mhurhangee/ep-ind-claims huggingface dataset:
A current collector for electrically supplying an electrical load which is movable along a conductor line, with the current collector having a fastening element and at least one sliding contact with an elongate sliding contact surface, which extends in a longitudinal direction, for making sliding contact with an electrically conducting line profile of the conductor line which extends in a longitudinal direction, wherein the sliding contact is articulated on the fastening element at fastening regions (16, 17) spaced apart from one another in the longitudinal direction so as to be movable in a feed plane extending parallel to the longitudinal direction by means of two articulated lever arrangements (18, 19), characterized in that a reset device acting on the articulated lever arrangements (18, 19), on the one hand, and on the fastening element, on the other hand, is provided, which reset device is configured to move the sliding contact back into an inoperative position when the sliding contact is deflected from the inoperative position in which the sliding contact surface extends substantially parallel to the longitudinal direction, wherein each of the articulated lever arrangements (18, 19) has an articulated lever (20, 21), which is rotatably articulated to the fastening element, and a lever arm (22, 23) which is rotatably arranged on the articulated lever (20, 21), on the one hand, and rotatably arranged on the sliding contact, on the other hand, wherein the reset device comprises an elastic tension-compression-arrangement with a first tension-compression-region and a second tension-compression-region, with the first tension-compression-region being connected to the lever arm of the first articulated lever arrangements, on the one hand, and to the fastening element, on the other hand, and with the second tension-compression-region being connected to the lever arm of the second articulated lever arrangements, on the one hand, and to the fastening element, on the other hand, and wherein a) the lever arms (22, 23) are configured in the form of an angled lever, and/or b) the reset device connects the two lever arms (22, 23) elastically, especially spring-elastically, to the fastening element. a) the lever arms (22, 23) are configured in the form of an angled lever, and/or b) the reset device connects the two lever arms (22, 23) elastically, especially spring-elastically, to the fastening element.
Method for switching on a high beam of a vehicle, comprising the following steps: receiving light expansion information via an interface, wherein the light expansion information indicates a possibility for operating the high beam without glare, characterized by: ascertaining a travelled path distance of the vehicle in reaction to the receiving of the light expansion information; and providing switch-on information for switching on the high beam if the travelled path distance after receiving the light expansion information is greater than a predetermined minimum distance, wherein the minimum distance is determined taking into account information relating to a current traffic density. receiving light expansion information via an interface, wherein the light expansion information indicates a possibility for operating the high beam without glare, characterized by: ascertaining a travelled path distance of the vehicle in reaction to the receiving of the light expansion information; and providing switch-on information for switching on the high beam if the travelled path distance after receiving the light expansion information is greater than a predetermined minimum distance, wherein the minimum distance is determined taking into account information relating to a current traffic density. ascertaining a travelled path distance of the vehicle in reaction to the receiving of the light expansion information; and providing switch-on information for switching on the high beam if the travelled path distance after receiving the light expansion information is greater than a predetermined minimum distance, wherein the minimum distance is determined taking into account information relating to a current traffic density.
Device for detecting metals in materials, comprising a detection unit having an inlet port and an outlet port between which a space for passage of said materials through the unit is provided, a conveying duct for conveying said materials through said unit, arranged in said passage space, a first end of the duct emerging from said unit via its inlet port and a second end emerging from the unit via its outlet port, said duct being formed from a flexible and elastic material, said conveying duct is configured to damp vibrations between said detection unit and a unit for feeding materials to said detection device, characterised in that said conveying duct is removably arranged in said passage space, in that said duct consists of a sleeve each end of which comprises a peripheral groove made in its inner face for receiving a complementary peripheral bead, and in that the first end of the duct is designed to be connected in a sealed and removable manner to said unit for feeding materials to the device and in that the second end of the duct is arranged to be connected in a sealed and removable manner to a unit for sorting the materials leaving the device.
A sensor applicator assembly for a continuous glucose monitoring system, the sensor applicator assembly being assembled as a single unitary product in which a sensor module periodically measuring a blood glucose level is preinstalled in an applicator, such that the sensor module is ejected by an operation of the applicator to be attached to a human body, wherein the applicator includes: a main container having a pair of press buttons mounted on a portion of the main container to be press-manipulated by a user; a plunger body fixedly coupled to a first position within the main container to be decoupled from the first position and move linearly to a second position in an injecting direction in response to both press buttons being manipulated; and an elastic plunger spring applying elastic force to the plunger body so that the plunger body moves linearly from the first position to the second position, wherein the sensor module is coupled to one end portion of the plunger body to move from the first position to the second position, integrally with the plunger body, wherein the press buttons are disposed on opposite sides of the main container to move in a direction perpendicular to the movement direction of the plunger body by the user's press-manipulation. a main container having a pair of press buttons mounted on a portion of the main container to be press-manipulated by a user; a plunger body fixedly coupled to a first position within the main container to be decoupled from the first position and move linearly to a second position in an injecting direction in response to both press buttons being manipulated; and an elastic plunger spring applying elastic force to the plunger body so that the plunger body moves linearly from the first position to the second position, wherein the sensor module is coupled to one end portion of the plunger body to move from the first position to the second position, integrally with the plunger body, wherein the press buttons are disposed on opposite sides of the main container to move in a direction perpendicular to the movement direction of the plunger body by the user's press-manipulation.
A mobile terminal comprising: a front case accommodating a display on a front surface and having a receiver for outputting a sound; a rear case coupled to one side of the front case; a rear cover covering a rear portion of the rear case to form an appearance and having an air vent hole allowing air to flow in and out to maintain predetermined pressure; and a circuit board installed between the front case and the rear case, wherein an air flow port is formed on an inner side surface of the rear cover and protrudes from the rear cover toward a rear portion of the front case to guide movement of air formed by an external force acting on the rear cover, and characterised in that a plurality of protrusions are formed on an inner surface portion of the air flow port to increase a frictional force with moving air. a front case accommodating a display on a front surface and having a receiver for outputting a sound; a rear case coupled to one side of the front case; a rear cover covering a rear portion of the rear case to form an appearance and having an air vent hole allowing air to flow in and out to maintain predetermined pressure; and a circuit board installed between the front case and the rear case, wherein an air flow port is formed on an inner side surface of the rear cover and protrudes from the rear cover toward a rear portion of the front case to guide movement of air formed by an external force acting on the rear cover, and characterised in that a plurality of protrusions are formed on an inner surface portion of the air flow port to increase a frictional force with moving air.
An optical component comprising: a laser transmitter; a media access controller, MAC, coupled to the laser transmitter, wherein the MAC is configured to support biasing a laser transmitter to compensate for temperature related wavelength drift by: receiving a transmission timing instruction from an optical network control node; obtaining transmission power information for the laser transmitter, wherein the transmission power information is calculated based on a measurement of current associated with the laser transmitter; estimating a burst mode time period for the laser transmitter according to the transmission timing instruction; calculating a laser phase fine tuning compensation value for the laser transmitter according to the burst mode time period and the transmission power information; and forwarding the laser phase fine tuning compensation value toward a bias controller to support biasing a phase of the laser transmitter. a laser transmitter; a media access controller, MAC, coupled to the laser transmitter, wherein the MAC is configured to support biasing a laser transmitter to compensate for temperature related wavelength drift by: receiving a transmission timing instruction from an optical network control node; obtaining transmission power information for the laser transmitter, wherein the transmission power information is calculated based on a measurement of current associated with the laser transmitter; estimating a burst mode time period for the laser transmitter according to the transmission timing instruction; calculating a laser phase fine tuning compensation value for the laser transmitter according to the burst mode time period and the transmission power information; and forwarding the laser phase fine tuning compensation value toward a bias controller to support biasing a phase of the laser transmitter. receiving a transmission timing instruction from an optical network control node; obtaining transmission power information for the laser transmitter, wherein the transmission power information is calculated based on a measurement of current associated with the laser transmitter; estimating a burst mode time period for the laser transmitter according to the transmission timing instruction; calculating a laser phase fine tuning compensation value for the laser transmitter according to the burst mode time period and the transmission power information; and forwarding the laser phase fine tuning compensation value toward a bias controller to support biasing a phase of the laser transmitter.
A fuel gauge adapted for use with a fuel supply and an electronic equipment powered by a fuel cell, said fuel gauge comprises: a first electrode associated with the fuel supply and spaced a distance apart from a second electrode associated with the fuel cell or the electronic equipment, wherein the distance varies with the fuel level and indicates the remaining fuel in the fuel supply, and wherein the first and second electrodes have a property readable by an electrical circuit; and a controller operatively connected to at least one of the first and second electrodes, wherein the controller is configured to account for effects on the property caused by at least one material disposed between the sensors, wherein the at least one material includes at least one of a dielectric constant, an electrical property, a magnetic property, or an electro-magnetic property. a first electrode associated with the fuel supply and spaced a distance apart from a second electrode associated with the fuel cell or the electronic equipment, wherein the distance varies with the fuel level and indicates the remaining fuel in the fuel supply, and wherein the first and second electrodes have a property readable by an electrical circuit; and a controller operatively connected to at least one of the first and second electrodes, wherein the controller is configured to account for effects on the property caused by at least one material disposed between the sensors, wherein the at least one material includes at least one of a dielectric constant, an electrical property, a magnetic property, or an electro-magnetic property.
A conductive magnetic coupling system (100, 900, 1200), comprising: a power supply component and a power consumption component; the power supply component comprising: a power distribution coupling mechanism configured to detachably connect to the power consumption component and to provide an electrical signal to the power consumption component; and the power consumption component comprising a power receiving coupling mechanism configured to detachably connect to the power distribution coupling mechanism and to receive the electrical signal from the power distribution coupling mechanism, and a power consumption device configured to receive the electrical signal from the power receiving coupling mechanism and to convert the electrical signal to an output, characterised in that: both of the power distribution coupling mechanism and the power receiving coupling mechanism comprises an electrically conductive magnet such that the electrically conductive magnet is configured for detachably connecting the power distribution coupling mechanism and the power receiving coupling mechanism, and configured to transfer the electrical signal between the power distribution coupling mechanism and the power receiving coupling mechanism. a power supply component and a power consumption component; the power supply component comprising: a power distribution coupling mechanism configured to detachably connect to the power consumption component and to provide an electrical signal to the power consumption component; and the power consumption component comprising a power receiving coupling mechanism configured to detachably connect to the power distribution coupling mechanism and to receive the electrical signal from the power distribution coupling mechanism, and a power consumption device configured to receive the electrical signal from the power receiving coupling mechanism and to convert the electrical signal to an output, a power receiving coupling mechanism configured to detachably connect to the power distribution coupling mechanism and to receive the electrical signal from the power distribution coupling mechanism, and a power consumption device configured to receive the electrical signal from the power receiving coupling mechanism and to convert the electrical signal to an output, characterised in that: both of the power distribution coupling mechanism and the power receiving coupling mechanism comprises an electrically conductive magnet such that the electrically conductive magnet is configured for detachably connecting the power distribution coupling mechanism and the power receiving coupling mechanism, and configured to transfer the electrical signal between the power distribution coupling mechanism and the power receiving coupling mechanism.
A cradle clamp bracket assembly for securing cables to a ladder rung, the cradle clamp bracket assembly comprising: an elongated bracket having a slotted portion and a raised portion with a flange extending downwardly therefrom suitable for receiving a cable strap or tie, the raised portion being parallel to the slotted portion; wherein the slotted portion has a slot located along a center of the slotted portion; and a retainer and a fastener, wherein the retainer includes a top with an opening for receiving the fastener; wherein the fastener is slidably received in the slot, wherein the retainer is configured to slide against the ladder rung to lock the ladder rung in place by directly engaging the ladder rung between the retainer and the raised portion. an elongated bracket having a slotted portion and a raised portion with a flange extending downwardly therefrom suitable for receiving a cable strap or tie, the raised portion being parallel to the slotted portion; wherein the slotted portion has a slot located along a center of the slotted portion; and a retainer and a fastener, wherein the retainer includes a top with an opening for receiving the fastener; wherein the fastener is slidably received in the slot, wherein the retainer is configured to slide against the ladder rung to lock the ladder rung in place by directly engaging the ladder rung between the retainer and the raised portion.
An output restriction control device mounted on a hybrid vehicle having an engine and an electric motor, which is drivable by the engine or the electric motor or drivable by cooperation of the engine and the electric motor, the output restriction control device comprising: an output restriction means that restricts torque output from the engine and/or the electric motor, wherein the output restriction means releases or restores an output restriction in accordance with a predetermined operation of a driver, and a predetermined release rate or a predetermined restoration rate is settable for release or restoration of the output restriction, respectively, and wherein the predetermined operation is an operation of an accelerator and an operation of a direction indicator, and the output restriction means immediately releases the output restriction with respect to a driver's sudden operation of an accelerator over a predetermined accelerator opening level, gently restores the output restriction based on a predetermined restoration rate in restoration from the sudden accelerator operation, gently releases the output restriction based on a predetermined release rate with respect to a driver's operation of a direction indicator, and gently restores the output restriction based on a predetermined restoration rate when the operation of the direction indicator is terminated. an output restriction means that restricts torque output from the engine and/or the electric motor, wherein the output restriction means releases or restores an output restriction in accordance with a predetermined operation of a driver, and a predetermined release rate or a predetermined restoration rate is settable for release or restoration of the output restriction, respectively, and wherein the predetermined operation is an operation of an accelerator and an operation of a direction indicator, and the output restriction means immediately releases the output restriction with respect to a driver's sudden operation of an accelerator over a predetermined accelerator opening level, gently restores the output restriction based on a predetermined restoration rate in restoration from the sudden accelerator operation, gently releases the output restriction based on a predetermined release rate with respect to a driver's operation of a direction indicator, and gently restores the output restriction based on a predetermined restoration rate when the operation of the direction indicator is terminated.
A kit for parasite-specific DNA target capture and polymerase chain reaction detection of a Dirofilaria immitis infection in an animal host comprising, a) labeled DNA complementary to a repetitive species-specific Dirofilaria immitis target DNA having a first strand (SEQ ID NO:1) and a second strand (SEQ ID NO:2), and b) a capture medium that binds a capture DNA, wherein the labeled DNA comprises a conjugation moiety. a) labeled DNA complementary to a repetitive species-specific Dirofilaria immitis target DNA having a first strand (SEQ ID NO:1) and a second strand (SEQ ID NO:2), and b) a capture medium that binds a capture DNA,
Method for operating an asynchronous machine, including the steps: determining a working point trajectory for the asynchronous machine for a plurality of desired torques of the asynchronous machine by calculating 2-tuples from longitudinal current values and cross current values in a synchronously rotating coordinate system of the asynchronous machine; calculating a slip frequency of the asynchronous machine for each of the 2-tuples calculated from longitudinal current values and cross current values; determining a present rotor speed of the asynchronous machine; calculating an excitation frequency of the asynchronous machine by summation of the calculated slip frequency and the present rotor speed weighted with the number of pole pairs of the asynchronous machine; characterized by comparing the calculated excitation frequency of the asynchronous machine with at least one predetermined resonance frequency value of the asynchronous machine; and correcting the determined working point trajectory by changing the ratio between longitudinal current value and cross current value at a constant desired torque for each of the 2-tuples for which the calculated excitation frequency corresponds to the at least one resonance frequency value.
Use of a surface-functionalised silica acid, wherein the silica acid carries on its surface organic multidentate ligands, which with metals or metal compounds can form a chelate complex, as an additive for increasing the storage stability of resin compounds and/or hardening compounds of a multicomponent reaction resin compound, wherein the hardening components are on a peroxide basis and/or amine base and the resin components are on a basis of radical hardener compounds and/or an epoxide basis.