mhurhangee/ep-ind-claims huggingface dataset:
A blood analyzing method for detecting a short sample of blood in a suction tube when blood is sucked by the suction tube, wherein a short sample of blood occurs when a required amount of blood is not sucked, the method comprising: a first measuring step of measuring hemoglobin by using blood existing in a first region of a blood analysis region of the suction tube; a second measuring step of measuring a red blood cell count and a hematocrit value by using blood existing in a second region that is in the blood analysis region, and that is different from the first region; a calculating step of calculating the mean corpuscular hemoglobin concentration based on the hemoglobin measured in the first measuring step, and the hematocrit value measured in the second measuring step; and a determining step of determining that a short sample of blood occurs, in a case where the mean corpuscular hemoglobin concentration is lower than a predetermined threshold. a first measuring step of measuring hemoglobin by using blood existing in a first region of a blood analysis region of the suction tube; a second measuring step of measuring a red blood cell count and a hematocrit value by using blood existing in a second region that is in the blood analysis region, and that is different from the first region; a calculating step of calculating the mean corpuscular hemoglobin concentration based on the hemoglobin measured in the first measuring step, and the hematocrit value measured in the second measuring step; and a determining step of determining that a short sample of blood occurs, in a case where the mean corpuscular hemoglobin concentration is lower than a predetermined threshold.
A method for suppressing cardiogenic oscillations in a transthoracic electrical impedance signal, comprising steps of: - providing a composite signal S being a transthoracic electrical impedance signal Z, comprising an oscillatory signal S osc being a cardiogenic part of the transthoracic electrical impedance signal Zc and a modulating signal S mod being a respiratory part of the transthoracic electrical impedance signal Zr; - high pass filtering the composite signal S with a high pass filter to produce an estimate of the oscillatory signal Ŝ osc and an estimate of the modulating signal S mod, wherein the estimate of the oscillatory signal Ŝ osc comprises first oscillations during a first state of the modulating signal S mod and second oscillations during a second state of the modulating signal S mod; characterized by the following steps: - defining a first bin associated with said first state and a second bin associated with said second state; - assigning the first bin for said first oscillation according to a state defined from the estimate of the modulating signal Ŝ mod and the second bin for said second oscillation according to a state defined from the estimate of the modulating signal Ŝ mod; - forming a first average waveform for said first oscillations in said first bin and a second average waveform for said second oscillations in said second bin; and - using in said first and second average waveforms for suppressing said oscillatory signal S osc from said composite signal S in the respective states of said first and second average waveforms. - providing a composite signal S being a transthoracic electrical impedance signal Z, comprising an oscillatory signal S osc being a cardiogenic part of the transthoracic electrical impedance signal Zc and a modulating signal S mod being a respiratory part of the transthoracic electrical impedance signal Zr; - high pass filtering the composite signal S with a high pass filter to produce an estimate of the oscillatory signal Ŝ osc and an estimate of the modulating signal S mod, wherein the estimate of the oscillatory signal Ŝ osc comprises first oscillations during a first state of the modulating signal S mod and second oscillations during a second state of the modulating signal S mod; - defining a first bin associated with said first state and a second bin associated with said second state; - assigning the first bin for said first oscillation according to a state defined from the estimate of the modulating signal Ŝ mod and the second bin for said second oscillation according to a state defined from the estimate of the modulating signal Ŝ mod; - forming a first average waveform for said first oscillations in said first bin and a second average waveform for said second oscillations in said second bin; and - using in said first and second average waveforms for suppressing said oscillatory signal S osc from said composite signal S in the respective states of said first and second average waveforms.
A sample analyzer for performing analysis regarding a predetermined measurement item by using a combination of at least a first reagent and a second reagent comprising: a reagent container holder configured to hold a first reagent container which contains the first reagent and which includes a first storage medium (104, 105), and a second reagent container which contains the second reagent and which includes a second storage medium; a writer configured to write information into the first storage medium and the second storage medium; and characterised in a controller configured to control the writer to write, into the first storage medium of the first reagent container, identification information for identifying the second reagent container which is paired with the first reagent container. a reagent container holder configured to hold a first reagent container which contains the first reagent and which includes a first storage medium (104, 105), and a second reagent container which contains the second reagent and which includes a second storage medium; a writer configured to write information into the first storage medium and the second storage medium; and characterised in a controller configured to control the writer to write, into the first storage medium of the first reagent container, identification information for identifying the second reagent container which is paired with the first reagent container.
An inkjet printhead comprising: an elongate fluid manifold having a base comprising a truss structure, the truss structure having webs extending between opposite chords (62, 64), wherein a plurality of openings between the webs and the chords define fluid outlets; and one or more printhead chips attached to the webs of the truss structure, each printhead chip receiving printing fluid from a plurality of the fluid outlets, characterized in that all fluid outlets of the truss structure are laterally flared towards a side of a respective printhead chip. an elongate fluid manifold having a base comprising a truss structure, the truss structure having webs extending between opposite chords (62, 64), wherein a plurality of openings between the webs and the chords define fluid outlets; and one or more printhead chips attached to the webs of the truss structure, each printhead chip receiving printing fluid from a plurality of the fluid outlets, characterized in that all fluid outlets of the truss structure are laterally flared towards a side of a respective printhead chip.
A method in a user equipment for obtaining a Modulation and Coding Scheme, MCS, which MCS is to be used for a transmission between the user equipment and any one or more out of the network node or a second network node, which user equipment has knowledge about a modulation and coding index table, the method comprising receiving one or more offset values from the network node, obtaining an MCS indicator related to said transmission, obtaining the MCS from the modulation and coding index table based on a function of the MCS indicator and the one or more offset values, wherein the one or more offset values comprise multiple offset values, and wherein the respective offset value out of the multiple offset values are associated with one or more out of: a rank, a quasi co-location, a downlink control information format, a Downlink control information resource, comprising any one out of: a user equipment search space for a Physical Downlink Control Channel, PDCCH, or evolved PDCCH, EPDCCH, and/or evolved PDCCH-Physical Resource Block, PRB,-set, EPDCCH-PRB-set, a transmission mode, an RNTI. receiving one or more offset values from the network node, obtaining an MCS indicator related to said transmission, obtaining the MCS from the modulation and coding index table based on a function of the MCS indicator and the one or more offset values, wherein the one or more offset values comprise multiple offset values, and wherein the respective offset value out of the multiple offset values are associated with one or more out of: a rank, a quasi co-location, a downlink control information format, a Downlink control information resource, comprising any one out of: a user equipment search space for a Physical Downlink Control Channel, PDCCH, or evolved PDCCH, EPDCCH, and/or evolved PDCCH-Physical Resource Block, PRB,-set, EPDCCH-PRB-set, a rank, a quasi co-location, a downlink control information format, a Downlink control information resource, comprising any one out of: a user equipment search space for a Physical Downlink Control Channel, PDCCH, or evolved PDCCH, EPDCCH, and/or evolved PDCCH-Physical Resource Block, PRB,-set, EPDCCH-PRB-set, a transmission mode,
A modified coxsackievirus of which proliferation is suppressed in a tissue-specific manner, which comprises a mutated genome corresponding to genome of coxsackievirus B3 wild-type (CVB3-WT) inserted with at least one polynucleotide consisting of a target sequence of a tissue-specific microRNA (miRNA), wherein the insertion position is a position between the positions 7304 and 7305 of the CVB3-WT genome.
Method for reworking a defect affecting a weld, characterized in that it comprises: - a first step of placing a sheet of filler metal in the region of the defect, the said sheet being placed on the surface of the welded part opposite the region of the defect and being blocked against rotation; - a second step of locally welding the sheet of filler metal to the welded part, the welding being carried out in the region of the defect with the aid of a friction stir welding means comprising a retractable welding pin; - a third step of separating the welded part and the sheet of filler metal, the separation being carried out such that it leaves in place the filler metal amalgamated by welding with the metal of the welded part, and in that the local welding step comprises the following successive operations: - setting the tool with a retractable pin in rotation and putting it under pressure; - inserting the retractable pin to a small distance of a few hundred μm from the anvil while maintaining or accentuating the pressure on the shoulder; - progressively withdrawing the retractable pin while maintaining or accentuating the pressure on the shoulder; - stopping pressure being maintained on the shoulder when the retractable pin is withdrawn above the part; and in that it additionally comprises a fourth additional step of renewing the surface state of the welded part in the reworked region. - a first step of placing a sheet of filler metal in the region of the defect, the said sheet being placed on the surface of the welded part opposite the region of the defect and being blocked against rotation; - a second step of locally welding the sheet of filler metal to the welded part, the welding being carried out in the region of the defect with the aid of a friction stir welding means comprising a retractable welding pin; - a third step of separating the welded part and the sheet of filler metal, the separation being carried out such that it leaves in place the filler metal amalgamated by welding with the metal of the welded part, and in that the local welding step comprises the following successive operations: - setting the tool with a retractable pin in rotation and putting it under pressure; - inserting the retractable pin to a small distance of a few hundred μm from the anvil while maintaining or accentuating the pressure on the shoulder; - progressively withdrawing the retractable pin while maintaining or accentuating the pressure on the shoulder; - stopping pressure being maintained on the shoulder when the retractable pin is withdrawn above the part;
Domestic electrical appliance having a pump for fluids, wherein the pump is disposed within the domestic electrical appliance and includes a drive motor and a heating device for heating the fluid during passage through the pump and a single conveyor driven by the drive motor, wherein the pump and the single conveyor are configured to pump both air and water, characterized in that the pump has different intake positions (31, 34) for air and water, each leading towards the conveyor, and/or different discharge positions for air and water, each leading away from the conveyor.
An RTM method in which a preform (1, 11, 27, 45) formed from a reinforcing fiber substrate is placed in a cavity (22, 41) of a molding die, and resin is injected from a plurality of injection ports (3, 4) into said cavity (22, 41) and impregnated into said preform (1, 11, 27, 45), wherein said plurality of injection ports (12, 13, 43, 44) are disposed in first positions in a central section of said cavity (22, 41) corresponding to positions of said preform (1, 11, 27, 45) located in a product area of an article to be finally molded and second positions located in a periphery of said cavity (22, 41) corresponding to positions of said preform (1, 11, 27, 45) outside said product area of said article to be finally molded or corresponding to positions inside said cavity (22, 41) but outside an area of said preform (1, 11, 27, 45), and timings for closing said injection ports (12, 13, 43, 44) after resin injection are made to be different from each other between injection ports disposed in said first positions (13, 43) and injection ports disposed in said second positions (14, 42), characterized in that said injection ports disposed in said first positions (13, 43) are closed prior to said injection ports disposed in said second positions (14, 42).
Dome device comprising a substantially flat first light-transmitting element, a glass dome element and a closed connecting device between a peripheral part of the first element and a peripheral part of the glass dome element, such that at least one closed space is formed between the first element and the glass dome element; wherein a gas is included in the closed space; characterized in that the first element comprises a light-transmitting film which is tensioned in a clamping profile.
A method performed by a wireless device in a first Neighbor Awareness Network device cluster, NAN cluster, to join a second NAN cluster, wherein each of the first and second NAN clusters is a Wi-Fi NAN cluster of Wi-Fi Alliance and comprises a plurality of wireless devices, the method characterized by comprising: discovering (101, 201) the second NAN cluster; determining (103, 203) to join the second NAN cluster based on attribute information obtained regarding the second NAN cluster; sending an event message about joining the second NAN cluster to other wireless devices in the first NAN cluster, wherein the event message comprises a part or all of the obtained attribute information of the second NAN cluster; joining the second NAN cluster; and leaving the first NAN cluster; wherein the step of determining comprises: calculating, by the wireless device, a first score based on multiple pieces of attribute information of the first NAN cluster, and a second score based on multiple pieces of attribute information of the second NAN cluster; comparing the first score and the second score; determining to join the second NAN cluster when the second score is greater than the first score. discovering (101, 201) the second NAN cluster; determining (103, 203) to join the second NAN cluster based on attribute information obtained regarding the second NAN cluster; sending an event message about joining the second NAN cluster to other wireless devices in the first NAN cluster, wherein the event message comprises a part or all of the obtained attribute information of the second NAN cluster; joining the second NAN cluster; and leaving the first NAN cluster; wherein the step of determining comprises: calculating, by the wireless device, a first score based on multiple pieces of attribute information of the first NAN cluster, and a second score based on multiple pieces of attribute information of the second NAN cluster; comparing the first score and the second score; determining to join the second NAN cluster when the second score is greater than the first score. calculating, by the wireless device, a first score based on multiple pieces of attribute information of the first NAN cluster, and a second score based on multiple pieces of attribute information of the second NAN cluster; comparing the first score and the second score; determining to join the second NAN cluster when the second score is greater than the first score.
A power module comprising; a power wiring line provided with a power element; a glass ceramic multilayer substrate; and a highly heat-conductive ceramic substrate composed of a ceramic material having higher thermal conductivity than a glass ceramic contained in the glass ceramic multilayer substrate, wherein the glass ceramic multilayer substrate is disposed directly on the highly heat-conductive ceramic substrate characterized in that the glass ceramic multilayer substrate is provided with a control element to control the power element, and the power wiring line is disposed on the highly heat-conductive ceramic substrate. a power wiring line provided with a power element; a glass ceramic multilayer substrate; and a highly heat-conductive ceramic substrate composed of a ceramic material having higher thermal conductivity than a glass ceramic contained in the glass ceramic multilayer substrate, wherein the glass ceramic multilayer substrate is disposed directly on the highly heat-conductive ceramic substrate characterized in that the glass ceramic multilayer substrate is provided with a control element to control the power element, and the power wiring line is disposed on the highly heat-conductive ceramic substrate.
Delivery device for the fuel filler neck of motor vehicles, comprising a support part having a hinged cover swingable between a closed position in which said cover is locked through locking/unlocking means, and an open position operable by means of the actual nozzle of the fuel filler hose, wherein the locking/unlocking means comprise a flexible fork to which there are integrally attached at least two flanges (12, 22) suitable in size so that upon being pressed by the nozzle of the fuel filler hose they perform a simultaneous side movement towards the outer perimeter of the support part, releasing the cover from the locking/unlocking means, whereby - the flanges (12, 22) additionally comprise fixing means on which the cover is locked in the closed position, said fixing means comprising recesses (51, 52) made in the lower area of the flanges (12, 22) and in which the cover is inserted in the closed position; characterized in that - the flexible fork comprises two side branches and an intermediate section oriented towards the center of the support part and joining both side branches. - the flanges (12, 22) additionally comprise fixing means on which the cover is locked in the closed position, said fixing means comprising recesses (51, 52) made in the lower area of the flanges (12, 22) and in which the cover is inserted in the closed position; characterized in that - the flexible fork comprises two side branches and an intermediate section oriented towards the center of the support part and joining both side branches.
A method for manufacturing a structure, the method comprising: supporting a part for the structure on a plurality of mobile fixtures configured to control an orientation of the part, wherein a mobile fixture in the plurality of mobile fixtures comprises a motorized base configured to move on a surface of a floor, a support system associated with the motorized base in which the support system is configured to be positioned to support a portion of the part, and a controller associated with the motorized base in which the controller is configured to control movement of the motorized base, wherein the motorized base has a housing and a movement system, wherein the movement system comprises magnetic tracks and a motor to move the magnetic tracks, and wherein the magnetic tracks each include a belt with magnets for attraction to the surface of the floor to provide a contact to the floor during movement; moving the part for the structure using the plurality of mobile fixtures to a number of stations for performing a number of operations for manufacturing the structure using the part in which the plurality of mobile fixtures is configured to move in a coordinated manner and substantially maintain a desired orientation for the part while moving the part to a station in the number of stations; and performing the number of operations for manufacturing the structure at the number of stations while the plurality of mobile fixtures supports the part. supporting a part for the structure on a plurality of mobile fixtures configured to control an orientation of the part, wherein a mobile fixture in the plurality of mobile fixtures comprises a motorized base configured to move on a surface of a floor, a support system associated with the motorized base in which the support system is configured to be positioned to support a portion of the part, and a controller associated with the motorized base in which the controller is configured to control movement of the motorized base, wherein the motorized base has a housing and a movement system, wherein the movement system comprises magnetic tracks and a motor to move the magnetic tracks, and wherein the magnetic tracks each include a belt with magnets for attraction to the surface of the floor to provide a contact to the floor during movement; moving the part for the structure using the plurality of mobile fixtures to a number of stations for performing a number of operations for manufacturing the structure using the part in which the plurality of mobile fixtures is configured to move in a coordinated manner and substantially maintain a desired orientation for the part while moving the part to a station in the number of stations; and performing the number of operations for manufacturing the structure at the number of stations while the plurality of mobile fixtures supports the part.