mhurhangee/ep-ind-claims huggingface dataset:
A packaging assembly comprising: a case configured to contain at least one injection device for delivering a medicament; a cooling unit configured to lower an internal temperature of the case; a processing arrangement; a device sensor configured to detect at least one injection device contained within the case, and to receive device storage information from the at least one detected injection device; wireless communication module; a data storage device; and a monitoring device configured to communicate wirelessly with the wireless communication module; wherein the processing arrangement is configured to record an injection history on the data storage device; wherein the processing arrangement is configured to control the cooling unit to set an internal temperature of the case according to the received device storage information; wherein the processing arrangement is configured to control the wireless communication module to transmit the recorded injection history to an external user device; wherein the monitoring device is configured to be attached to an injection device, to monitor the delivery of medicament by the injection device, and to transmit monitoring information of the injection device to the wireless communication module; and wherein the processing arrangement is configured to record the received monitoring information in the injection history. a case configured to contain at least one injection device for delivering a medicament; a cooling unit configured to lower an internal temperature of the case; a processing arrangement; a device sensor configured to detect at least one injection device contained within the case, and to receive device storage information from the at least one detected injection device; wireless communication module; a data storage device; and a monitoring device configured to communicate wirelessly with the wireless communication module; wherein the processing arrangement is configured to record an injection history on the data storage device; wherein the processing arrangement is configured to control the cooling unit to set an internal temperature of the case according to the received device storage information; wherein the processing arrangement is configured to control the wireless communication module to transmit the recorded injection history to an external user device; wherein the monitoring device is configured to be attached to an injection device, to monitor the delivery of medicament by the injection device, and to transmit monitoring information of the injection device to the wireless communication module; and wherein the processing arrangement is configured to record the received monitoring information in the injection history.
A bridle for a riding animal, in particular for a riding horse, comprising at least one auxiliary rein, which runs under the neck of the riding animal and is attached to a saddle girth, characterised in that the auxiliary rein is attached by means of at least one tensile snap lock having a lock body, which is arranged in a stationary manner on the saddle girth, and a tension bolt, which can be removed from said lock body on application of a transverse force and is operatively connected to the auxiliary rein.
A crane, preferably a mobile or crawler crane, with a boom, with a controller and with means for determining the position of different crane components such as main boom, fly boom, derrick boom, bracing trestles, derrick ballast and/or hook block, wherein these means consist of receivers of a satellite-based system for worldwide determination of the position, characterized in that the receivers each are arranged on the respective crane components and can directly supply the respective position of the movable crane components.
A computer-implemented method for navigating geographic imagery depicting one or more features, each feature having an assigned weight, the method, comprising: presenting a viewport in a user interface of a computing device, the viewport displaying at least a portion of geographic imagery; receiving a user input initiating an imagery pan of the imagery displayed in the viewport; in response to the user input, panning the geographic imagery at an initial pan rate and pan direction, wherein the initial pan direction depends on the user input; and adjusting characteristics of the imagery pan based on one or more features in the portion of the geographic imagery passing through the viewport; wherein the method further comprises, after the user input, identifying one or more features depicted in the portion of the geographic imagery passing through the viewport, accessing a respective weight assigned to each identified feature, and determining a sum of the accessed weights; characterized in that: - the initial pan rate depends on the user input; - the pan rate decreasing over time from the initial pan rate according to a deceleration rate until a feature passes through the viewport; and - adjusting characteristics of the geographic imagery pan comprises increasing the deceleration rate of the geographic imagery pan in proportion to the sum of the accessed weights. presenting a viewport in a user interface of a computing device, the viewport displaying at least a portion of geographic imagery; receiving a user input initiating an imagery pan of the imagery displayed in the viewport; in response to the user input, panning the geographic imagery at an initial pan rate and pan direction, wherein the initial pan direction depends on the user input; and adjusting characteristics of the imagery pan based on one or more features in the portion of the geographic imagery passing through the viewport; wherein the method further comprises, after the user input, identifying one or more features depicted in the portion of the geographic imagery passing through the viewport, accessing a respective weight assigned to each identified feature, and determining a sum of the accessed weights; characterized in that: - the initial pan rate depends on the user input; - the pan rate decreasing over time from the initial pan rate according to a deceleration rate until a feature passes through the viewport; and - adjusting characteristics of the geographic imagery pan comprises increasing the deceleration rate of the geographic imagery pan in proportion to the sum of the accessed weights. - the initial pan rate depends on the user input; - the pan rate decreasing over time from the initial pan rate according to a deceleration rate until a feature passes through the viewport; and - adjusting characteristics of the geographic imagery pan comprises increasing the deceleration rate of the geographic imagery pan in proportion to the sum of the accessed weights.
A method for a first networked microphone device, the method comprising: while a microphone of the first networked microphone device is enabled, determining whether a first reference device comprising a second networked microphone device is in a specific state in which the microphone of the first reference device is in a microphone disabled state; and in response to determining that the first reference device is in the specific state, disabling the microphone of the first networked microphone device. while a microphone of the first networked microphone device is enabled, determining whether a first reference device comprising a second networked microphone device is in a specific state in which the microphone of the first reference device is in a microphone disabled state; and in response to determining that the first reference device is in the specific state, disabling the microphone of the first networked microphone device.
A method, comprising: receiving, by a hash engine of a switch module of a multi-stage switch, a plurality of validation packets, wherein the plurality of validation packets are defined based on replication of a single validation packet received at an input port of the switch module from a source edge device; and forwarding, by the hash engine, each validation packet from the plurality of validation packets to a different output port from a plurality of output ports of the switch module based on an output of a hash function in order to reach a destination edge device, a header portion of each validation packet from the plurality of validation packets being an input to the hash function, the header portion of each validation packet from the plurality of validation packets being defined from a reverse hash table lookup having an association between a hash function input that results in a hash function output of an identifier of an output port from the plurality of output ports and the identifier of that output port from the plurality of output ports, wherein each validation packet from the plurality of validation packets is configured to verify a different data path (323, 325, 327) through the multi-stage switch between the source edge device and the destination edge device. receiving, by a hash engine of a switch module of a multi-stage switch, a plurality of validation packets, wherein the plurality of validation packets are defined based on replication of a single validation packet received at an input port of the switch module from a source edge device; and forwarding, by the hash engine, each validation packet from the plurality of validation packets to a different output port from a plurality of output ports of the switch module based on an output of a hash function in order to reach a destination edge device, a header portion of each validation packet from the plurality of validation packets being an input to the hash function, the header portion of each validation packet from the plurality of validation packets being defined from a reverse hash table lookup having an association between a hash function input that results in a hash function output of an identifier of an output port from the plurality of output ports and the identifier of that output port from the plurality of output ports, wherein each validation packet from the plurality of validation packets is configured to verify a different data path (323, 325, 327) through the multi-stage switch between the source edge device and the destination edge device.
Method for forming an electrical contacting between a first superconducting strip conductor and a further electrical conductor element, - wherein the first superconducting strip conductor, in a contact region of the strip conductor, is brought into areal contact with a first main surface of a reactive multilayer film, - wherein the second main surface of the reactive multilayer film, facing away from the first main surface, is brought into areal contact with the further electrical conductor element, - wherein an electrically conductive connection layer and a permanent electrically conductive connection between the first superconducting strip conductor and the further electrical conductor element is formed from the materials of the multilayer film by subsequently triggering an exothermic chemical reaction in the multilayer film and by pressing the first superconducting strip conductor and the further electrical conductor element against one another with a pressing pressure during the triggering. - wherein the first superconducting strip conductor, in a contact region of the strip conductor, is brought into areal contact with a first main surface of a reactive multilayer film, - wherein the second main surface of the reactive multilayer film, facing away from the first main surface, is brought into areal contact with the further electrical conductor element, - wherein an electrically conductive connection layer and a permanent electrically conductive connection between the first superconducting strip conductor and the further electrical conductor element is formed from the materials of the multilayer film by subsequently triggering an exothermic chemical reaction in the multilayer film and by pressing the first superconducting strip conductor and the further electrical conductor element against one another with a pressing pressure during the triggering.
A method for power calibration, comprising: configuring various carriers under various network standards, mixing and combining the various carriers to obtain a combined signal; detecting a power of the combined signal; sequentially performing a digital-to-analog, D/A, conversion processing, a Power Amplifier, PA, processing and an analog-to-digital, A/D, conversion processing on the combined signal to obtain a processed combined signal (S102; detecting a power of the processed combined signal; performing a carrier division on the processed combined signal to obtain processed carriers; detecting a power of each of the processed carriers; when the power of each of the processed carriers does not fall within a predetermined numerical range, adjusting a power gain of each of the carriers according to the power of each of the processed carriers, and returning to re-detect the power of each of the processed carriers; and when the power of each of the processed carriers falls within the predetermined numerical range, adjusting the power gain of each of the carriers again according to the power of the combined signal and the power of the processed combined signal; ending power calibration of the carriers. configuring various carriers under various network standards, mixing and combining the various carriers to obtain a combined signal; detecting a power of the combined signal; sequentially performing a digital-to-analog, D/A, conversion processing, a Power Amplifier, PA, processing and an analog-to-digital, A/D, conversion processing on the combined signal to obtain a processed combined signal (S102; detecting a power of the processed combined signal; performing a carrier division on the processed combined signal to obtain processed carriers; detecting a power of each of the processed carriers; when the power of each of the processed carriers does not fall within a predetermined numerical range, adjusting a power gain of each of the carriers according to the power of each of the processed carriers, and returning to re-detect the power of each of the processed carriers; and when the power of each of the processed carriers falls within the predetermined numerical range, adjusting the power gain of each of the carriers again according to the power of the combined signal and the power of the processed combined signal; ending power calibration of the carriers.
Pipe bending machine comprising a base body integral with a hydraulic cylinder and to which there are anchored an upper plate and a lower plate between which there are arranged two guide rollers which can be positioned in a plurality of positions between said two plates (1, 2), said hydraulic cylinder being able to actuate according to an axis of movement being associated with the end of the rod of the hydraulic cylinder, a bending die thereby forming a section of a pipe located between the guide rollers, pushing against said guide rollers and giving it a bent shape, characterized in that the lower plate is fixed to the base body integral with the hydraulic cylinder by means of lower anchoring elements consisting of L-shaped flat bars, each of which has a lower and an upper anchoring point with the base body, keeping the lower plate in a plane parallel to the axis of movement, whereas the upper plate is fixed to the base body of the hydraulic cylinder by means of upper anchoring elements consisting of clamps with an anchoring point, such that the anchoring point of each upper anchoring element coincides with the upper anchoring point of each lower anchoring element.
MEMS loudspeaker for generating sound waves in the audible wavelength spectrum with a carrier substrate, that features a substrate cavity with two substrate openings (7, 8), which are formed on two opposite sides of the carrier substrate, an actuator structure, which is arranged in the area of one of the two substrate openings (7, 8) and is connected to the carrier substrate in its edge area, and a membrane anchored in its edge area, which, by means of the actuator structure, can be set into vibration for generating sound waves, characterized in that, in a cross-sectional view of the MEMS loudspeaker, the membrane is spaced at a distance from the actuator structure, such that an intermediate cavity is formed between these two, that the MEMS loudspeaker features a coupling element arranged in the intermediate cavity, which connects the actuator structure to the membrane and may vibrate with these two with respect to the carrier substrate, and that the carrier substrate and, at least partially, the coupling element are produced from the same material.
A combined mixer and filter circuitry (400, 500, 600) comprising: a mixer (410, 510, 610) comprising a first input, a second input and an output; a filter (420, 520, 620) comprising an active inductor and a first capacitor, wherein the active inductor comprises a transistor having a first terminal, a second terminal and a third terminal and a resistor connected between the first terminal of the transistor and a voltage potential, the first capacitor is connected between the third terminal and a signal ground; and wherein the second terminal of the transistor is connected to the second input of the mixer (410, 510, 610); the combined mixer and filter circuitry further comprising a current mirror, a digital to analog converter and a second capacitor, wherein an output of the current mirror is coupled to the second input of the mixer via the filter, the digital to analog converter is configured to receive a digital word and deliver a current to the current mirror, and the second capacitor is connected between an input of the current mirror and the signal ground; wherein the first terminal of the transistor is a gate or base terminal, the second terminal of the transistor is a drain or collector terminal, and the third terminal of the transistor is a source or emitter terminal. a mixer (410, 510, 610) comprising a first input, a second input and an output; a filter (420, 520, 620) comprising an active inductor and a first capacitor, wherein the active inductor comprises a transistor having a first terminal, a second terminal and a third terminal and a resistor connected between the first terminal of the transistor and a voltage potential, the first capacitor is connected between the third terminal and a signal ground; and wherein the second terminal of the transistor is connected to the second input of the mixer (410, 510, 610); the combined mixer and filter circuitry further comprising a current mirror, a digital to analog converter and a second capacitor, wherein an output of the current mirror is coupled to the second input of the mixer via the filter, the digital to analog converter is configured to receive a digital word and deliver a current to the current mirror, and the second capacitor is connected between an input of the current mirror and the signal ground; wherein the first terminal of the transistor is a gate or base terminal, the second terminal of the transistor is a drain or collector terminal, and the third terminal of the transistor is a source or emitter terminal.
Joint connector (2, 54) for connecting multiple components in a structure of a means of transport, having: an outer cage (4, 56), at least two first connection rods, each of which has a first joint socket at one end, and a sliding device (14, 71), wherein the outer cage (4, 56) has multiple first openings (20, 58) which lie in a first common plane and are configured for through-passage of the first connection rods from an inner side of the outer cage (4, 56) outwards, wherein the first openings (20, 58) are dimensioned in such a way that the first joint sockets are each in flush areal contact by way of a first outer surface with a first inner-edge surface (22, 59) of one of the first openings (20, 58), wherein the sliding device (14, 71) is configured to form flush areal contact with first inner surfaces of the first joint sockets such that the flush areal contact with the first inner-edge surfaces (22, 59) is maintained. an outer cage (4, 56), at least two first connection rods, each of which has a first joint socket at one end, and a sliding device (14, 71), wherein the outer cage (4, 56) has multiple first openings (20, 58) which lie in a first common plane and are configured for through-passage of the first connection rods from an inner side of the outer cage (4, 56) outwards, wherein the first openings (20, 58) are dimensioned in such a way that the first joint sockets are each in flush areal contact by way of a first outer surface with a first inner-edge surface (22, 59) of one of the first openings (20, 58), wherein the sliding device (14, 71) is configured to form flush areal contact with first inner surfaces of the first joint sockets such that the flush areal contact with the first inner-edge surfaces (22, 59) is maintained.
A rotary machine, comprising: a machine rotor; a bearing coupled to the machine rotor; a machine stator; and a sealing device disposed between the machine rotor and the machine stator, the sealing device comprising: a dry gas seal (18, 20), a first brush seal disposed between the dry gas seal (18, 20) and the bearing, wherein the first brush seal comprises a plurality of non-metallic fibers, a second seal disposed between the first brush seal and the bearing, and a mounting device configured to couple the non-metallic fibers to the first brush seal. a machine rotor; a bearing coupled to the machine rotor; a machine stator; and a sealing device disposed between the machine rotor and the machine stator, the sealing device comprising: a dry gas seal (18, 20), a first brush seal disposed between the dry gas seal (18, 20) and the bearing, wherein the first brush seal comprises a plurality of non-metallic fibers, a second seal disposed between the first brush seal and the bearing, and a mounting device configured to couple the non-metallic fibers to the first brush seal. a dry gas seal (18, 20), a first brush seal disposed between the dry gas seal (18, 20) and the bearing, wherein the first brush seal comprises a plurality of non-metallic fibers, a second seal disposed between the first brush seal and the bearing, and a mounting device configured to couple the non-metallic fibers to the first brush seal.
Shorting clip for an ignition system adapted to be mounted in a retainer insert, comprising: two contact members adapted to each contact a pin of a squib to short-circuit the pins; at least one first grounding contact adapted to contact a ground contact of a squib connector; at least one second grounding contact adapted to contact an electroconductive part of a squib; characterized in that the clip further comprises a support structure connecting the contact members and the first and second grounding contact with each other, which support structure is adapted to be arranged in full essentially parallel to the plug-in direction of the retainer insert. two contact members adapted to each contact a pin of a squib to short-circuit the pins; at least one first grounding contact adapted to contact a ground contact of a squib connector; at least one second grounding contact adapted to contact an electroconductive part of a squib; characterized in that the clip further comprises a support structure connecting the contact members and the first and second grounding contact with each other, which support structure is adapted to be arranged in full essentially parallel to the plug-in direction of the retainer insert.