mhurhangee/ep-ind-claims huggingface dataset:
A surface roughness measurement device, comprising: a fiber bundle comprising a main emitting fiber and a plurality of collecting fibers; a first auxiliary emitting fiber; an optical housing comprising the fiber bundle and the first auxiliary emitting fiber and defining an aperture for optically contacting a surface of an object; a main reflective mirror arranged in the optical housing, for reflecting light emitted from the main emitting fiber to a detecting point of the aperture and reflecting light reflected by the object to the plurality of collecting fibers; a first auxiliary reflective mirror arranged in the optical housing, for reflecting light emitted from the first auxiliary emitting fiber to the detecting point of the aperture; and an external circuit for generating a laser beam to the main emitting fiber and the first auxiliary emitting fiber, collecting the reflected light from the plurality of collecting fibers, and calculating the surface roughness of the object based on the collected reflected light. a fiber bundle comprising a main emitting fiber and a plurality of collecting fibers; a first auxiliary emitting fiber; an optical housing comprising the fiber bundle and the first auxiliary emitting fiber and defining an aperture for optically contacting a surface of an object; a main reflective mirror arranged in the optical housing, for reflecting light emitted from the main emitting fiber to a detecting point of the aperture and reflecting light reflected by the object to the plurality of collecting fibers; a first auxiliary reflective mirror arranged in the optical housing, for reflecting light emitted from the first auxiliary emitting fiber to the detecting point of the aperture; and an external circuit for generating a laser beam to the main emitting fiber and the first auxiliary emitting fiber, collecting the reflected light from the plurality of collecting fibers, and calculating the surface roughness of the object based on the collected reflected light.
A reagent for digesting cell material (sample cell material), containing an internal standard for monitoring and assessing the digestion of the cell material and subsequent steps, completely integrated into the reagent, comprising a step selected from sample preparation, extraction, enrichment, isolation, cleaning, reverse transcription, amplification and detection of the cell components obtained from the open cells or a combination of several or all of these steps, comprising beads which, as a standard, have the surface at least partially coated with dried up reference cells (reference cell material), characterised in that the beads consist of glass, metal, porcelain or other porous materials or tungsten carbide and the size of the beads amounts to 0.01 mm to 2 mm, and characterised in that, the beads have been created by drying out a suspension containing such reference cells in the presence of the beads, as a result of which the cells attach to the beads, coat them or are bonded to them.
An installation for the hot briquetting or hot compacting, in particular of directly reduced iron, with at least one first press series with one or more roller presses and at least one second press series with one or more second roller presses, with at least one first cooling conveyor and one second cooling conveyor wherein the first cooling conveyor is arranged under the first press series and the second cooling conveyor is arranged under the second press series, and with several material pipelines allocated to the individual roller presses (2, 4) via which the briquetted or compacted material emerging from the roller presses (2, 4) is transferred to the cooling conveyors (7,8), wherein the material pipelines are equipped with several deflectors, wherein the deflectors are adjustable in such a way that the material from the roller presses (2, 4) of the first press series and the second press series is in each case optionally transferred to the first cooling conveyor or to the second cooling conveyor.
A method for production of natural dye from hazelnut leaves characterized in comprising following stages; - Stage of picking/collecting leaves - Drying stage - Pressing stage - Boiling stage - Holding stage - Filtering stage - Holding in dye barrel stage - Stage of picking/collecting leaves - Drying stage - Pressing stage - Boiling stage - Holding stage - Filtering stage - Holding in dye barrel stage
An air conditioning device for a vehicle comprising: a refrigeration cycle including a compressor, a condenser, an expansion valve, and an evaporator through which a refrigerant is sequentially flowed; a high-temperature heat medium circuit through which a high-temperature heat medium has exchanged heat with the refrigerant in the condenser is circulated; a low-temperature heat medium circuit through which a low-temperature heat medium has exchanged heat with the refrigerant in the evaporator is circulated; connection lines (41, 42, 43, 44) connecting the high-temperature heat medium circuit to the low-temperature heat medium circuit; first and second vehicle interior heat exchangers (21, 22) which are allowed to be introduced the heat medium thereinto; and a switching unit which is configured to switch an operation state of the air conditioning device to a first mode allowing to connect one of the vehicle interior heat exchangers (21, 22) to only the low-temperature heat medium circuit via the connection lines (41, 42, 43, 44), in which the low-temperature heat medium is supplied to only the vehicle interior heat exchanger (21, 22) connected to the low-temperature heat medium circuit, to cause freezing of moisture generated on a surface of the vehicle interior heat exchanger (21, 22). a refrigeration cycle including a compressor, a condenser, an expansion valve, and an evaporator through which a refrigerant is sequentially flowed; a high-temperature heat medium circuit through which a high-temperature heat medium has exchanged heat with the refrigerant in the condenser is circulated; a low-temperature heat medium circuit through which a low-temperature heat medium has exchanged heat with the refrigerant in the evaporator is circulated; connection lines (41, 42, 43, 44) connecting the high-temperature heat medium circuit to the low-temperature heat medium circuit; first and second vehicle interior heat exchangers (21, 22) which are allowed to be introduced the heat medium thereinto; and a switching unit which is configured to switch an operation state of the air conditioning device to a first mode allowing to connect one of the vehicle interior heat exchangers (21, 22) to only the low-temperature heat medium circuit via the connection lines (41, 42, 43, 44), in which the low-temperature heat medium is supplied to only the vehicle interior heat exchanger (21, 22) connected to the low-temperature heat medium circuit, to cause freezing of moisture generated on a surface of the vehicle interior heat exchanger (21, 22).
Information processing apparatus for customizing a device driver for controlling peripheral devices, the information processing apparatus comprising: forming means for forming a customized device driver; writing means for writing identification information for identifying the customized device driver formed by the forming means into installation information of the customized device driver; acquisition control means for checking whether an error exists in the installation information and acquiring a list of device drivers from the installation information in a case that it is determined by the checking that there is no error; displaying control means for identifiably displaying a name of the customized device driver formed by said forming unit and a name of a device driver which is not customized in a selecting screen to select a device driver to be installed based on the list of the device drivers acquired by the acquisition control means; selection means for selecting a device driver to be installed in accordance with instruction input via the selecting screen displayed by said displaying control means, wherein two or more device drivers are selectable by the selection means; and installation means for installing the two or more device drivers which are selected by the selection means based on acceptance of a user's operation to start installing of the selected device drivers after the two or more of the device drivers are selected by the selection means. forming means for forming a customized device driver; writing means for writing identification information for identifying the customized device driver formed by the forming means into installation information of the customized device driver; acquisition control means for checking whether an error exists in the installation information and acquiring a list of device drivers from the installation information in a case that it is determined by the checking that there is no error; displaying control means for identifiably displaying a name of the customized device driver formed by said forming unit and a name of a device driver which is not customized in a selecting screen to select a device driver to be installed based on the list of the device drivers acquired by the acquisition control means; selection means for selecting a device driver to be installed in accordance with instruction input via the selecting screen displayed by said displaying control means, wherein two or more device drivers are selectable by the selection means; and installation means for installing the two or more device drivers which are selected by the selection means based on acceptance of a user's operation to start installing of the selected device drivers after the two or more of the device drivers are selected by the selection means.
Device for cutting to length a float glass strip having a normal or structured surface, having the following features: a) in each case a cutting carriage (4, 7) having a lower or an upper running rail (3, 5) for an undercut in the case of a structured surface, or an overcut in the case of a normal surface, wherein both running rails (3, 5) are arranged obliquely at an acute angle in relation to the conveying direction of the glass strip and this inclination is adjustable, b) a number of counterpressure rollers for the lower cutting carriage, c) a hold-down unit having a fracture roller and a front hold-down roller for an undercut, d) a hold-down unit having a fracture roller and a rear hold-down roller for an overcut, e) units (10, 11, 12) for measuring the advancing speed of the glass strip and its current length. a) in each case a cutting carriage (4, 7) having a lower or an upper running rail (3, 5) for an undercut in the case of a structured surface, or an overcut in the case of a normal surface, wherein both running rails (3, 5) are arranged obliquely at an acute angle in relation to the conveying direction of the glass strip and this inclination is adjustable, b) a number of counterpressure rollers for the lower cutting carriage, c) a hold-down unit having a fracture roller and a front hold-down roller for an undercut, d) a hold-down unit having a fracture roller and a rear hold-down roller for an overcut, e) units (10, 11, 12) for measuring the advancing speed of the glass strip and its current length.
A method of displaying an elastic image comprising the steps of: measuring ultrasound cross-section data of a cross-section region of a subject by applying pressuring to the subject; determining a distortion of the tissue in the cross-section region on the basis of the ultrasound cross-section data; generating an elastic image of the cross-section region on the basis of the distortion and displaying the elastic image on a display device, characterized by the steps of determining compression state information relating to a compression state of the cross-section region on the basis of the pressure applied to the subject; and displaying the compression state information together with the elastic image on the display device, wherein the compression state information is determined by integrating the distortion of the tissue of the cross-section region from a state of zero pressure applied to the subject. measuring ultrasound cross-section data of a cross-section region of a subject by applying pressuring to the subject; determining a distortion of the tissue in the cross-section region on the basis of the ultrasound cross-section data; generating an elastic image of the cross-section region on the basis of the distortion and displaying the elastic image on a display device, characterized by the steps of determining compression state information relating to a compression state of the cross-section region on the basis of the pressure applied to the subject; and displaying the compression state information together with the elastic image on the display device, wherein the compression state information is determined by integrating the distortion of the tissue of the cross-section region from a state of zero pressure applied to the subject.
A fluid dispenser device comprising a body, said device further including: an elongate flexible strip supporting a plurality of reservoirs each containing a dose of fluid or powder; reservoir-opening means for opening a respective reservoir on each actuation; first displacement means for causing said flexible strip to advance before and/or during and/or after each actuation, so as to bring a full reservoir into register with said reservoir-opening means; and second displacement means for displacing a full reservoir against said opening means each time the device is actuated, the leading end of said flexible strip, in the advance direction of said strip, being fastened to a receiver element that is rotatably mounted relative to said body, said device being characterized in that said receiver element is adapted to exert a traction force on said elongate strip, said traction force being independent of said first displacement means, said traction force being applied on said strip when said second displacement means move the empty reservoir away from said opening means after each actuation.
A height of cut and rake adjustment system, comprising: a pair of height of cut linkages extending fore and aft above a left side and a right side of a mower deck; a pair of rake linkages extending fore and aft adjacent the left side and right side of the mower deck; wherein each of the pair of height of cut linkages having an effective length that is manually adjustable to change an angle of a pair of front height of cut arms and an angle of a pair of rear height of cut arms relative to the mower deck; characterized in that each of the pair of rake linkages having an effective length that is manually adjustable to change an angle of a pair of front height of cut arms and an angle of a pair of rear height of cut arms relative to the mower deck. a pair of height of cut linkages extending fore and aft above a left side and a right side of a mower deck; a pair of rake linkages extending fore and aft adjacent the left side and right side of the mower deck; wherein each of the pair of height of cut linkages having an effective length that is manually adjustable to change an angle of a pair of front height of cut arms and an angle of a pair of rear height of cut arms relative to the mower deck; characterized in that each of the pair of rake linkages having an effective length that is manually adjustable to change an angle of a pair of front height of cut arms and an angle of a pair of rear height of cut arms relative to the mower deck.
A method for managing a virtualized network function, comprising: initializing, by a Network Functions Virtualization Orchestrator, NFVO, a Virtualized Network Function Manager, VNFM, pool according to configuration information of the VNFM pool, wherein the configuration information comprises an initial number of VNFMs managed by the VNFM pool, a maximum number of VNFMs managed by the VNFM pool, and a maximum number of Virtualized Network Functions, VNFs, managed by each VNFM in the VNFM pool; and monitoring, by the NFVO, a status of each VNFM in the VNFM pool, and, when an invalid VNFM is monitored, ascribing, by the NFVO, one or more VNFs managed by the invalid VNFM to one or more valid VNFMs in the VNFM pool, wherein the invalid VNFM is a VNFM of which the status is invalid, and the valid VNFMs are VNFMs of which the status is valid. initializing, by a Network Functions Virtualization Orchestrator, NFVO, a Virtualized Network Function Manager, VNFM, pool according to configuration information of the VNFM pool, wherein the configuration information comprises an initial number of VNFMs managed by the VNFM pool, a maximum number of VNFMs managed by the VNFM pool, and a maximum number of Virtualized Network Functions, VNFs, managed by each VNFM in the VNFM pool; and monitoring, by the NFVO, a status of each VNFM in the VNFM pool, and, when an invalid VNFM is monitored, ascribing, by the NFVO, one or more VNFs managed by the invalid VNFM to one or more valid VNFMs in the VNFM pool, wherein the invalid VNFM is a VNFM of which the status is invalid, and the valid VNFMs are VNFMs of which the status is valid.
A biostimulator, comprising: a pacing electrode having an electrode axis; a housing having an electronics compartment containing pacing circuitry electrically connected to the pacing electrode, wherein the housing has a housing axis; and an articulation between the pacing electrode and the housing such that, when the pacing electrode is affixed to an interventricular septal wall and the housing is located at a ventricular apex, the electrode axis and the housing axis extend in different directions, characterized in that the articulation includes an articulable hinge having a pin arranged to provide relative movement between the housing and the pacing electrode. a pacing electrode having an electrode axis; a housing having an electronics compartment containing pacing circuitry electrically connected to the pacing electrode, wherein the housing has a housing axis; and an articulation between the pacing electrode and the housing such that, when the pacing electrode is affixed to an interventricular septal wall and the housing is located at a ventricular apex, the electrode axis and the housing axis extend in different directions, characterized in that the articulation includes an articulable hinge having a pin arranged to provide relative movement between the housing and the pacing electrode.
An antenna device for an electronic device for wireless communication, comprising: a ground portion; a feeding portion; an antenna pattern connected to the ground portion via a ground line; a first feeding line that connects the feeding portion and one side of the antenna pattern via a first feeding line, wherein length of a first radiator path is determined by the first feeding line and the first radiator path is configured to transmit/receive a signal of a first frequency band; a branching feeding pattern comprising a second feeding line, that branches from the first feeding line, and connected to another side of the antenna pattern, wherein length of a second radiator path is determined by the second feeding line and the second radiator path is configured to receive a signal of a second frequency band. a ground portion; a feeding portion; an antenna pattern connected to the ground portion via a ground line; a first feeding line that connects the feeding portion and one side of the antenna pattern via a first feeding line, wherein length of a first radiator path is determined by the first feeding line and the first radiator path is configured to transmit/receive a signal of a first frequency band; a branching feeding pattern comprising a second feeding line, that branches from the first feeding line, and connected to another side of the antenna pattern, wherein length of a second radiator path is determined by the second feeding line and the second radiator path is configured to receive a signal of a second frequency band.
An inspiratory gas volume divider comprising at least two inspiratory lines (18, 19) ending with inspiratory branches (14,16) and comprising one-way valves (2,3), and at least two expiratory lines (20, 21) ending with expiratory branches (15,17) and comprising one-way valves (7,12), wherein the inspiratory branches (14,16) and the expiratory branches (15,17) are combined in pairs with each other in at least two inspiratory-expiratory pairs, while the initial portions of the inspiratory lines are connected to a valve divider, characterised in that the valve divider is provided with a control input, wherein the fragments of inspiratory lines (18, 19) in the valve divider are in the form of elastic tubes deformable by means of a moveable element for controlling gas volume in the inspiratory lines (18, 19) downstream of the valve divider; inspiratory gas volume measurement systems (9,10) are interconnected into the inspiratory lines (18,19) downstream of the valve divider, wherein the output signals of the inspiratory gas volume measurement systems (9,10) are delivered to a controller for controlling the inlet control means of the valve divider and the output signals of the controller are delivered to the volume divider's control input.
A communication system, comprising: a signal source configured to provide communication signals; one or more amplifiers (120; 121-123) configured to amplify incoming communication signals; one or more terminators (130, 131) configured to terminate communication signals; leaky transmission lines disposed in correspondence with sections of an elongated area and connecting the signal source to each of the one or more terminators (130, 131) via at least one of the amplifiers (120; 121-124); characterized in further comprising sensors each positioned in correspondence with one of the amplifiers (120; 121-124) and the terminators (130, 131) and configured to sense whether a vehicle approaches said one of the amplifiers (120; 121-124) and the terminators (130, 131); and a power control unit configured to receive sensing results from the sensors and to control each of the amplifiers (120; 121-124) to amplify its incoming communication signals to a normal power level P normal or a power level lower than P normal based on the received sensing results. a signal source configured to provide communication signals; one or more amplifiers (120; 121-123) configured to amplify incoming communication signals; one or more terminators (130, 131) configured to terminate communication signals; leaky transmission lines disposed in correspondence with sections of an elongated area and connecting the signal source to each of the one or more terminators (130, 131) via at least one of the amplifiers (120; 121-124); characterized in further comprising sensors each positioned in correspondence with one of the amplifiers (120; 121-124) and the terminators (130, 131) and configured to sense whether a vehicle approaches said one of the amplifiers (120; 121-124) and the terminators (130, 131); and a power control unit configured to receive sensing results from the sensors and to control each of the amplifiers (120; 121-124) to amplify its incoming communication signals to a normal power level P normal or a power level lower than P normal based on the received sensing results.