Abstract: An image coding method includes: deriving a candidate for a motion vector of a current block from a co-located motion vector; adding the candidate to a list; selecting the motion vector of the current block from the list; and coding the current block, wherein the deriving includes: deriving the candidate by a first derivation scheme in the case of determining that each of a current reference picture and a co-located reference picture is a long-term reference picture; and deriving the candidate by a second derivation scheme in the case of determining that each of the current reference picture and the co-located reference picture is a short-term reference picture.

Abstract: An image coding method includes: writing, into a sequence parameter set, buffer description defining information for defining a plurality of buffer descriptions; writing, into the sequence parameter set, reference list description defining information for defining a plurality of reference list descriptions corresponding to the buffer descriptions; and writing, into a first header of each processing unit which is included in a coded bitstream, buffer description selecting information for specifying a selected buffer description.

Abstract: A moving picture coding includes: coding a first flag indicating whether or not temporal motion vector prediction is used; when the first flag indicates that the temporal motion vector prediction is used: coding a first parameter for calculating the temporal predictive motion vector; wherein when the first flag indicates that the temporal motion vector prediction is not used, the first parameter is not coded.

Abstract: An image decoding method includes: dividing a current block into sub-blocks; deriving, for each sub-block, one or more prediction information candidates; obtaining an index; and decoding the current block using the prediction information candidate selected by the index.

Abstract: An image coding method includes: performing context arithmetic coding to consecutively code (i) first information indicating whether or not to perform sample adaptive offset (SAO) processing for a first region of an image and (ii) second information indicating whether or not to use, in the SAO processing for the first region, information on SAO processing for a region other than the first region, the context arithmetic coding being arithmetic coding using a variable probability, the SAO processing being offset processing on a pixel value; and performing bypass arithmetic coding to code other information which is information on the SAO processing for the first region and different from the first information or the second information, after the first information and the second information are coded, the bypass arithmetic coding being arithmetic coding using a fixed probability.

Abstract: A control section includes: an identifying section configured to, by referring to one or more search keywords set for one or more control targets, identify at least one search keyword from among the one or more search keywords, the at least one search keyword matching any of one or more main words contained in input data acquired through voice input; and a selecting section configured to select at least one control target from among the one or more control targets based on one or more numeric values obtained through calculation of one or more expressions each of which batch-converts, into numerical form, one or more of the one or more search keywords set for the one or more control targets.

Abstract: System includes: an operation terminal that (i) receives an operation instruction that is given by the operator to a movable section of a machine and (ii) senses an operation standby state that allows the operation instruction to be received; an image sensor estimating section configured to estimate a positional relationship between the operator and the machine; a model generating section configured to, in response to sensing of the operation standby state by the operation terminal, generate an operating direction indicating image; and in accordance with the positional relationship, in a direction that is in accordance with a direction in which the operator views the machine, the operating direction indicating image indicating an operating direction of the movable section; an combining section configured to generate a combined image obtained by combining the operating direction indicating image with a captured image of the movable section that has been photographed.

Abstract: A control section includes: an identifying section configured to, by referring to one or more search keywords set for one or more control targets, identify at least one search keyword from among the one or more search keywords, the at least one search keyword matching any of one or more main words contained in input data acquired through voice input; and a selecting section configured to select at least one control target from among the one or more control targets based on one or more numeric values obtained through calculation of one or more expressions each of which batch-converts, into numerical form, one or more of the one or more search keywords set for the one or more control targets.

Abstract: System includes: an operation terminal that (i) receives an operation instruction that is given by the operator to a movable section of a machine and (ii) senses an operation standby state that allows the operation instruction to be received; an image sensor estimating section configured to estimate a positional relationship between the operator and the machine; a model generating section configured to, in response to sensing of the operation standby state by the operation terminal, generate an operating direction indicating image; and in accordance with the positional relationship, in a direction that is in accordance with a direction in which the operator views the machine, the operating direction indicating image indicating an operating direction of the movable section; an combining section configured to generate a combined image obtained by combining the operating direction indicating image with a captured image of the movable section that has been photographed.

Abstract: In a surveillance system, a server and a plurality of cameras provided in a surveillance area are communicably connected to each other. The server includes a table memory that retains information on free resources of each of cameras. The server determines for each camera, a process to be executed by the camera, based on the information on the free resources of the camera, and transmits an instruction to execute the determined process to each camera. Each of the cameras executes a process corresponding to the instruction to execute, based on an instruction to execute the process transmitted from the server.

Abstract: In a surveillance system, a server and a plurality of cameras provided in a surveillance area are communicably connected to each other. The server includes a table memory that retains information on free resources of each of cameras. The server determines for each camera, a process to be executed by the camera, based on the information on the free resources of the camera, and transmits an instruction to execute the determined process to each camera. Each of the cameras executes a process corresponding to the instruction to execute, based on an instruction to execute the process transmitted from the server.

Abstract: A PC includes: an image data setting section for (i) setting, to background image data indicative of a background image, apparatus image data obtained by capturing an image of an apparatus and serving as referential image data to be referred to for identifying the apparatus, and (ii) setting, to the apparatus image data, dynamic part image data indicative of a dynamic part image positioned on the apparatus image; and an address setting section for (i) associating, with the dynamic part image data, (a) an address for specifying a storage area of a memory in which storage area data to be accessed by a portable terminal device is stored and (b) address substitutive information to be substituted for the address, and (ii) generating address display data to be used to display the address substitutive information instead of the address.

Abstract: A PC includes: an image data setting section for (i) setting, to background image data indicative of a background image, apparatus image data obtained by capturing an image of an apparatus and serving as referential image data to be referred to for identifying the apparatus, and (ii) setting, to the apparatus image data, dynamic part image data indicative of a dynamic part image positioned on the apparatus image; and an address setting section for (i) associating, with the dynamic part image data, (a) an address for specifying a storage area of a memory in which storage area data to be accessed by a portable terminal device is stored and (b) address substitutive information to be substituted for the address, and (ii) generating address display data to be used to display the address substitutive information instead of the address.

Abstract: An optical fiber cable processing device includes a transport mechanism which transports a case that accommodates an optical fiber cable and in which plural work stations are set along a transport path, and a processing mechanism that performs each of desired operations on the optical fiber cable, in which any one of the plural work stations is a mounting station in which a work mounting mechanism mounts a work on a tip of the optical fiber cable, a drawing mechanism that draws out the optical fiber cable and a correction mechanism that corrects a bending tendency of the optical fiber cable are disposed in the work stations on an upstream side of the mounting station, and the transport mechanism transports the case to the mounting station and mounts the work on the tip of the optical fiber cable in a state where the optical fiber cable is drawn out.

Abstract: An optical fiber cable processing device includes a transport mechanism which transports a case that accommodates an optical fiber cable and in which plural work stations are set along a transport path, and a processing mechanism that performs each of desired operations on the optical fiber cable, in which any one of the plural work stations is a mounting station in which a work mounting mechanism mounts a work on a tip of the optical fiber cable, a drawing mechanism that draws out the optical fiber cable and a correction mechanism that corrects a bending tendency of the optical fiber cable are disposed in the work stations on an upstream side of the mounting station, and the transport mechanism transports the case to the mounting station and mounts the work on the tip of the optical fiber cable in a state where the optical fiber cable is drawn out.

Abstract: There is disclosed a stream data reception/reproduction device capable of suppressing deterioration of quality of stream data reproduced even when the stream data is received via an IP network or the like in which the packet arrival timing and the order are not guaranteed. In this device, a reproduction speed control unit (107) sets various conditions in accordance with the value of the synchronization difference reported from a synchronization difference calculation unit (102). Only when the set conditions are satisfied, the speed of reproduction of a frame decompressed and inputted from a decoding unit (105) is adjusted. The reproduction speed control unit (107) interpolates a predetermined amount of sample data into the frame or decimates it from the frame when adjusting the reproduction speed.

Abstract: A thermoplastic resin composition of the present invention has high impact resistance, not lowering the weather resistance thereof, even though the amount of an impact resistance improver added thereto is small. The thermoplastic resin composition contains 100 parts by weight of (A) a thermoplastic resin and from 0.5 to 20 parts by weight of (B) a graft copolymer, wherein the graft copolymer (B) contains from 70% to 99% by weight of a crosslinked core (b2) prepared through polymerization of a monomer for the core (b2), containing 70% by weight or more of an acrylate, in the presence of from 0.5% to 20% by weight of a non-crosslinked seed (b1) having a weight-average molecular weight of 40,000 or less, and from 0.5% to 10% by weight of a shell (b3) prepared through polymerization of a monomer for the shell (b3) containing 50% by weight or more of a methacrylate, and the thermoplastic composition further contains from 0.01 to 3.

Abstract: A bonding device includes a bonding head including a bonding tool for sucking and holding an electronic component, and a laser heater for heating the electronic component by irradiating laser light on the electronic component held by the bonding tool from an inside of the bonding head, the laser heater including a collective unit for condensing laser light emitted from a light source. A focusing point of the laser light condensed by the collective unit is formed inside the bonding head.

Abstract: A thermoplastic resin composition of the present invention has high impact resistance, not lowering the weather resistance thereof, even though the amount of an impact resistance improver added thereto is small. The thermoplastic resin composition contains 100 parts by weight of (A) a thermoplastic resin and from 0.5 to 20 parts by weight of (B) a graft copolymer, wherein the graft copolymer (B) contains from 70% to 99% by weight of a crosslinked core (b2) prepared through polymerization of a monomer for the core (b2), containing 70% by weight or more of an acrylate, in the presence of from 0.5% to 20% by weight of a non-crosslinked seed (b1) having a weight-average molecular weight of 40,000 or less, and from 0.5% to 10% by weight of a shell (b3) prepared through polymerization of a monomer for the shell (b3) containing 50% by weight or more of a methacrylate, and the thermoplastic composition further contains from 0.01 to 3.

Abstract: A thermoplastic resin composition having excellent weather resistance and high impact resistance in the present invention is the thermoplastic resin composition containing 100 parts by weight of a thermoplastic resin (A) and 0.5 to 20 parts by weight of a graft copolymer (B), wherein the graft copolymer (B) consists of 50% to 99.5% by weight of a core (bc) and 0.5% to 50% by weight of a non-crosslinked shell (bs), the core (bc) is constituted of only layer having a glass transition temperature of 20° C. or lower, and the non-crosslinked shell (bs) is obtained by polymerizing a monomer mixture for non-crosslinked shell, containing 52% to 100% by weight of an acrylic ester and 0% to 48% by weight of a vinyl monomer copolymerizable with the acrylic ester.