Abstract: An information collection system includes a collection apparatus, and one or more proxy apparatuses, in which the collection apparatus collects information from a terminal by communication using a first communication method, in a case where the information is not collected from the terminal in the communication, transmits an information collection request for the terminal to the one or more proxy apparatuses by communication using a second communication method, and collects the information of the terminal with which any of the one or more proxy apparatuses responds in accordance with the information collection request, and the proxy apparatus responds to the collection apparatus with the collected information in a case where the information is collected from the terminal by communication using the first communication method in accordance with the information collection request from the collection apparatus.

Abstract: In some examples, iterative sampling based dataset clustering may include sampling a dataset that includes a plurality of items to identify a specified number of sampled items. The sampled items may be clustered to generate a plurality of clusters. Un-sampled items may be assigned from the plurality of items to the clusters. Remaining un-sampled items that are not assigned to the clusters may be identified. A ratio associated with the remaining un-sampled items and the plurality of items may be compared to a specified threshold. Based on a determination that the ratio is greater than the specified threshold, an indication of completion of clustering of the plurality of items may be generated.

Abstract: A substrate processing apparatus includes a carry-in/out block having a container placement section; and a processing block, disposed to be adjacent to the carry-in/out block in a width direction, having multiple processing modules each configured to perform a process on a substrate. The carry-in/out block further includes: a transit block in which transit modules are provided on a processing block side to deliver the substrate to/from the processing block; and a first transfer mechanism configured to transfer the substrate between the container placement section and the transit block. The processing block further includes a second transfer mechanism configured to transfer the substrate between the transit block and the processing module. The first transfer mechanism has a support, and is configured to allow the substrate supported by the support to pass through the transit block in a depth direction intersecting with the width direction, when viewed from a top.

Abstract: A substrate processing apparatus includes; a carrier block; a first processing block including first lower and upper processing blocks to deliver a substrate to and from the carrier block; a second processing block including second lower and upper processing blocks provided adjacent to the first lower and upper processing blocks; a relay block including a lifting and transferring mechanism that delivers the substrate between the second lower and upper processing blocks; a controller that controls an operation of each main transfer mechanism such that one of upper and lower processing blocks forms an outward path through which the substrate is transferred from the carrier block to the relay block and the other forms a return path through which the substrate is transferred from the relay block to the carrier block; and a bypass transfer mechanism provided for each of the first and second processing blocks.

Abstract: An improvement in heat radiation efficiency is achieved. A semiconductor device according to the present technology includes a substrate portion on which a semiconductor chip is mounted and in which an external connection terminal for performing electrical connection to the outside is formed on a rear surface on a side opposite to a front surface which is a surface on a side where the semiconductor chip is mounted, an outer wall portion that protrudes toward the front surface side in an outer circumferential portion of the substrate portion, a lid portion which is supported by the outer wall portion and covers the semiconductor chip, and a heat storage member which is disposed at a position further inside than the outer wall portion between the rear surface of the substrate portion and a rear surface of the lid portion.

Abstract: A display control apparatus includes a captured data acquisition unit, a motion state detection unit, an extracted image data generation unit, a display image data generation unit, and an output unit. The captured data acquisition unit is configured to acquire captured data generated as a result of a camera capturing scenery outside a vehicle. The motion state detection unit is configured to detect a motion state of the vehicle. The extracted image data generation unit is configured to generate an extracted image from the captured data by using an angle of view set in accordance with the motion state. The display image data generation unit is configured to generate display image data related to a display image having a preset image size, from extracted image data. The output unit is configured to output the display image to a display unit having the image size.

Abstract: A substrate processing apparatus includes a first unit block including a first substrate transfer region, a first and a second processing modules provided to face a first and a second sides of the first substrate transfer region in a left-right direction, and a first and a second transfer mechanisms provided at the first and the second sides and configured to deliver a substrate to the first and the second processing modules; a second unit block, stacked on the first unit block, including a second substrate transfer region and a third transfer mechanism; a substrate carry-in/out block provided at a first side of a stack of the unit blocks and configured to deliver the substrate to the first and the third transfer mechanisms; a relay block provided at a second side of the stack and configured to deliver the substrate to the second and the third transfer mechanisms.

Abstract: A method for producing a polarizing lens having a high luminous transmittance and degree of polarization with astigmatism kept low, and a polarizing film and a polarizing lens. The method for producing a polarizing lens includes: contracting a polarizing film at a maximum rate of contraction of 5% or more and 30% or less under moist conditions; processing the polarizing film into a curve; drying the polarizing film at temperature T1; providing a mold having a cavity in which the polarizing film is placed in the inside; injecting a curable composition into the cavity; curing the curable composition to obtain a polarizing lens in which the polarizing film is placed in the inside; and annealing the polarizing lens at temperature T2, wherein a relationship between the temperature T1 and the temperature T2 satisfies the following expression (1): T1>T2 . . . (1).

Abstract: A cost increase is controlled. A solid imaging device according to an embodiment includes: an imaging section (101) that obtains first image data including four or more colors; and a converting section (104) that reduces the number of colors of the first image data obtained by the imaging section and generates second image data having a smaller number of colors than the first image data.

Abstract: A substrate processing apparatus includes a first unit block including a first substrate transfer region, a first and a second processing modules provided to face a first and a second sides of the first substrate transfer region in a left-right direction, and a first and a second transfer mechanisms provided at the first and the second sides and configured to deliver a substrate to the first and the second processing modules; a second unit block, stacked on the first unit block, including a second substrate transfer region and a third transfer mechanism; a substrate carry-in/out block provided at a first side of a stack of the unit blocks and configured to deliver the substrate to the first and the third transfer mechanisms; a relay block provided at a second side of the stack and configured to deliver the substrate to the second and the third transfer mechanisms.

Abstract: A substrate processing apparatus includes a carrier block, a first processing block including first lower and upper processing blocks to deliver a substrate to and from the carrier block, a second processing block including second lower and upper processing blocks provided adjacent to the first lower and upper processing blocks, a relay block including a lifting and transferring mechanism that delivers the substrate between the second lower and upper processing blocks, a controller that controls an operation of each main transfer mechanism such that one of upper and lower processing blocks forms an outward path through which the substrate is transferred from the carrier block to the relay block and the other forms a return path through which the substrate is transferred from the relay block to the carrier block, and a bypass transfer mechanism provided for each of the first and second processing blocks.

Abstract: An optical article, such as a spectacle lens, includes, on a substrate, a photochromic layer containing a photochromic dye and a resin component, and a protective film. The indentation hardness of the photochromic layer in the thickness direction is less than or equal to the indentation hardness of the surface of the substrate. The result of multiplying the indentation hardness of the protective film in the thickness direction and the thickness of the protective film is five-hundredths or more times and one or less times the result of multiplying the indentation hardness of the photochromic layer in the thickness direction and the thickness of the photochromic layer.

Abstract: A substrate processing apparatus includes a carrier block on which a carrier configured to store a substrate is placed, first processing block including a plurality of first processing modules, and a first transport mechanism shared by the plurality of first processing modules to transport the substrate, second processing block overlapping the first processing block, including a plurality of second processing modules, and a second transport mechanism shared by the plurality of second processing modules to transport the substrate, and configured to transport the substrate to the carrier block. The substrate processing apparatus includes a lifting and transferring mechanism including a shaft extending in a horizontal direction and a support part configured to face and support the substrate, and a rotation mechanism configured to rotate the support part around the shaft such that an orientation of the support part is changed between a first orientation and the second position.

Abstract: An optical article, such as a spectacle lens, includes, on a substrate, a photochromic layer containing a photochromic dye and a resin component, and a protective layer. The indentation hardness of the photochromic layer in the thickness direction is in a range from 0.1 to 10 mgf/?m2. The value defined by the indentation hardness of the protective layer in the thickness direction multiplied by the thickness of the protective layer is five or more times and nine thousand or less times the value defined by the indentation hardness of the photochromic layer in the thickness direction multiplied by the thickness of the photochromic layer.

Abstract: In at least one implementation, a method of operating a combustion engine, includes determining a temperature equal or related to a temperature of an engine at an engine start and comparing the determined temperature to a temperature threshold, determining if an engine operating condition exceeds an engine threshold within a threshold time after the engine was started, and if the determined temperature is below the threshold temperature and the engine operating condition remains above the engine threshold and the threshold time has not passed, providing an enriched fuel and air mixture to the engine.

Abstract: An apparatus includes: a treatment block including treatment modules; and a relay block coupling the treatment block and an exposure apparatus in a width direction, and including a transfer-in/out mechanism for the exposure apparatus. In the treatment block being multilayered in an up-down direction, a transfer mechanism is provided in a transfer region extending in the width direction. In a layer, in the treatment block, at a position accessible from the transfer-in/out mechanism, a deliverer on which the substrate is mounted when the substrate is delivered between the blocks is provided at an end on the relay block side. Pre-exposure storages storing the substrate before the exposure are provided along the width direction in two regions between which the transfer region is interposed in a depth direction. A non-treatment unit is provided at a portion where the pre-exposure storages are not provided in the two regions.

Abstract: A substrate processing apparatus includes a first unit block including a first substrate transfer region, a first and a second processing modules provided to face a first and a second sides of the first substrate transfer region in a left-right direction, and a first and a second transfer mechanisms provided at the first and the second sides and configured to deliver a substrate to the first and the second processing modules; a second unit block, stacked on the first unit block, including a second substrate transfer region and a third transfer mechanism; a substrate carry-in/out block provided at a first side of a stack of the unit blocks and configured to deliver the substrate to the first and the third transfer mechanisms; a relay block provided at a second side of the stack and configured to deliver the substrate to the second and the third transfer mechanisms.

Abstract: An image sensor package according to an embodiment of the present technology includes: a solid-state image sensor; a transparent substrate; and a package substrate. The solid-state image sensor has a light-receiving surface including a light-reception unit and a first terminal unit, and a rear surface opposite to the light-receiving surface. The transparent substrate faces the light-receiving surface. The package substrate includes a frame portion, a second terminal unit, and a supporting body. The frame portion has a joint surface to be joined to the transparent substrate and includes a housing portion housing the solid-state image sensor. The second terminal unit is to be wire-bonded to the first terminal unit, the second terminal unit being provided in the frame portion. The supporting body is provided in a peripheral portion of the light-receiving surface or at a center portion of the rear surface and partially supports the light-receiving surface or the rear surface.

Abstract: An apparatus includes: a treatment block; and a relay block including a first transfer-in/out module for an exposure apparatus. In the treatment block, a treatment module is provided in each layer, and a deliverer is provided at an end on the relay block side in the layer including a pre-exposure treatment module. In the relay block, a second transfer-in/out module for the deliverer and a post-exposure treatment module is provided in a region adjacent, in the width direction, to the deliverer, the first transfer-in/out module is provided in a relay side transfer region extending in a depth direction from a region overlapping with the second transfer-in/out module, the post-exposure treatment module is provided in a region adjacent, in an up-down direction, to the relay side transfer region and adjacent, in the depth direction, to the second transfer-in/out module, and a relay mechanism is provided.

Abstract: In at least some implementations, a method of maintaining an engine speed below a first threshold, includes: (a) determining an engine speed; (b) comparing the engine speed to a second threshold that is less than the first threshold; (c) allowing an engine ignition event to occur during a subsequent engine cycle if the engine speed is less than the second threshold; and (d) skipping at least one subsequent engine ignition event if the engine speed is greater than the second threshold. In at least some implementations, the second threshold is less than the first threshold by a maximum acceleration of the engine after one ignition event so that an ignition event when the engine speed is less than the second threshold does not cause the engine speed to increase above the first threshold.