assigns identification numbers identifying the DRPs to the DRPs based on the number of DRPs; and a change portion that changes an assignment process by the assignment portion, based on whether a DRP of a final stage in the DRPs is connected to an outputting portion, the outputting portion outputting the results of the image processes to an outside; wherein when the DRP of the final stage is connected to the outputting portion, the assignment portion calculates a maximum identification number based on the total of the number of DRPs, assigns the maximum identification number to the DRP of the final stage, and sequentially assigns values acquired by decreasing the maximum identification number to remaining DRPs.

Abstract: The invention provides a natural fiber-reinforced thermoplastic resin injection molding having an excellent ability to discharge static electricity. The natural fiber-reinforced thermoplastic resin injection molding is obtained by injection-molding with using natural fiber-reinforced thermoplastic resin pellets as a molding feedstock containing natural fibers as reinforcing fibers, has a natural fiber content of from 20 to 60 wt %. The natural fibers have an average length of from 1.5 to 4.0 mm. The natural fiber-reinforced thermoplastic resin injection molding has an electrostatic voltage half-life, as determined by the half-life measurement method specified in JIS L 1094, of less than 40 seconds.

Abstract: The invention provides a natural fiber-reinforced thermoplastic resin injection molding having an excellent ability to discharge static electricity. The natural fiber-reinforced thermoplastic resin injection molding is obtained by injection-molding with using natural fiber-reinforced thermoplastic resin pellets as a molding feedstock containing natural fibers as reinforcing fibers, has a natural fiber content of from 20 to 60 wt %. The natural fibers have an average length of from 1.5 to 4.0 mm. The natural fiber-reinforced thermoplastic resin injection molding has an electrostatic voltage half-life, as determined by the half-life measurement method specified in JIS L 1094, of less than 40 seconds.

Abstract: In an injection compression-molding apparatus, a molded article is produced by setting molds 10 and 11 to an intermediate clamped state, and then by setting the molds 10 and 11 to a final clamped state by re-clamping the molds 10 and 11 to each other after injecting melted resin into a cavity defined by the molds 10 and 11. The apparatus includes a clamping mechanism and a parallelism retaining mechanism 20. The clamping mechanism has a mold-driving cylinder 7 for moving the movable mold 10 toward and away from the fixed mold 11, a guide engaging member 8, support panels 4, 5, etc. so as to selectively set the molds 10 and 11 to the intermediate clamped state and the final clamped state. The parallelism retaining mechanism 20 retains parallelism between the molds 10 and 11 in the intermediate clamped state by giving a corrective force to mold attaching surfaces of the clamping mechanism where the respective molds 10 and 11 are mounted.

Abstract: A molded product consisting of a skin layer and a core layer is obtained by injecting a skin layer resin and a core layer resin from a skin injection unit 13 and a core injection unit 12 into metal molds 8, 9, respectively. The skin layer resin injection pressure by the skin injection unit 13 and the core layer resin injection pressure by the core injection unit 12 are controlled in such a manner that a volumetrically reduced quantity at the time of cooling and solidifying the skin layer resin is compensated so as not to generate defects such as hollows and the like in the molded product. It is characterized in that the state the core dwelling pressure is higher than the skin dwelling pressure over a predetermined length of time.