mhurhangee/ep-ind-claims huggingface dataset:
An abnormality detection device for a suction nozzle including a mounting head, a nozzle holder, a nozzle portion that adsorbs a component, the nozzle portion being vertically movable, biasing means for biasing downward the nozzle portion such that after a lower end of the nozzle portion comes into contact with the component at a time of a component adsorption operation or after the component adsorbed on the nozzle portion comes into contact with a circuit board at a time of a component mounting operation, the nozzle portion is pushed in against a biasing force of the biasing means according to a downward movement of the nozzle holder, an air flow path in the nozzle holder that is opened and closed by vertical movement of the nozzle portion; and detection means for detecting an amount or a pressure of air flow in the air flow path, wherein the abnormality detection device is configured to detect a defect of the vertical movement of the nozzle portion by supplying air to the air flow path and monitoring the amount or pressure of the air flow by the detection means, characterized in that the abnormality detection device is configured to detect the defect of the vertical movement of the nozzle portion when the suction nozzle is pushed in at the time of the component adsorption operation or at the time of the component mounting operation. an air flow path in the nozzle holder that is opened and closed by vertical movement of the nozzle portion; and detection means for detecting an amount or a pressure of air flow in the air flow path, wherein the abnormality detection device is configured to detect a defect of the vertical movement of the nozzle portion by supplying air to the air flow path and monitoring the amount or pressure of the air flow by the detection means, characterized in that the abnormality detection device is configured to detect the defect of the vertical movement of the nozzle portion when the suction nozzle is pushed in at the time of the component adsorption operation or at the time of the component mounting operation.
A centrifugal blood pump device comprising: a housing having a blood inflow port and a blood outflow port; a centrifugal pump section including a magnetic member, and an impeller which rotates in the housing to send blood by centrifugal force upon rotation; an impeller rotation torque generation section for attracting and rotating the impeller of the centrifugal pump section; and a plurality of grooves for hydrodynamic bearing disposed on a housing inner face on the impeller rotation torque generation section side or on a face of the impeller on the impeller rotation torque generation section side, wherein the impeller is rotated in a non-contacting state with respect to the housing by the grooves for hydrodynamic bearing, and characterised in that each of the grooves for hydrodynamic bearing has inclined side walls inclined obliquely with respect to a bottom of the groove, such that the groove for hydrodynamic bearing is expanded at two long sides and two short sides toward an opening of the groove for hydrodynamic bearing from the bottom of the groove for hydrodynamic bearing or from a location displaced by a predetermined distance from the bottom toward the opening of the groove for hydrodynamic bearing. a housing having a blood inflow port and a blood outflow port; a centrifugal pump section including a magnetic member, and an impeller which rotates in the housing to send blood by centrifugal force upon rotation; an impeller rotation torque generation section for attracting and rotating the impeller of the centrifugal pump section; and a plurality of grooves for hydrodynamic bearing disposed on a housing inner face on the impeller rotation torque generation section side or on a face of the impeller on the impeller rotation torque generation section side, wherein the impeller is rotated in a non-contacting state with respect to the housing by the grooves for hydrodynamic bearing, and characterised in that each of the grooves for hydrodynamic bearing has inclined side walls inclined obliquely with respect to a bottom of the groove, such that the groove for hydrodynamic bearing is expanded at two long sides and two short sides toward an opening of the groove for hydrodynamic bearing from the bottom of the groove for hydrodynamic bearing or from a location displaced by a predetermined distance from the bottom toward the opening of the groove for hydrodynamic bearing.
A herbicidal composition comprising 1-(1-ethyl-4-(3-(2-methoxyethoxy)-2-methyl-4-(methylsulfonyl)benzoyl)-1H-pyrazol-5-yloxy)ethyl methyl carbonate or its salt and at least one compound selected from the group consisting of fenchlorazole-ethyl, isoxadifen-ethyl, mefenpyr-diethyl, cloquintocet-mexyl and cyprosulfamide.
A wind turbine, comprising: a tower; a blade for rotating on the tower; a rotor shaft, connected to the blade, having an axial hole; a line, arranged in the hole, for carrying a signal, a support wrapped around the line inside the hole for spacing the line from the rotor shaft inside the hole, wherein the support expands radially to at least partially fill an annular space between the line and an inside wall of the axial hole; the support comprises a plurality of fingers for positioning the support in the rotor shaft; wherein the support comprises a valve, stopper or closure for allowing fluid to be added or removed from inside of the support; and characterised in that the support is self-inflating. a tower; a blade for rotating on the tower; a rotor shaft, connected to the blade, having an axial hole; a line, arranged in the hole, for carrying a signal, a support wrapped around the line inside the hole for spacing the line from the rotor shaft inside the hole, wherein the support expands radially to at least partially fill an annular space between the line and an inside wall of the axial hole; the support comprises a plurality of fingers for positioning the support in the rotor shaft; wherein the support comprises a valve, stopper or closure for allowing fluid to be added or removed from inside of the support; and characterised in that the support is self-inflating.
A dental implant system (1, 1', 1") having a first implant part (2, 2', 2") provided for introduction into a jawbone and having a second implant part associated therewith and provided for attachment of a dental prosthesis piece, wherein the implant parts (2, 2', 2", 4) can be mechanically connected to each other by means of a connecting stud which is formed on one of the implant parts (2, 2', 2", 4) and can be inserted into a receiving channel provided in the other implant part (2, 2', 2", 4), wherein the connecting stud is made of a material with a hardness (according to Vickers) of at least 500 and in a contact region with the receiving channel is provided on its surface with a coating having a layer thickness of at most 0.3 mm and made of a material which is softer as compared with the material of the connecting stud, wherein the connecting stud has in its surface region provided with the coating a porous surface for forming a substance-locking connection with the coating, and wherein the surface of the connecting stud has in the region of the substance-locking connection with the coating a roughness value of at most 10 % of the layer thickness.
A system for analyzing a glucose level of a person having diabetes, the system comprising: - a computing device; - a controller comprising a computer readable medium having computer executable instructions which when executed by the controller cause the controller to: - receive into the computing device a plurality of measured glucose values from a glucose sensor coupled to a person having diabetes, a maximum allowable glucose, a minimum insulin dose and a correction factor, - analyze the plurality of measured glucose values with a probability analysis tool on the computing device to determine a boundary glucose value ( g ρ) at a probability threshold where the person having diabetes requires at least a predetermined insulin dose, wherein the boundary glucose value ( g ρ) is g ρ = 2 σ g 2 erf − 1 2 ρ − 1 + g, wherein σ g 2 is a variance of glucose measurement, ρ is the probability threshold, and g is a glucose value from the plurality of measured glucose values, - determine, with the computing device, a glucose threshold ( g I o) using the maximum allowable glucose, the minimum insulin dose and the correction factor, and - compare, with the computing device, the boundary glucose value ( g ρ) to the glucose threshold ( g I o), wherein if the boundary glucose value ( g ρ) is greater than the glucose threshold ( g Io) then the computing device executes an alert; and - a bolus calculator in communication with the controller, the bolus calculator capable of determining an insulin bolus based on the plurality of measured glucose values. - a computing device; - a controller comprising a computer readable medium having computer executable instructions which when executed by the controller cause the controller to: - receive into the computing device a plurality of measured glucose values from a glucose sensor coupled to a person having diabetes, a maximum allowable glucose, a minimum insulin dose and a correction factor, - analyze the plurality of measured glucose values with a probability analysis tool on the computing device to determine a boundary glucose value ( g ρ) at a probability threshold where the person having diabetes requires at least a predetermined insulin dose, wherein the boundary glucose value ( g ρ) is g ρ = 2 σ g 2 erf − 1 2 ρ − 1 + g, wherein σ g 2 is a variance of glucose measurement, ρ is the probability threshold, and g is a glucose value from the plurality of measured glucose values, - determine, with the computing device, a glucose threshold ( g I o) using the maximum allowable glucose, the minimum insulin dose and the correction factor, and - compare, with the computing device, the boundary glucose value ( g ρ) to the glucose threshold ( g I o), wherein if the boundary glucose value ( g ρ) is greater than the glucose threshold ( g Io) then the computing device executes an alert; and - a bolus calculator in communication with the controller, the bolus calculator capable of determining an insulin bolus based on the plurality of measured glucose values.
Weighing device for piece goods, which has a belt conveyor (240, 340) and at least one weighing scale (101, 201, 301, 801) arranged below the belt conveyor (240, 340), said weighing scale comprising a support for the goods to be weighed (203, 303, 803), wherein the weighing scale (101, 201, 301, 801) is arranged rigidly, the belt conveyor (240, 340) comprises at least two conveyor belts (245, 345), the support for the goods to be weighed (203, 303, 803) is provided with at least one support extension (207, 307, 807) that can be guided between the conveyor belts (245, 345) of the belt conveyor (240, 340) and the conveyor belts (245, 345) of the belt conveyor (240, 340) can be moved toward the scale (101, 201, 301, 801) such that the support extensions (207, 307, 807) are guided between the conveyor belts (245, 345), without moving themselves, and piece goods moved on the conveyor belts (245, 345) are placed on the support extensions (207, 307, 807) and can be weighed by the weighing scale (101, 201, 301, 801), wherein the belt conveyor unit arranged above the weighing scale can be moved in its entirety toward the weighing scale (101, 201, 301, 801), the end positions of the movement of the belt conveyor (240, 340) are damped, the belt conveyor (240, 340) is moved by a single actuator (120, 220, 820), characterized in that the weighing scale (101, 201, 301, 801) is arranged completely below the belt conveyor (240, 340) in conveying mode and at least two weighing scales (101, 201, 301, 801) having different weighing ranges are used.
A light emitting device, comprising: a light emitting diode chip having a first array of light emitting diodes (C n) connected in series; and switching blocks (G n) connected to nodes (L n-1) between the light emitting diodes (C n), respectively, wherein the light emitting diodes (C n) are sequentially turned on and off during a half cycle of an AC-power source by the switching blocks (G n) when the array is connected to and directly driven by the AC voltage power source, such that the light emitting diodes are sequentially turned on when the AC voltage is increased and sequentially turned off when the AC voltage is decreased, further comprising a second array of light emitting diodes (C n) connected in series, the second array being connected in reverse parallel to the first array of the light emitting diodes (C n) connected in series. a light emitting diode chip having a first array of light emitting diodes (C n) connected in series; and switching blocks (G n) connected to nodes (L n-1) between the light emitting diodes (C n), respectively, wherein the light emitting diodes (C n) are sequentially turned on and off during a half cycle of an AC-power source by the switching blocks (G n) when the array is connected to and directly driven by the AC voltage power source, such that the light emitting diodes are sequentially turned on when the AC voltage is increased and sequentially turned off when the AC voltage is decreased, further comprising a second array of light emitting diodes (C n) connected in series, the second array being connected in reverse parallel to the first array of the light emitting diodes (C n) connected in series.
A user equipment, UE, (120, 322, 324, 405, 700) for wireless communication, comprising: a memory; and one or more processors (258, 264, 266, 280), coupled to the memory, configured to: obtain, using a sensor, one or more sensor measurements associated with an indoor environment, wherein the sensor comprises one or more of a radar device and a light detection and ranging device; determine (420, 510) that the UE (120, 322, 324, 405, 700) is located in the indoor environment based at least in part on the one or more sensor measurements; and communicate (440, 520) using an indoor communication mode based at least in part on determining that the UE (120, 322, 324, 405, 700) is located in the indoor environment. a memory; and one or more processors (258, 264, 266, 280), coupled to the memory, configured to: obtain, using a sensor, one or more sensor measurements associated with an indoor environment, wherein the sensor comprises one or more of a radar device and a light detection and ranging device; determine (420, 510) that the UE (120, 322, 324, 405, 700) is located in the indoor environment based at least in part on the one or more sensor measurements; and communicate (440, 520) using an indoor communication mode based at least in part on determining that the UE (120, 322, 324, 405, 700) is located in the indoor environment. obtain, using a sensor, one or more sensor measurements associated with an indoor environment, wherein the sensor comprises one or more of a radar device and a light detection and ranging device; determine (420, 510) that the UE (120, 322, 324, 405, 700) is located in the indoor environment based at least in part on the one or more sensor measurements; and communicate (440, 520) using an indoor communication mode based at least in part on determining that the UE (120, 322, 324, 405, 700) is located in the indoor environment.
Rotor of an electric motor, comprising a plurality of armature sections which are designed as individual, separate armature blocks, a plurality of magnets, wherein the armature blocks and the magnets are individually and alternately put together to form a substantially annular arrangement and wherein a magnet is arranged between in each case two adjacent armature blocks, a rotor core and a plastic encapsulation, wherein the rotor core is formed by the plastic encapsulation from plastic, characterized in that the individual armature blocks, on their inner side which faces a rotor centre axis (Y-Y), have a plurality of eyelet-like anchoring means (2*) which are arranged in a manner distributed at equal distances in relation to one another over the length of an associated armature block, wherein, in the encapsulated state of the rotor 1, all of these anchoring arrangements (2*) are surrounded by the plastic compound of the rotor core, so that they form a solid interlocking connection with the rotor core. a plurality of magnets, wherein the armature blocks and the magnets are individually and alternately put together to form a substantially annular arrangement and wherein a magnet is arranged between in each case two adjacent armature blocks, a rotor core and a plastic encapsulation, wherein the rotor core is formed by the plastic encapsulation from plastic, characterized in that the individual armature blocks, on their inner side which faces a rotor centre axis (Y-Y), have a plurality of eyelet-like anchoring means (2*) which are arranged in a manner distributed at equal distances in relation to one another over the length of an associated armature block, wherein, in the encapsulated state of the rotor 1, all of these anchoring arrangements (2*) are surrounded by the plastic compound of the rotor core, so that they form a solid interlocking connection with the rotor core.
A product comprising follicle stimulating hormone for use in the treatment of infertility in a patient having serum AMH level of <15 pmol/L, wherein the product is to be administered at a dose of, or equivalent to, 11 to 13 μg human derived recombinant FSH per day, the recombinant FSH including α2, 3- and α2, 6- sialylation wherein 1 % to 50% of the total sialylation is α2, 6- sialyation, and 50% to 99% of the total sialylation is α 2,3- sialyation; and wherein the treatment of infertility comprises a step of determining the serum AMH level of the patient, and a step of administering the dose to a patient having serum AMH level of <15 pmol/L.
A deployment assembly for expanding a liner string in a wellbore, comprising: a tubular mandrel having a bore therethrough; an expander linked to the mandrel and operable between an extended position and a retracted position; an extension tool disposed along the mandrel and operable to extend the expander; and a retraction tool disposed along the mandrel and having: an upper piston in fluid communication with the mandrel bore and operable to retract the expander; characterized in that the retraction tool further comprises a lower piston in fluid communication with the mandrel bore and operable to balance the upper piston; a valve disposed between the pistons (64u,b) for isolating the lower piston from the upper piston in a closed position; and an electronics package linked to the valve for closing the valve in response to receiving a command signal. a tubular mandrel having a bore therethrough; an expander linked to the mandrel and operable between an extended position and a retracted position; an extension tool disposed along the mandrel and operable to extend the expander; and a retraction tool disposed along the mandrel and having: an upper piston in fluid communication with the mandrel bore and operable to retract the expander; characterized in that the retraction tool further comprises a lower piston in fluid communication with the mandrel bore and operable to balance the upper piston; a valve disposed between the pistons (64u,b) for isolating the lower piston from the upper piston in a closed position; and an electronics package linked to the valve for closing the valve in response to receiving a command signal. an upper piston in fluid communication with the mandrel bore and operable to retract the expander; characterized in that the retraction tool further comprises a lower piston in fluid communication with the mandrel bore and operable to balance the upper piston; a valve disposed between the pistons (64u,b) for isolating the lower piston from the upper piston in a closed position; and an electronics package linked to the valve for closing the valve in response to receiving a command signal.
A method of centrifuging a blood sample comprising the steps of: - providing a centrifuge comprising a rotor having a rotational axis, at least one receptacle for a blood sample container having a gravitational axis, controller means for controlling the rotational speed of the rotor, optical transmitter for transmitting an optical signal, optical receiver for registering the amplitude of the optical signal, - placing a blood sample container inside the receptacle, where the blood sample container comprises a top end and a bottom end and has a central axis, where the gravitational axis of the receptacle is substantially parallel to the central axis of the blood sample container, - starting the centrifugal process, where the gravitational axis of the receptacle is at an angle to the rotational axis of the centrifuge and where the centrifugal force extends in a direction that first intersects the top end and subsequently the bottom end of the container, - transmitting the optical signal towards the blood sample container in a direction that is at an angle to the gravitational axis of the receptacle, where the optical signal is transmitted through an upper phase and/or the plasma of the blood sample, - registering the amplitude of the optical signal on a side of the receptacle opposite to the source of the optical signal, and - discontinuing the centrifugal process when the amplitude of the optical signal over time has fulfilled a predefined pattern, indicating that at least the fibrin polymerisation phase of the blood plasma is started. - providing a centrifuge comprising a rotor having a rotational axis, at least one receptacle for a blood sample container having a gravitational axis, controller means for controlling the rotational speed of the rotor, optical transmitter for transmitting an optical signal, optical receiver for registering the amplitude of the optical signal, - placing a blood sample container inside the receptacle, where the blood sample container comprises a top end and a bottom end and has a central axis, where the gravitational axis of the receptacle is substantially parallel to the central axis of the blood sample container, - starting the centrifugal process, where the gravitational axis of the receptacle is at an angle to the rotational axis of the centrifuge and where the centrifugal force extends in a direction that first intersects the top end and subsequently the bottom end of the container, - transmitting the optical signal towards the blood sample container in a direction that is at an angle to the gravitational axis of the receptacle, where the optical signal is transmitted through an upper phase and/or the plasma of the blood sample, - registering the amplitude of the optical signal on a side of the receptacle opposite to the source of the optical signal, and - discontinuing the centrifugal process when the amplitude of the optical signal over time has fulfilled a predefined pattern, indicating that at least the fibrin polymerisation phase of the blood plasma is started.