Abstract: A floor mat arranged in a working machine includes a floor portion, a wall portion arranged on a circumferential portion of the floor portion, and an opening portion arranged on a part of a connecting portion of the wall portion, the connecting portion connecting to the floor portion. The floor mat includes a mat main body arranged on the floor portion, a covering portion configured to cover the opening portion, and an connecting portion configured to connect the covering portion flexibly to a circumferential portion of the mat main body.

Abstract: The positional precision assessment device has a processor configured to estimate a first location of a moving object at a first time based on an image representing road features and positional information, estimate a second location at the first time based on a location of the moving object at the second time and an amount of movement and change in direction from the second time to the first time, input the first and second location into a filter and calculate a current location at the first time, and determine a state of precision of the current location based on a difference between the current location of the moving object and a location estimated based on a location of the moving object at a time prior to the first time and an amount of movement and change in direction from the prior time to the first time.

Abstract: A manufacturing method of a light-emitting device, including the steps of: preparing a substrate including a base, a first wall formed on an upper surface of the base, and a recess defined by a lateral surface of the first wall as an inside lateral surface and the upper surface of the base as a bottom surface; mounting a light-emitting element on the bottom surface of the recess; disposing a sealing member which covers the light-emitting element and the first wall; forming a groove section extending from an upper surface of the sealing member to the first wall by removing the sealing member on the first wall; disposing a second wall inside the groove section; and cutting the second wall and the substrate at a position including the second wall.

Abstract: A manufacturing method of a light-emitting device, including the steps of: preparing a substrate including a base, a first wall formed on an upper surface of the base, and a recess defined by a lateral surface of the first wall as an inside lateral surface and the upper surface of the base as a bottom surface; mounting a light-emitting element on the bottom surface of the recess; disposing a sealing member which covers the light-emitting element and the first wall; forming a groove section extending from an upper surface of the sealing member to the first wall by removing the sealing member on the first wall; disposing a second wall inside the groove section; and cutting the second wall and the substrate at a position including the second wall.

Abstract: A manufacturing method of a light-emitting device, includes the steps of: preparing a substrate including a base, a first wall formed on an upper surface of the base, and a recess defined by a lateral surface of the first wall as an inside lateral surface and the upper surface of the base as a bottom surface; mounting a light-emitting element on the bottom surface of the recess; disposing a sealing member which covers the light-emitting element and the first wall; forming a groove section extending from an upper surface of the sealing member to the first wall by removing the sealing member on the first wall; disposing a second wall inside the groove section; and cutting the second wall and the substrate at a position including the second wall.

Abstract: A coordinate measuring machine includes: a table and a column which are configured to relatively move in a predetermined moving direction; a guide surface formed on the table and having a guide region and a drive region extending in the moving direction in parallel to each other; at least one air pad formed to the column and facing the guide region; and a drive roller formed to the column and rolling on the drive region.

Abstract: A manufacturing method of a light-emitting device, includes the steps of: preparing a substrate including a base, a first wall formed on an upper surface of the base, and a recess defined by a lateral surface of the first wall as an inside lateral surface and the upper surface of the base as a bottom surface; mounting a light-emitting element on the bottom surface of the recess; disposing a sealing member which covers the light-emitting element and the first wall; forming a groove section extending from an upper surface of the sealing member to the first wall by removing the sealing member on the first wall; disposing a second wall inside the groove section; and cutting the second wall and the substrate at a position including the second wall.

Abstract: An automatic culturing device configured such that, in a work chamber 2a maintained in a sterile state, first and second robots 6 and 7 are arranged so that the movable ranges thereof partially overlap each other, and such that liquid supply means 10 which supplies liquids, containing a culture medium and liquid medicine, to containers held by the robots, and temporary placement sections (handing-over table 42, centrifuge tube holder 43, and heated room 44), each of which hands over the containers between the first and second robots, are provided in the movable ranges of the first and second robots, which ranges overlap each other. The first robot takes out the containers housed in housing means (rotary stocker 8), and the second robot holds and transports the containers handed over from the first robot via the temporary placement section. The cultivating operation can be efficiently performed.

Abstract: To provide a virtual network monitoring system, etc., for facilitating the monitoring of a virtual network on the basis of a connection structure between a virtual node and the virtual network.

Abstract: A coordinate measuring machine includes: a table and a column which are configured to relatively move in a predetermined moving direction; a guide surface formed on the table and having a guide region and a drive region extending in the moving direction in parallel to each other; at least one air pad formed to the column and facing the guide region; and a drive roller formed to the column and rolling on the drive region.

Abstract: A semiconductor light emitting device includes a lead frame 1 covered by a resin package 2. The lead frame 1 includes first and second leads 1A and 1B facing each other. The first and second leads 1A and 1B include inner lead sections 11 and 12 covered with the package 2, respectively. The first and second leads 1A and 1B include outer lead sections 13 protruding from package 2 ends. First and second exposed surfaces 51 and 52 are exposed from the package 2 in the first and second lead lower surfaces, respectively. The first lead 1A is longer than the second lead 1B. An LED 3 is mounted on the first lead upper surface. The second lead 1B includes second end portions 15 extending in the second exposed surface 52 from the both ends of the facing surface toward the first lead 1A.

Abstract: A culturing device configured such that an isolator 2 has at least two communication ports 2dA and 2dB, and such that an incubator 4 is connected to each of the communication ports via a connecting member 114 (connection means 111). In the state where the work chamber 2a and the inside of the incubator 4 can be made to communicate with each other by opening the one communication port 2dA and a carrying-in-and-out port 4d of the incubator 4, which carrying-in-and-out port 4d is made to communicate with the communication port 2dA, the other communication port 2dB and the carrying-in-and-out port 4d of another incubator 4 are closed, and decontamination gas is supplied into the decontamination space S formed inside the connecting member to thereby decontaminate a portion exposed to the decontamination space. Thereby, the cultivating operation can be efficiently performed.

Abstract: An automatic culturing device configured such that, in a work chamber 2a maintained in a sterile state, first and second robots 6 and 7 are arranged so that the movable ranges thereof partially overlap each other, and such that liquid supply means 10 which supplies liquids, containing a culture medium and liquid medicine, to containers held by the robots, and temporary placement sections (handing-over table 42, centrifuge tube holder 43, and heated room 44), each of which hands over the containers between the first and second robots, are provided in the movable ranges of the first and second robots, which ranges overlap each other. The first robot takes out the containers housed in housing means (rotary stocker 8), and the second robot holds and transports the containers handed over from the first robot via the temporary placement section. The cultivating operation can be efficiently performed.

Abstract: A device 2 for producing a three-dimensional structural body has an accommodating plate 3 in which an accommodating recess portion 3a for accommodating a cell mass 1 is formed, a support body 4 provided with a plurality of needle-shaped bodies 6 penetrating the cell mass, a suction nozzle 19 for adsorbing/holding the cell mass, and structure 20 for moving the suction nozzle.

Abstract: A semiconductor light emitting device includes a lead frame 1 covered by a resin package 2. The lead frame 1 includes first and second leads 1A and 1B facing each other. The first and second leads 1A and 1B include inner lead sections 11 and 12 covered with the package 2, respectively. The first and second leads 1A and 1B include outer lead sections 13 protruding from package 2 ends. First and second exposed surfaces 51 and 52 are exposed from the package 2 in the first and second lead lower surfaces, respectively. The first lead 1A is longer than the second lead 1B. An LED 3 is mounted on the first lead upper surface. The second lead 1B includes second end portions 15 extending in the second exposed surface 52 from the both ends of the facing surface toward the first lead 1A.

Abstract: A bonding structure includes a first member, a second member and a bonding member. The first member has a plate shape and is made of a carbon-base material. The first member serves as a heat diffusion member that transfers heat at least in a thickness direction, which is perpendicular to a plane of the plate shape. The second member is bonded to the first member through the bonding member. The first member has a metal thin film at least on an opposed surface that is opposed to the second member. The bonding member is disposed between the opposed surface of the first member and the second member. The bonding member is provided by a sintered body of metal particle. For example, the bonding structure is employed in a cooling unit including a heat source.

Abstract: A device 2 for producing a three-dimensional structural body comprising an accommodating plate 3 in which an accommodating recess portion 3a for accommodating a cell mass 1 is formed, a support body 4 provided with a plurality of needle-shaped bodies 6 penetrating the cell mass, a suction nozzle 19 for adsorbing/holding the cell mass, and moving means 20 for moving the suction nozzle. The suction nozzle is provided with a tubular adsorbing portion 19a for adsorbing/holding one cell mass, and a diameter of the adsorbing portion is formed smaller than an outer diameter of the cell mass and larger than an outer peripheral diameter of a needle-shaped body 6a of the support body 4.

Abstract: Small and large flat electrodes and between which alternating current voltage is applied are touch on respective outer side surfaces of an ink bag of each of main ink tanks to so as to face each other. Surface area (B) of the large electrode is set equal to a surface area of the largest outer side surface of the main ink tank, for example, so as to be much different from surface area (A) of the small electrode. The surface area (A) of the small electrode is set to about one tenth of the surface area (B).

Abstract: An original scanning apparatus is described that scans an original placed on an original placing plane line by line by moving a scanning unit including a plurality of light-receiving elements that are arranged in a prescribed direction in a direction perpendicular to the prescribed direction. The original scanning apparatus includes: a pattern unit that is provided in a vicinity of a side of the rectangular original placing plane extending along a moving direction of the scanning unit; a control unit configured to calculate drive information in the moving direction per line-scanning cycle of the scanning unit based on a result of scanning the pattern unit; and a driving circuit configured to feed back the calculated drive information so as to control the scanning unit to thereby drive the scanning unit in the moving direction.

Abstract: A bonding structure includes a first member, a second member and a bonding member. The first member has a plate shape and is made of a carbon-base material. The first member serves as a heat diffusion member that transfers heat at least in a thickness direction, which is perpendicular to a plane of the plate shape. The second member is bonded to the first member through the bonding member. The first member has a metal thin film at least on an opposed surface that is opposed to the second member. The bonding member is disposed between the opposed surface of the first member and the second member. The bonding member is provided by a sintered body of metal particle. For example, the bonding structure is employed in a cooling unit including a heat source.