Abstract: A component mounting machine includes a component supply device, a head having a nozzle, and a control device configured to control each device. The control device is configured to control a cameras to image a component, determine the normality and abnormality of an operation executed immediately before a current imaging timing based on an image captured at the current imaging timing, classify the image captured at the current imaging timing as a normal image in a case in which a result of determination of the normality and abnormality is made as normal, and classify the image captured at the current imaging timing and a part or all of images captured at imaging timings prior to the current imaging timing as an abnormal image in a case in which the result of the determination of the normality and abnormality is made as abnormal.

Abstract: A tracing device includes an appropriateness determination section configured to determine whether an image processing, which is executed in a production process of a board product by a board work machine, satisfies an appropriateness condition indicating reliability of a result of the image processing when the result of the image processing stays within a permissible range in which the result of the image processing is determined normal and an information management section configured to record image data used in the image processing as traceability information according to the result of the determination made by the appropriateness condition determination section.

Abstract: The present disclosure provides an inspection device for use in a mounting system including a mounting device for disposing a component on a board, including a control section configured to extract a mass area included in a captured image resulting from imaging a processing target object where a viscous fluid is formed at a predetermined part, obtain a center of gravity of the mass area so extracted, and determine whether the center of gravity is included in a normal range of the predetermined part as a reference of the captured image to thereby determine whether a bridge has occurred where the viscous fluid is formed over adjacent predetermined parts.

Abstract: The data management system includes a first storage section storing registration data in which component specifying information for specifying a component is associated with shape data, a second storage section storing possession device data, a search section for searching the registration data from the first storage section by using partial information included in at least one of the shape data and the component specifying information as a search condition, and a determination section for performing a suitability determination process of determining whether the shape data included in the registration data in a search result by the search section is suitable for the mounting process using the configuration device, based on the possession device data.

Abstract: A component mounting machine includes a head having a holding member configured to hold the component, and a control device. The control device performs a pre-mounting inspection for inspecting a state of a component held in the holding member, and controls the head so that the component held in the holding member is mounted on the board in a case where a determination of normality is made in the pre-mounting inspection. In addition, the control device performs a post-mounting inspection for inspecting a state of the component already mounted on the board by the head in a case where a determination of abnormality is made in the pre-mounting inspection or in a case where a determination of abnormality suspicion is made which is within an allowable range determined to be normal but is suspected to be abnormal in the pre-mounting inspection.

Abstract: A component mounting machine includes a component supply device, a head having a nozzle, and a control device configured to control each device. The control device is configured to control a cameras to image a component, determine the normality and abnormality of an operation executed immediately before a current imaging timing based on an image captured at the current imaging timing, classify the image captured at the current imaging timing as a normal image in a case in which a result of determination of the normality and abnormality is made as normal, and classify the image captured at the current imaging timing and a part or all of images captured at imaging timings prior to the current imaging timing as an abnormal image in a case in which the result of the determination of the normality and abnormality is made as abnormal.

Abstract: A component image obtained by imaging a component for which component shape data for image processing is to be created is acquired and displayed on a screen of a display device, and a model pattern corresponding to a measurement target portion of the component image is displayed on the component image in a superimposed manner. At least one fine adjustment icon of fine adjustment icons for finely adjusting a size and/or position of the model pattern superimposed on the component image on the screen of the display device is displayed on the screen of the display device in a predetermined positional relationship with the model pattern.

Abstract: A data management device includes a data management section and a priority setting section. The data management section acquires data related to board work with at least one piece of additional information regarding the board work, and stores the acquired data in a storage device in which a maximum storage amount is set for each additional information. The priority setting section sets a storage priority that is a priority for continuing storage of the acquired data stored in the storage device. The data management section stores the acquired data in the storage device, and deletes the acquired data stored in the storage device in order from the acquired data having a low storage priority set by the priority setting section when the maximum storage amount for at least one piece of the additional information is exceeded.

Abstract: A gate valve comprising a plurality of first force-applying units built in a valve box; a second force-applying unit disposed between a first movable valve and a second movable valve; and a third force-applying unit. The first force-applying units are driven by incompressible fluid and have a function of applying a force to the first movable valve to be directed to the first opening portion in the flow passage direction and thereby causing the seal portion to be in close contact with a valve box inner surface located at the periphery of the first opening portion. The gate valve includes an incompressible-fluid driver that drives, the first force-applying units by incompressible fluid.

Abstract: A tracing device includes an appropriateness determination section configured to determine whether an image processing, which is executed in a production process of a board product by a board work machine, satisfies an appropriateness condition indicating reliability of a result of the image processing when the result of the image processing stays within a permissible range in which the result of the image processing is determined normal and an information management section configured to record image data used in the image processing as traceability information according to the result of the determination made by the appropriateness condition determination section.

Abstract: A component image obtained by imaging a component for which component shape data for image processing is to be created is acquired and displayed on a screen of a display device, and a model pattern corresponding to a measurement target portion of the component image is displayed on the component image in a superimposed manner. At least one fine adjustment icon of fine adjustment icons for finely adjusting a size and/or position of the model pattern superimposed on the component image on the screen of the display device is displayed on the screen of the display device in a predetermined positional relationship with the model pattern.

Abstract: A gate valve comprising a plurality of first force-applying units built in a valve box; a second force-applying unit disposed between a first movable valve and a second movable valve; and a third force-applying unit. The first force-applying units are driven by incompressible fluid and have a function of applying a force to the first movable valve to be directed to the first opening portion in the flow passage direction and thereby causing the seal portion to be in close contact with a valve box inner surface located at the periphery of the first opening portion. The gate valve includes an incompressible-fluid driver that drives, the first force-applying units by incompressible fluid.

Abstract: A substrate working device including: an imaging device configured to image a substrate; a memory device configured to memorize various information; and an image processing device configured to perform, when specified work is performed with respect to multiple substrates, for a leading substrate, leading-substrate processing of performing imaging processing for detecting a specified detection target required for the specified work with respect to a leading image obtained by imaging the leading substrate using the imaging device, acquiring region information related to a region in the leading image in which the detection target was detected, and memorizing the region information in the memory device, and, for subsequent substrates except for the leading substrate, subsequent-substrate processing of setting a partial processing region in a subsequent image of the subsequent substrate captured by the imaging device based on the region information, and performing the image processing with respect to the set proce

Abstract: A gate valve of the invention includes a valve box, a neutral valve body, and a rotation shaft. The neutral valve body includes a neutral valve and a movable valve. The movable valve includes a first movable valve and a second movable valve. The gate valve includes a plurality of first force-applying units, a second force-applying unit, and a third force-applying unit. The third force-applying unit applies a force to the first movable valve. The first force-applying units apply a force to the first movable valve and thereby causing the seal portion to be in close contact with a valve box inner surface located at a periphery of the first opening portion. The second force-applying unit drives the first movable valve and the second movable valve so that thicknesses thereof in the flow passage direction are adjustable.

Abstract: A substrate working device including: an imaging device configured to image a substrate; a memory device configured to memorize various information; and an image processing device configured to perform, when specified work is performed with respect to multiple substrates, for a leading substrate, leading-substrate processing of performing imaging processing for detecting a specified detection target required for the specified work with respect to a leading image obtained by imaging the leading substrate using the imaging device, acquiring region information related to a region in the leading image in which the detection target was detected, and memorizing the region information in the memory device, and, for subsequent substrates except for the leading substrate, subsequent-substrate processing of setting a partial processing region in a subsequent image of the subsequent substrate captured by the imaging device based on the region information, and performing the image processing with respect to the set proce

Abstract: A gate valve of the invention includes a valve box, a neutral valve body, and a rotation shaft. The neutral valve body includes a neutral valve and a movable valve. The movable valve includes a first movable valve and a second movable valve. The gate valve includes a plurality of first force-applying units, a second force-applying unit, and a third force-applying unit. The third force-applying unit applies a force to the first movable valve. The first force-applying units apply a force to the first movable valve and thereby causing the seal portion to be in close contact with a valve box inner surface located at a periphery of the first opening portion. The second force-applying unit drives the first movable valve and the second movable valve so that thicknesses thereof in the flow passage direction are adjustable.

Abstract: An optical amplifying apparatus that amplifies an optical signal, including an input section whereto the optical signal is inputted, a laser light source that generates laser light, the laser light source including an uncooled semiconductor laser device, an optical fiber that amplifies the optical signal by a stimulated emission based on the laser light from the laser light source, an output section that outputs the optical signal amplified by the optical fiber, and a passive optical component disposed between the optical fiber and the output section. The laser light source is thermally coupled to the optical fiber and/or the passive optical component via a thermally conductive medium. An oscillating wavelength of the laser light source is varied by increasing a temperature of the laser light source with heat generated by the optical fiber and/or the passive optical component.

Abstract: An optical amplifying apparatus that amplifies a wavelength-division multiplexed (WDM) optical signal includes an input section, a laser light source, a double-clad optical fiber, a gain equalizer, and a residual pump light attenuating section that attenuates a residual pump light outputted from the double-clad optical fiber. The residual pump light attenuating section is disposed such that the residual pump light of the laser light is incident on the residual pump light attenuating section before being incident on an isolator.

Abstract: An optical amplifying apparatus that amplifies a wavelength-division multiplexed (WDM) optical signal includes an input section, a laser light source, a double-clad optical fiber, a gain equalizer, and a residual pump light attenuating section that attenuates a residual pump light outputted from the double-clad optical fiber. The residual pump light attenuating section is disposed such that the residual pump light of the laser light is incident on the residual pump light attenuating section before being incident on an isolator.

Abstract: An optical amplifying apparatus that amplifies an optical signal, including an input section whereto the optical signal is inputted, a laser light source that generates laser light, the laser light source including an uncooled semiconductor laser device, an optical fiber that amplifies the optical signal by a stimulated emission based on the laser light from the laser light source, an output section that outputs the optical signal amplified by the optical fiber, and a passive optical component disposed between the optical fiber and the output section. The laser light source is thermally coupled to the optical fiber and/or the passive optical component via a thermally conductive medium. An oscillating wavelength of the laser light source is varied by increasing a temperature of the laser light source with heat generated by the optical fiber and/or the passive optical component.