mhurhangee/ep-ind-claims huggingface dataset:
A method for dynamically switching between different network service providers, the method comprising: receiving, from a user equipment having a subscriber identity module associated with a primary service provider, a service provider switch request, wherein the request is indicative of switching the SIM from the primary service provider to a secondary service provider; authenticating the SPS request based at least on a user subscription; and triggering an update of service control point address in a home location register of the primary service provider based on receipt of a response to the authentication, wherein the update switches the SIM from the primary service provider to the secondary service provider. receiving, from a user equipment having a subscriber identity module associated with a primary service provider, a service provider switch request, wherein the request is indicative of switching the SIM from the primary service provider to a secondary service provider; authenticating the SPS request based at least on a user subscription; and triggering an update of service control point address in a home location register of the primary service provider based on receipt of a response to the authentication, wherein the update switches the SIM from the primary service provider to the secondary service provider.
A hydrocarbon reforming catalyst used for forming a synthetic gas containing hydrogen and carbon monoxide from a hydrocarbon-based gas, the hydrocarbon reforming catalyst comprising: a complex oxide having a perovskite structure, wherein the complex oxide has a crystal phase containing BaCeO 3 as a primary component and contains Ru, wherein the complex oxide further has a crystal phase containing BaZrO 3 as a primary component; wherein the complex oxide contains Y, wherein the perovskite structure is composed of at least Ba, Zr, Ce, Y, and Ru, and wherein a molar ratio of the Ru to the Ba is 0.04 or more and 0.43 or less. a complex oxide having a perovskite structure, wherein the complex oxide has a crystal phase containing BaCeO 3 as a primary component and contains Ru, wherein the complex oxide further has a crystal phase containing BaZrO 3 as a primary component; wherein the complex oxide contains Y, wherein the perovskite structure is composed of at least Ba, Zr, Ce, Y, and Ru, and wherein a molar ratio of the Ru to the Ba is 0.04 or more and 0.43 or less.
A motorcycle tire (10, 20), comprising an annularly formed tread (11, 21), wherein the tread (11, 21) has main grooves (12, 22), wherein at least one of the main grooves (12a, 22a) has three or more widened portions (12aa-12af, 22aa-22ah) that are enlarged outward in a groove width direction in at least one of the groove wall (12A, 22A) on the first grounding side in the rotational direction and the groove wall (12B, 22B) on the later grounding side in the rotational direction, and wherein the at least one main groove (12a, 22a) has at least one section where the extending length along the groove wall between the tops of adjacent widened portions (12aa-12af, 22aa-22ah) is 0.3 to 50% longer than the length of the virtual straight line connecting the tops of the adjacent widened portions (12aa-12af, 22aa-22ah). wherein the tread (11, 21) has main grooves (12, 22), wherein at least one of the main grooves (12a, 22a) has three or more widened portions (12aa-12af, 22aa-22ah) that are enlarged outward in a groove width direction in at least one of the groove wall (12A, 22A) on the first grounding side in the rotational direction and the groove wall (12B, 22B) on the later grounding side in the rotational direction, and wherein the at least one main groove (12a, 22a) has at least one section where the extending length along the groove wall between the tops of adjacent widened portions (12aa-12af, 22aa-22ah) is 0.3 to 50% longer than the length of the virtual straight line connecting the tops of the adjacent widened portions (12aa-12af, 22aa-22ah).
An isolated micro-like RNA (milRNA), wherein the milRNA is selected from: (i) milRNA whose sequence is SEQ ID NO: 1 and (ii) milRNA complementary to the nucleotide sequence of milRNA of (i). (i) milRNA whose sequence is SEQ ID NO: 1 and (ii) milRNA complementary to the nucleotide sequence of milRNA of (i).
An implantable bone distraction device for distracting osteotomically separated bone sections (2,2'), said implantable distraction device comprising: - a first block for implantation and attachment to a first bone section, said first block defining a first chamber bore; - a second block for implantation and attachment to a second bone section separated from the first bone section by an osteotomy, said second block defining a second chamber bore; - an actuator including means for adjusting the space between the first block and second block when activated, enabling distraction between the first bone section and second bone section; characterized in that said bone distraction device further comprises: - at least one vibration sensor arranged in an area located between first block and the second block and orientated in order to measure a vibration response of a medium comprising the implantable bone distraction device. - a first block for implantation and attachment to a first bone section, said first block defining a first chamber bore; - a second block for implantation and attachment to a second bone section separated from the first bone section by an osteotomy, said second block defining a second chamber bore; - an actuator including means for adjusting the space between the first block and second block when activated, enabling distraction between the first bone section and second bone section; - at least one vibration sensor arranged in an area located between first block and the second block and orientated in order to measure a vibration response of a medium comprising the implantable bone distraction device.
A patient administration system, comprising: a device which executes a patient administration system program; a data source for making medical data available; and an interface device (100; 220) which is coupled between the device and the data source, wherein the interface device receives the medical data from the data source, converts them into keyboard scan codes which are specific to the patient administration system program and outputs said keyboard scan codes to the device and stores the data received from the device in a database, wherein the interface device ascertains categories of the medical data on the basis of information transmitted together with the medical data, wherein the categories include medical histories, results, diagnoses, ICD codes, therapies, accounting items or forms, wherein the interface device checks at least part of the data received from the data source by means of rules, wherein said at least part of the received data is checked categorywise and wherein the keyboard scan codes are outputted to the device categorywise. a device which executes a patient administration system program; a data source for making medical data available; and an interface device (100; 220) which is coupled between the device and the data source, wherein the interface device receives the medical data from the data source, converts them into keyboard scan codes which are specific to the patient administration system program and outputs said keyboard scan codes to the device and stores the data received from the device in a database, wherein the interface device ascertains categories of the medical data on the basis of information transmitted together with the medical data, wherein the categories include medical histories, results, diagnoses, ICD codes, therapies, accounting items or forms, wherein the interface device checks at least part of the data received from the data source by means of rules, wherein said at least part of the received data is checked categorywise and wherein the keyboard scan codes are outputted to the device categorywise.
Polymer fibre-based PTC resistor comprising polymer fibres, said polymer fibres comprising a co-continuous polymer phase blend, said blend comprising a first and a second continuous polymer phase, wherein the first polymer phase consists of a first polymer having carbon nanotubes dispersed therein at a concentration above the percolation threshold, said first polymer phase presenting a softening temperature lower than the softening temperature of the second polymer phase.
Handling system comprising: - a first plurality (B1-B4) of rolling bases each including fixed coupling means at one end, and - a second plurality (C1-C3) of carts adapted to be coupled to one another to form a train of carts and including a pivoting front axle and a pivoting back axle that are constrained to pivot together, between which axles one of said bases can be coupled to the cart by cooperation of said fixed coupling means and complementary coupling means carried by the cart, characterized in that the first plurality (B1-B4) comprises at least one more element than the second plurality (C1-C3), the extra base being adapted to be coupled to the rear of and behind the last cart of the second plurality. - a first plurality (B1-B4) of rolling bases each including fixed coupling means at one end, and - a second plurality (C1-C3) of carts adapted to be coupled to one another to form a train of carts and including a pivoting front axle and a pivoting back axle that are constrained to pivot together, between which axles one of said bases can be coupled to the cart by cooperation of said fixed coupling means and complementary coupling means carried by the cart,
An injection molding system comprising: an injection molding machine where a shaping mold is installed; a material supply device supplying a material to the injection molding machine; a temperature controller configured to control a temperature of the shaping mold; a dryer configured to dry a material stored in the material supply device; a controller configured to control the injection molding machine; a robot configured to take J out a molded product from the shaping mold, wherein the shaping mold has a fixed mold, a moving mold moving relatively to the fixed mold, and an ejector pin protruding from the moving mold toward the fixed mold due to the movement of the moving mold relative to the fixed mold, and the robot configured to take out the molded product extruded from the moving mold by the ejector pin; and a casing, the injection molding machine, the material supply device, the temperature controller, the dryer, the controller, and the robot being provided inside the casing, the casing having a caster and being configured to be movable. an injection molding machine where a shaping mold is installed; a material supply device supplying a material to the injection molding machine; a temperature controller configured to control a temperature of the shaping mold; a dryer configured to dry a material stored in the material supply device; a controller configured to control the injection molding machine; a robot configured to take J out a molded product from the shaping mold, wherein the shaping mold has a fixed mold, a moving mold moving relatively to the fixed mold, and an ejector pin protruding from the moving mold toward the fixed mold due to the movement of the moving mold relative to the fixed mold, and the robot configured to take out the molded product extruded from the moving mold by the ejector pin; and the shaping mold has a fixed mold, a moving mold moving relatively to the fixed mold, and an ejector pin protruding from the moving mold toward the fixed mold due to the movement of the moving mold relative to the fixed mold, and the robot configured to take out the molded product extruded from the moving mold by the ejector pin; and a casing, the injection molding machine, the material supply device, the temperature controller, the dryer, the controller, and the robot being provided inside the casing, the casing having a caster and being configured to be movable.
A wide bandgap transistor, comprising: an active region having a channel; a source electrode in electrical contact with said active region; a drain electrode in electrical contact with said active region; a gate (22, 52, 62) in electrical contact with said active region between said source and drain electrodes on said active region; a spacer layer over at least a portion of said active region between said gate and said drain electrode and between said gate and said source electrode; and a field plate (30, 42, 56, 66) on said spacer layer and electrically isolated from said active region and gate by said spacer layer formed at least partially over said gate, said field plate electrically connected to said source electrode by at least one conductive path (34, 46), said field plate extending on said spacer layer a distance L f as measured from an edge of said gate to said drain electrode; wherein said at least one conductive path (34, 46) electrically connecting said field plate to said source electrode does not run directly over said active region; wherein said spacer layer is between said field plate and said gate and active region to provide said field plate isolation; wherein first portions of said field plate extend beyond the active region on both sides, in the width direction of the active region, such that said at least one conductive path electrically connecting said field plate to the source electrode comprises one of said portions; wherein first portions of said gate extend beyond the active region on both sides, in the width direction of the active region. an active region having a channel; a source electrode in electrical contact with said active region; a drain electrode in electrical contact with said active region; a gate (22, 52, 62) in electrical contact with said active region between said source and drain electrodes on said active region; a spacer layer over at least a portion of said active region between said gate and said drain electrode and between said gate and said source electrode; and a field plate (30, 42, 56, 66) on said spacer layer and electrically isolated from said active region and gate by said spacer layer formed at least partially over said gate, said field plate electrically connected to said source electrode by at least one conductive path (34, 46), said field plate extending on said spacer layer a distance L f as measured from an edge of said gate to said drain electrode; wherein said at least one conductive path (34, 46) electrically connecting said field plate to said source electrode does not run directly over said active region; wherein said spacer layer is between said field plate and said gate and active region to provide said field plate isolation; wherein first portions of said field plate extend beyond the active region on both sides, in the width direction of the active region, such that said at least one conductive path electrically connecting said field plate to the source electrode comprises one of said portions; wherein first portions of said gate extend beyond the active region on both sides, in the width direction of the active region.
A system (55; 200) for analyzing at least a flow of gas extracted from a drilling fluid used for drilling a wellbore, comprising: - a chassis having at least: ∘ a power supply system (134,; 234), ∘ a fluid distribution and regulation system (136; 236), ∘ a control module (138; 238), - at least a first and second analysis module of different types, each comprising at least a detector (101A-101C) for measuring at least a parameter relative to a content of at least a gas compound in the flow of gas, wherein the chassis comprises a core connector (160A, 162A, 164A) having power, communication and fluid outputs, each of the analysis modules having a module connector (160B, 162B, 164B) complementary to the core connector, wherein the complementary core and module connectors are configured to form a removable connection, and wherein the system is configured to obtain a measurement from the detector of the first analysis module when the first analysis module is connected to the chassis via the core connector and to obtain a measurement from the detector of the second analysis module when the second analysis module is connected to the chassis via the core connector, characterized in that the control module of the chassis is configured to control the power delivered to the core connector and/or the flow of gas delivered to the core connector as a function of the type of the analysis module connected to the core connector.. - a chassis having at least: ∘ a power supply system (134,; 234), ∘ a fluid distribution and regulation system (136; 236), ∘ a control module (138; 238), ∘ a power supply system (134,; 234), ∘ a fluid distribution and regulation system (136; 236), ∘ a control module (138; 238), - at least a first and second analysis module of different types, each comprising at least a detector (101A-101C) for measuring at least a parameter relative to a content of at least a gas compound in the flow of gas,
System for forming a product from a food mass, comprising a hopper with a rotating feeder, a mould drum and a feed pump with a moving member, wherein the mould drum comprises cavities to form products wherein the cavities are at least partially made from a porous material characterized in, that it comprises means (31, 32) to determine the position and the motion of the mould drum relative to a frame of the system and/or the position and/or the motion of the moving drum relative to the housing of the feed pump and/or the position and/or the motion of the rotating feeder relative to the hopper, to synchronize the motion of the mould drum and the motion of the moving member of the feed pump and/or to synchronize the motion of the feeder with the motion of the feed pump wherein the system comprises at least two pressure sensors, arranged between the feed pump and the mould drum, to determine the pressure distribution over the axial length of the mould drum and/or over the axial length of the outlet of the pump.
A vibrator device (18, 100, 200, 300, 400) for a vibration compacting machine, said device comprising: • a tubular body (102, 302) extending longitudinally while presenting a bottom end; • at least a first hydraulic motor (110, 402) disposed in the tubular body and comprising a rotor rotatably mounted in a stator-forming casing; and • an eccentric member arranged inside the tubular body between the bottom end and the first hydraulic motor, said eccentric member being designed to be driven in rotation by the rotor of the first hydraulic motor in order to produce vibration; said vibrator device being characterized in that the casing of the first hydraulic motor is constituted by the tubular body. • a tubular body (102, 302) extending longitudinally while presenting a bottom end; • at least a first hydraulic motor (110, 402) disposed in the tubular body and comprising a rotor rotatably mounted in a stator-forming casing; and • an eccentric member arranged inside the tubular body between the bottom end and the first hydraulic motor, said eccentric member being designed to be driven in rotation by the rotor of the first hydraulic motor in order to produce vibration; said vibrator device being characterized in that the casing of the first hydraulic motor is constituted by the tubular body.
A vacuum cleaner comprising: a suction source comprising an impeller and a first motor for driving the impeller; a cleaner head (3, 5) comprising an agitator (10, 12) and a second motor (11, 13) for driving the agitator (3, 5); and a controller configured to generate control signals for controlling simultaneously the excitation of the first motor and the second motor (11, 13), wherein the first motor is a brushless motor and the second motor (11,13) is a brushed motor, and wherein the controller generates at least one first control signal for controlling the excitation of the first motor and at least one second control signal for controlling the excitation of the second motor (11, 13), the first control signal causes a winding of the first motor to be excited for a conduction period over an electrical half-cycle of the first motor, the second control signal is a PWM signal having a constant period, and the controller adjusts the conduction period and the duty cycle of the PWM signal in response to changes in a supply voltage used to excite the first motor and the second motor (11, 13). a suction source comprising an impeller and a first motor for driving the impeller; a cleaner head (3, 5) comprising an agitator (10, 12) and a second motor (11, 13) for driving the agitator (3, 5); and a controller configured to generate control signals for controlling simultaneously the excitation of the first motor and the second motor (11, 13), wherein the first motor is a brushless motor and the second motor (11,13) is a brushed motor, and wherein the controller generates at least one first control signal for controlling the excitation of the first motor and at least one second control signal for controlling the excitation of the second motor (11, 13), the first control signal causes a winding of the first motor to be excited for a conduction period over an electrical half-cycle of the first motor, the second control signal is a PWM signal having a constant period, and the controller adjusts the conduction period and the duty cycle of the PWM signal in response to changes in a supply voltage used to excite the first motor and the second motor (11, 13).
A method for measuring the level of the Insulin-Like Growth Factor 1 Receptor (IGF-1R) protein in a biological sample of formalin fixed tissue, comprising detecting and/or quantifying the amount of an IGF-1R fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the level of IGF-1R protein in said sample; wherein the IGF-1R fragment peptide is SEQ ID NO:1 and wherein said level is a relative level or an absolute level.
Distance control system for motor vehicles, having a sensor for measuring the distance (d) to a preceding vehicle, a distance controller for calculating control interventions in the drive and/or braking system of the driver's own vehicle in order to control the distance to a setpoint distance (d soll), wherein a detuning parameter (m) which determines the strength of the reaction of the distance controller to control deviations can be set in the distance controller, and having a jam detection module, characterized by a detuning controller which, if the jam detection module detects a traffic jam, reacts to the frequency (n) of control interventions, the strength of which lies above a certain minimum strength, and which, depending on said frequency (n), outputs a detuning parameter (m) to the distance controller and, with the detuning parameter (m) as a manipulated variable, controls the frequency (n) of control interventions, the strength of which lies above a certain minimum strength, to a setpoint frequency that is adapted to the traffic situation.