mhurhangee/ep-ind-claims huggingface dataset:
A controller, comprising: a microprocessor configured to operate under the control of a set of instructions recorded on a first machine-readable medium, said microprocessor when operating under said set of instructions performing the following steps: controlling the operation of at least one of a source of carbon dioxide, a gas flow subsystem, a temperature control subsystem, and a humidity control subsystem; instituting a flow of a process gas containing carbon dioxide so as to contact a material to be cured by reaction with said carbon dioxide in said process gas; monitoring at least one parameter selected from the group of parameters consisting of an elapsed time from said instituting of said flow, a carbon dioxide concentration, a relative humidity, a flow rate, a temperature, and a pressure of said process gas as said process gas is being provided; characterised by performing at least one of recording at least one of said monitored parameters, or displaying said at least one of said monitored parameters to a user; and determining a state of cure of said material to be cured by reaction with said carbon dioxide. controlling the operation of at least one of a source of carbon dioxide, a gas flow subsystem, a temperature control subsystem, and a humidity control subsystem; instituting a flow of a process gas containing carbon dioxide so as to contact a material to be cured by reaction with said carbon dioxide in said process gas; monitoring at least one parameter selected from the group of parameters consisting of an elapsed time from said instituting of said flow, a carbon dioxide concentration, a relative humidity, a flow rate, a temperature, and a pressure of said process gas as said process gas is being provided; characterised by performing at least one of recording at least one of said monitored parameters, or displaying said at least one of said monitored parameters to a user; and determining a state of cure of said material to be cured by reaction with said carbon dioxide.
Pump, in particular fuel pump, having at least one working chamber, in which a piston, by means of a drive system, bounds the working chamber in a cylinder and pressurizes a fluid, in particular fuel, present in the working chamber, wherein the drive system comprises at least two linear motors (1a -1e), characterised in that the linear motors (la - 1e) forming the drive system are connected electrically and/or mechanically in parallel, wherein a piston rod connected to the piston bundles a force, in particular feed force, of the drive system comprising linear motors (1a - 1e).
A motor vehicle lighting device in an indicator device in a rear-view device, having a rear-view reflection surface, an illuminant and a light guiding device, wherein the light guiding device, light source and rear-view reflection surface are arranged with respect to one another such that the light emitted by the light source is deflected by the light guiding device to a side of the rear-view reflection surface facing away from the driver of the vehicle, wherein the light guiding device is configured with a. a light incoupling side for incoupling light from a light source; b. a reflection side having a reflection layer; and c. a light outcoupling side which is located substantially opposite the reflection side, wherein the distance between the reflection side and the light outcoupling side substantially decreases as the distance from the light incoupling side increases and the reflection side having the reflection layer is designed such that light arriving from the light incoupling side is deflected to the light outcoupling side, wherein the reflection side at least partially has a step-like or wave-like configuration, and wherein the reflection layer is a colour or lacquer coat that is imprinted on the reflection side. a. a light incoupling side for incoupling light from a light source; b. a reflection side having a reflection layer; and c. a light outcoupling side which is located substantially opposite the reflection side,
A fuel tank inerting system (200;300;400), the system comprising: a fuel tank (202;302;404); a catalytic reactor (222;322;402) arranged to receive a reactant mixture comprising a first reactant and a second reactant to generate an inert gas to be supplied to the fuel tank to fill an ullage space of the fuel tank; a condenser heat exchanger (232;332;414) arranged between the catalytic reactor and the fuel tank and configured to cool an output from the catalytic reactor; and a fan assembly arranged within an inerting system flow path upstream of the catalytic reactor, wherein, in use, the fan assembly is arranged within a gas flow having a temperature of at least 185°C; wherein the fan assembly comprises a fan housing that defines a fan cooling cavity with a fan motor (510, 512) having a fan motor rotor and a fan motor stator arranged within the fan cooling cavity of the fan housing and configured to drive operation of the fan assembly, and a cooling supply line configured to supply cooling air to the fan cooling cavity, wherein cool air is supplied into the fan housing to provide cooling to fan components of the fan assembly and prevent ingestion of gas from the gas flow from entering the fan cooling cavity and wherein, in use, an air temperature within the fan cooling cavity is maintained to be 70 °C or less, wherein the cooling supply line is fluidly coupled to a cool cycle junction that is downstream from the condenser heat exchanger and upstream from the fuel tank, wherein the cooling air is cool inert gas extracted from the cool cycle junction and supplied to the fan cooling cavity. a fuel tank (202;302;404); a catalytic reactor (222;322;402) arranged to receive a reactant mixture comprising a first reactant and a second reactant to generate an inert gas to be supplied to the fuel tank to fill an ullage space of the fuel tank; a condenser heat exchanger (232;332;414) arranged between the catalytic reactor and the fuel tank and configured to cool an output from the catalytic reactor; and a fan assembly arranged within an inerting system flow path upstream of the catalytic reactor, wherein, in use, the fan assembly is arranged within a gas flow having a temperature of at least 185°C; wherein the fan assembly comprises a fan housing that defines a fan cooling cavity with a fan motor (510, 512) having a fan motor rotor and a fan motor stator arranged within the fan cooling cavity of the fan housing and configured to drive operation of the fan assembly, and a cooling supply line configured to supply cooling air to the fan cooling cavity, wherein cool air is supplied into the fan housing to provide cooling to fan components of the fan assembly and prevent ingestion of gas from the gas flow from entering the fan cooling cavity and wherein, in use, an air temperature within the fan cooling cavity is maintained to be 70 °C or less, wherein the cooling supply line is fluidly coupled to a cool cycle junction that is downstream from the condenser heat exchanger and upstream from the fuel tank, wherein the cooling air is cool inert gas extracted from the cool cycle junction and supplied to the fan cooling cavity.
A method of mass spectrometry using an ion beam attenuator for transmitting and attenuating a beam of ions, comprising: repeatedly switching the ion beam attenuator between a first mode of operation wherein the ion transmission is 0% and a second mode of operation wherein the ion transmission is > 0%, the ion beam attenuator being operated in said first mode of operation for a time period ΔT 1 and being operated in said second mode of operation for a time period ΔT 2; and adjusting the time period ΔT 1 and/or the time period ΔT 2 so as to adjust the mark space ratio ΔT 2 /ΔT 1 in order to adjust or vary the transmission or attenuation of said ion beam attenuator. repeatedly switching the ion beam attenuator between a first mode of operation wherein the ion transmission is 0% and a second mode of operation wherein the ion transmission is > 0%, the ion beam attenuator being operated in said first mode of operation for a time period ΔT 1 and being operated in said second mode of operation for a time period ΔT 2; and adjusting the time period ΔT 1 and/or the time period ΔT 2 so as to adjust the mark space ratio ΔT 2 /ΔT 1 in order to adjust or vary the transmission or attenuation of said ion beam attenuator.
A solid-state imaging device comprising: a plurality of photoelectric conversion elements that are arrayed in a matrix, wherein each of the photoelectric conversion elements includes a first electrode and a second electrode that are disposed such that principal planes thereof face each other, a photoelectric conversion film that is disposed between the first electrode and the second electrode, a semiconductor layer that is disposed between the photoelectric conversion film and the second electrode and is configured such that a first surface is in contact with the photoelectric conversion film and at least a portion of a second surface on a side opposite to the first surface is in contact with the second electrode, an insulating film that is disposed within the semiconductor layer, and a third electrode that is disposed within the insulating film, wherein the insulating film is configured such that the bottom surface thereof is in contact with the second electrode, wherein each of the photoelectric conversion elements further includes a fourth electrode which is disposed within the insulating film and between the third electrode and the first electrode. a plurality of photoelectric conversion elements that are arrayed in a matrix, wherein each of the photoelectric conversion elements includes a first electrode and a second electrode that are disposed such that principal planes thereof face each other, a photoelectric conversion film that is disposed between the first electrode and the second electrode, a semiconductor layer that is disposed between the photoelectric conversion film and the second electrode and is configured such that a first surface is in contact with the photoelectric conversion film and at least a portion of a second surface on a side opposite to the first surface is in contact with the second electrode, an insulating film that is disposed within the semiconductor layer, and a third electrode that is disposed within the insulating film, wherein the insulating film is configured such that the bottom surface thereof is in contact with the second electrode, wherein each of the photoelectric conversion elements further includes a fourth electrode which is disposed within the insulating film and between the third electrode and the first electrode.
Electric motor comprising a rotor and a stator, the rotor comprising a rotor shaft held in a sliding bearing and the stator comprising a pole tube, a commutator also being provided for conjoint rotation with the rotor shaft, which commutator interacts with carbon brushes that are received in carbon-brush guides, the carbon-brush guides and the sliding bearing being received in a common bearing bracket in which air passages are also formed, which air passages comprise openings that point into the inside of the bearing bracket and extend radially outside the sliding bearing towards the rotor shaft, a fan wheel between the commutator and the rotor being held on the rotor shaft for conjoint rotation therewith, characterised in that the bearing bracket comprises, on the side thereof facing the fan wheel, an air-guiding projection (18, 19) which protrudes into the pole tube of the stator and radially projects beyond the fan wheel.
A neurostimulation control system for use with electrode leads, comprising: a user interface configured for receiving an input from a user; and at least one processor (114, 130) configured for generating instructions to measure a plurality of cross-lead electrical parameters, generating a measured electrical profile of the electrode leads from the measured cross-lead electrical parameters, estimating a plurality of cross-lead electrical parameters to generate a first reference electrical profile for the electrode leads in a first known staggered configuration, characterised in that the processor is further configured for spatially shifting the first reference electrical profile to generate a second reference electrical profile for the electrode leads in a second known staggered configuration, comparing the measured electrical profile to the first and second reference electrical profiles, and quantifying a longitudinal stagger between the electrode leads based on the comparison. a user interface configured for receiving an input from a user; and at least one processor (114, 130) configured for generating instructions to measure a plurality of cross-lead electrical parameters, generating a measured electrical profile of the electrode leads from the measured cross-lead electrical parameters, estimating a plurality of cross-lead electrical parameters to generate a first reference electrical profile for the electrode leads in a first known staggered configuration,
An antibody that specifically binds to the KTPAF50 protein consisting of the amino acid sequence set forth in SEQ ID NO: 2, wherein said antibody is produced by the deposited cell line CNCM I-4331.
An aircraft terrain awareness warning system, comprising: • a database comprising waypoints, each of the waypoints representing a geographical area, at least one of the waypoints including a recognized landing zone associated with a unique landing-zone-identifier; • an interface for receiving flight plan details of an aircraft; • a processor in communication with the interface and the database; wherein said database is in communication with said interface and is adapted to store the flight plan details in a retrievable manner; wherein the flight plan details include at least one waypoint that is associated with a unique landing-zone-identifier starting with a predefined prefix, said predefined prefix identifying a landing zone that is not in a list of recognized landing zone; wherein said processor is configured to parse the flight plan details to detect said at least one waypoint with said predefined prefix; wherein said processor is further configured such that alerts are suppressed in the aircraft during a landing operation thereof performed at the a landing zone associated with said at least one waypoint. • a database comprising waypoints, each of the waypoints representing a geographical area, at least one of the waypoints including a recognized landing zone associated with a unique landing-zone-identifier; • an interface for receiving flight plan details of an aircraft; • a processor in communication with the interface and the database;
Oil pump arrangement of a motor vehicle transmission, with an oil pump which has a pump part and an electric pump motor, the pump part being operatively connected to the pump motor, the pump part and/or the pump motor being mounted on a housing, the housing delimiting an oil space at least partially, the pump part being mounted within the housing, and the pump motor being mounted on the housing from the outside, there being an intermediate shaft, the intermediate shaft connecting the pump part and the pump motor to one another, the housing having a receptacle, the pump motor engaging at least partially into the receptacle, the housing having a mounting wall which delimits the receptacle, the mounting wall having a reach-through, the pump part being centred on the inside on the mounting wall, and the pump motor being centred on the outside on the mounting wall, the intermediate shaft connecting the pump part and the pump motor to one another through the reach-through, the housing being configured as a clutch housing, characterized in that a control unit is arranged on the pump motor, the control unit being sealed with respect to the pump motor, the control unit being sealed with respect to the receptacle by means of at least one sealing means, the control unit lying at least partially outside the receptacle and therefore also outside the clutch housing, the mounting wall having openings, with the result that oil can pass into the receptacle, the receptacle forming a part of the oil space, the pump motor being situated within the oil space, a gap remaining between the pump motor and the receptacle, it being possible for the pump motor to be cooled by way of the oil on the outer circumference.
A method for manufacturing a pair of jaw members (110, 120) configured for use with an electrosurgical forceps, comprising: stamping at least one pair of seal plates from a sheet metal; positioning the seal plates into respective mold cavities; introducing an insulative substrate into the respective mold cavities; allowing the insulative substrate to harden in the respective mold cavities to form respective jaw housings with seal plates secured thereto; and removing the jaw housings from the respective mold cavities to form a pair of jaw members (110, 120); characterised by deforming the stamped out seal plates with a die to provide each of the seal plates with a sealing surface portion and a structural insert portion prior to the step of positioning the seal plates into respective mold cavities; wherein positioning the seal plates includes positioning the seal plates in the mold cavities such that the seal plates extend a predetermined distance past a top surface of the respective insulative jaw housings when the insulative jaw housings have hardened; wherein the step of deforming the seal plates includes deforming the seal plates to include a pinch trim configured to facilitate securing the seal plates to respective insulative jaw housings; and the introducing comprising introducing a curable insulative substrate into the respective mold cavities such that the insulative substrate covers the structural insert portion of the seal plates the allowing comprising allowing the insulative substrate to cure in the respective mold cavities to form the respective jaw housings with seal plates secured thereto. stamping at least one pair of seal plates from a sheet metal; positioning the seal plates into respective mold cavities; introducing an insulative substrate into the respective mold cavities; allowing the insulative substrate to harden in the respective mold cavities to form respective jaw housings with seal plates secured thereto; and removing the jaw housings from the respective mold cavities to form a pair of jaw members (110, 120); characterised by deforming the stamped out seal plates with a die to provide each of the seal plates with a sealing surface portion and a structural insert portion prior to the step of positioning the seal plates into respective mold cavities; wherein positioning the seal plates includes positioning the seal plates in the mold cavities such that the seal plates extend a predetermined distance past a top surface of the respective insulative jaw housings when the insulative jaw housings have hardened; wherein the step of deforming the seal plates includes deforming the seal plates to include a pinch trim configured to facilitate securing the seal plates to respective insulative jaw housings; and the introducing comprising introducing a curable insulative substrate into the respective mold cavities such that the insulative substrate covers the structural insert portion of the seal plates the allowing comprising allowing the insulative substrate to cure in the respective mold cavities to form the respective jaw housings with seal plates secured thereto.
A double cavity-type toroidal continuously variable transmission comprising: an input-side disc and an output-side disc which are provided rotatably and concentrically with each other in a state where inner surfaces of respective disks are opposed to each other; and a power roller held between the disks (2, 34) opposing to each other, wherein the input-side disk is supported on a shaft, the output-side disk is rotatably supported, via a first bearing, on a hollow shaft, the shaft is inserted into the hollow shaft, and the shaft is rotatably supported on the hollow shaft via a second bearing, and wherein the first bearing and the second bearing are arranged such that their extension in axial direction is overlapping, characterized in that the input-side disk is supported non-rotatably on the shaft, the output-side disk is an integrated output-side disk, in which a pair of output-side disks is integrated in a state where the rear surfaces of the pair of output-side disks arranged between a pair of input-side disks are joined to each other, and an output gear is formed by providing an outer peripheral teeth on an outer peripheral surface of the output-side disk, and the hollow shaft is non-rotatably supported by a support member. an input-side disc and an output-side disc which are provided rotatably and concentrically with each other in a state where inner surfaces of respective disks are opposed to each other; and a power roller held between the disks (2, 34) opposing to each other, wherein the input-side disk is supported on a shaft, the output-side disk is rotatably supported, via a first bearing, on a hollow shaft, the shaft is inserted into the hollow shaft, and the shaft is rotatably supported on the hollow shaft via a second bearing, and wherein the first bearing and the second bearing are arranged such that their extension in axial direction is overlapping, the input-side disk is supported non-rotatably on the shaft, the output-side disk is an integrated output-side disk, in which a pair of output-side disks is integrated in a state where the rear surfaces of the pair of output-side disks arranged between a pair of input-side disks are joined to each other, and an output gear is formed by providing an outer peripheral teeth on an outer peripheral surface of the output-side disk, and the hollow shaft is non-rotatably supported by a support member.
Operator control device for a household appliance, having an electronic display panel (11, 11a to 11c), and an operator control element which can be moved relative to the display panel (11, 11a to 11c) to set operating conditions of the household appliance, wherein some areas of the operator control element are embedded in a cover of the at least one electronic display panel (11, 11a to 11c), and some areas of the upper face of an annular front part of the operator control element project above the level of an outer face of the cover, wherein the upper face of the annular front part is funnel-shaped and the outer edge of the front part projects above the outer face of the cover, characterised in that the subcomponents (17, 19) of the operator control element implemented as a ring are disposed in a groove in the outer face of the cover, and wherein a partial area of the outer face of the cover is enclosed by the front part.
A method for tuning ink usage, the method comprising: storing an ink usage adjustment value in a memory of an ink cartridge manufactured as a standard cartridge that can be filled with different types of ink, wherein the ink usage adjustment value is based on measured ink usage properties of the ink cartridge, said measured ink usage properties determined by tests performed on that ink cartridge during the manufacturing process, wherein said ink usage adjustment value is a percentage of a nominal ink usage adjustment value, a nominal ink usage being an average ink usage of a particular cartridge design; and with a printing system utilizing said ink cartridge, adjusting an ink usage of said ink cartridge based on said ink usage adjustment value. storing an ink usage adjustment value in a memory of an ink cartridge manufactured as a standard cartridge that can be filled with different types of ink, wherein the ink usage adjustment value is based on measured ink usage properties of the ink cartridge, said measured ink usage properties determined by tests performed on that ink cartridge during the manufacturing process, wherein said ink usage adjustment value is a percentage of a nominal ink usage adjustment value, a nominal ink usage being an average ink usage of a particular cartridge design; and with a printing system utilizing said ink cartridge, adjusting an ink usage of said ink cartridge based on said ink usage adjustment value.