mhurhangee/ep-ind-claims huggingface dataset:
A processing device for providing radar data onto a local area network, comprising: an analog-to-digital converter operable to receive analog radar data from an antenna in response to a generated pulse, the analog-to-digital converter operable to convert the analog radar data into digital radar data; an interference rejector operable to remove radar signals of other antennas from the digital radar data; a range bin decimator operable to limit the digital radar data to a threshold number of range bins; a trigger-to-azimuth converter operable to associate the digital radar data to particular azimuths of rotation of the antenna; and a local area network manager operable to receive processed digital radar data from the trigger-to-azimuth-converter and to place the processed digital radar data onto a local area network; characterized in that the processing device is provided to be positioned in a pedestal of the antenna; and the trigger-to-azimuth converter is operable to detect a change in azimuth of the antenna wherein, whenever a change in azimuth is detected wherein a pulse repetition interval of range bins has arrived marked by a new azimuth, prior azimuth of data is propagated to a next processing stage, associated with the prior azimuth, and the current pulse repetition interval of range bins is stored for the new azimuth, and, if the change in azimuth is m times a selected azimuth increment, the prior azimuth of data is written out m times artificially incremented by one azimuth step associated with each copy of the output, and, if a subsequent pulse repetition interval trigger is associated with a same azimuth as stored data of a previous pulse repetition interval trigger, an averaging of the digital radar data for each pulse associated with a particular azimuth is performed. an analog-to-digital converter operable to receive analog radar data from an antenna in response to a generated pulse, the analog-to-digital converter operable to convert the analog radar data into digital radar data; an interference rejector operable to remove radar signals of other antennas from the digital radar data; a range bin decimator operable to limit the digital radar data to a threshold number of range bins; a trigger-to-azimuth converter operable to associate the digital radar data to particular azimuths of rotation of the antenna; and a local area network manager operable to receive processed digital radar data from the trigger-to-azimuth-converter and to place the processed digital radar data onto a local area network;
An access-control system for a motor vehicle, the access-control system comprising: a plurality of anchors distributed in predetermined positions of a coordinate system; an access device configured to allow activation of one or more operating systems of the motor vehicle in response to the access device being located in one or more predetermined positions relative to the motor vehicle; and a controller, wherein each anchor of the plurality of anchors is configured to measure a distance between the respective anchor and the access device, and the controller is configured to gather ranging data of the measured distances from the plurality of anchors, identify an initial region of interest where the access device is located based on the ranging data, optimize the initial region of interest based on overlapping points in the ranging data, determine an initial location of the access device as in an interior of the motor vehicle or in an exterior region around the motor vehicle based on the optimized region of interest, and determine an optimum location of the access device relative to the motor vehicle in the coordinate system based on whether the access device is determined to be in the interior or in the exterior region, and wherein the initial region of interest is identified based on ranging data from at least two anchors of the plurality of anchors having lowest measured distances, wherein a lowest measured distance defines a center point of the initial region of interest, and wherein a mean ranging value in the ranging data from the at least two anchors defines a height and width of the region of interest. a plurality of anchors distributed in predetermined positions of a coordinate system; an access device configured to allow activation of one or more operating systems of the motor vehicle in response to the access device being located in one or more predetermined positions relative to the motor vehicle; and a controller, wherein each anchor of the plurality of anchors is configured to measure a distance between the respective anchor and the access device, and the controller is configured to gather ranging data of the measured distances from the plurality of anchors, identify an initial region of interest where the access device is located based on the ranging data, optimize the initial region of interest based on overlapping points in the ranging data, determine an initial location of the access device as in an interior of the motor vehicle or in an exterior region around the motor vehicle based on the optimized region of interest, and determine an optimum location of the access device relative to the motor vehicle in the coordinate system based on whether the access device is determined to be in the interior or in the exterior region, and wherein the initial region of interest is identified based on ranging data from at least two anchors of the plurality of anchors having lowest measured distances, wherein a lowest measured distance defines a center point of the initial region of interest, and wherein a mean ranging value in the ranging data from the at least two anchors defines a height and width of the region of interest.
An induction heating coil formed by spirally winding an elongate laminated conductor around a coil axis, the elongate laminated conductor including a plurality of conducting layers extending in an elongate direction and a plurality of insulating layers formed between the conducting layers, each of the conducting layers being connected in parallel with one another at both ends of the elongate laminated conductor, and the conducting layers being laminated in a direction perpendicular to the coil axis around which the elongate laminated conductor is wound, characterized in that the elongate laminated conductor has a width along the direction perpendicular to the coil axis is greater than a height along the direction parallel to the coil axis.
An exercise device configured to sense objects in proximity to the exercise device, the exercise device comprising: an exercise mechanism comprising a movable element for movement in performance of exercise by a user; a sensor (36, 36a-d) coupled to the exercise mechanism and configured to sense objects in proximity to the exercise mechanism other than the user of the exercise mechanism, wherein the sensor (36, 36a-d) can differentiate between a plurality of spatial zones of proximity (42, 44, 46); and a console in operative communication with the sensor (36, 36a-d) and the movable element, wherein the console is configured to provide a response to objects sensed by the sensor (36, 36a-d) that are in proximity to the exercise mechanism, wherein the console is configured to provide a first response to objects sensed by the sensor (36, 36a-d) in a first spatial zone of proximity of the plurality of spatial zones of proximity and to provide a second response to objects sensed by the sensor (36, 36a-d) in a second spatial zone of proximity of the plurality of spatial zones of proximity. an exercise mechanism comprising a movable element for movement in performance of exercise by a user; a sensor (36, 36a-d) coupled to the exercise mechanism and configured to sense objects in proximity to the exercise mechanism other than the user of the exercise mechanism, wherein the sensor (36, 36a-d) can differentiate between a plurality of spatial zones of proximity (42, 44, 46); and a console in operative communication with the sensor (36, 36a-d) and the movable element, wherein the console is configured to provide a response to objects sensed by the sensor (36, 36a-d) that are in proximity to the exercise mechanism, wherein the console is configured to provide a first response to objects sensed by the sensor (36, 36a-d) in a first spatial zone of proximity of the plurality of spatial zones of proximity and to provide a second response to objects sensed by the sensor (36, 36a-d) in a second spatial zone of proximity of the plurality of spatial zones of proximity.
An energy exchange system comprising: a supply air flow path; an exhaust air flow path; an energy recovery device disposed within the supply and exhaust air flow paths; characterised in furthermore comprising: a supply conditioning unit comprising a liquid-to-air membrane energy exchanger, LAMEE, disposed within the supply air flow path, wherein the supply conditioning unit is downstream from the energy recovery device. a supply air flow path; an exhaust air flow path; an energy recovery device disposed within the supply and exhaust air flow paths; characterised in furthermore comprising: a supply conditioning unit comprising a liquid-to-air membrane energy exchanger, LAMEE, disposed within the supply air flow path, wherein the supply conditioning unit is downstream from the energy recovery device. a supply conditioning unit comprising a liquid-to-air membrane energy exchanger, LAMEE, disposed within the supply air flow path, wherein the supply conditioning unit is downstream from the energy recovery device.
A housing for electronic components within a vehicle, the housing comprising: a main compartment adapted to house one or more electronic components; and a venting arrangement to allow a gas flow path between an interior of the main compartment and the exterior of the main compartment, wherein the venting arrangement comprises: a shield portion positioned on the exterior of the main compartment and defining a flow pathway having first and second apertures at respective first and second ends thereof, at which the flow pathway is in communication with the atmosphere; and a communication passage extending between the interior of the main compartment and the flow pathway, and joining the flow pathway at a position between the first and second ends thereof, wherein the communication passage meets the flow pathway at a point which is nearer to the first end than the second end, and wherein a blocking member is provided within the flow pathway to prevent or hinder the flow of liquid from the exterior of the housing into the communication passage. a main compartment adapted to house one or more electronic components; and a venting arrangement to allow a gas flow path between an interior of the main compartment and the exterior of the main compartment, wherein the venting arrangement comprises: a shield portion positioned on the exterior of the main compartment and defining a flow pathway having first and second apertures at respective first and second ends thereof, at which the flow pathway is in communication with the atmosphere; and a communication passage extending between the interior of the main compartment and the flow pathway, and joining the flow pathway at a position between the first and second ends thereof, wherein the communication passage meets the flow pathway at a point which is nearer to the first end than the second end, and wherein a blocking member is provided within the flow pathway to prevent or hinder the flow of liquid from the exterior of the housing into the communication passage. a shield portion positioned on the exterior of the main compartment and defining a flow pathway having first and second apertures at respective first and second ends thereof, at which the flow pathway is in communication with the atmosphere; and a communication passage extending between the interior of the main compartment and the flow pathway, and joining the flow pathway at a position between the first and second ends thereof, wherein the communication passage meets the flow pathway at a point which is nearer to the first end than the second end, and wherein a blocking member is provided within the flow pathway to prevent or hinder the flow of liquid from the exterior of the housing into the communication passage.
A method for removal of glass fragments from glass tube containers, on a horizontal automatic production system, wherein said containers are conveyed on a conveying line of said horizontal automatic production system, wherein said glass fragments are stuck to the inner surface of said glass tube containers owing to electrostatic force (40, 40'), comprising the steps of: - reducing or eliminating said electrostatic force (40, 40') between said fragments and the inner surface of said containers, and - removing said fragments from the inner surface of said containers wherein said step of removing is carried out by introducing at least one fluid jet with a measured speed in said containers, and/or by suction means of fluid, from the outside of said containers in a direction of an opening of said containers, or according to a determined depth, beyond an opening of said containers, said fluid being in particular air, characterized in that said step of removing is effected by a sensor, which operates automatically a solenoid valve for causing said jet of a means for removing (3,60) to expel definitively said glass fragments. - reducing or eliminating said electrostatic force (40, 40') between said fragments and the inner surface of said containers, and - removing said fragments from the inner surface of said containers wherein said step of removing is carried out by introducing at least one fluid jet with a measured speed in said containers, and/or by suction means of fluid, from the outside of said containers in a direction of an opening of said containers, or according to a determined depth, beyond an opening of said containers, said fluid being in particular air, characterized in that said step of removing is effected by a sensor, which operates automatically a solenoid valve for causing said jet of a means for removing (3,60) to expel definitively said glass fragments.
A method, comprising: monitoring a first interface by directly monitoring the first interface using means provided by an underlying infrastructure, including receiving, by a handler, a callback on execution of the first interface, wherein the first interface is associated with a call stack of call frames pushed onto the call stack; characterized by: monitoring, by the handler, a second interface by identifying, based on the callback received by the handler on execution of the first interface, a calling code associated with the second interface in one of the call frames by unwinding the call stack associated with the first interface to access the call frame, wherein the call frame includes a pointer to the calling code and wherein the calling code caused the call frame to be pushed to the call stack; analyzing, by the handler, an event context from the callback to determine if the first interface should have been invoked by the second interface; and taking a policy action if the second interface is not executed before the first interface. monitoring a first interface by directly monitoring the first interface using means provided by an underlying infrastructure, including receiving, by a handler, a callback on execution of the first interface, wherein the first interface is associated with a call stack of call frames pushed onto the call stack; characterized by: monitoring, by the handler, a second interface by identifying, based on the callback received by the handler on execution of the first interface, a calling code associated with the second interface in one of the call frames by unwinding the call stack associated with the first interface to access the call frame, wherein the call frame includes a pointer to the calling code and wherein the calling code caused the call frame to be pushed to the call stack; analyzing, by the handler, an event context from the callback to determine if the first interface should have been invoked by the second interface; and taking a policy action if the second interface is not executed before the first interface. monitoring, by the handler, a second interface by identifying, based on the callback received by the handler on execution of the first interface, a calling code associated with the second interface in one of the call frames by unwinding the call stack associated with the first interface to access the call frame, wherein the call frame includes a pointer to the calling code and wherein the calling code caused the call frame to be pushed to the call stack; analyzing, by the handler, an event context from the callback to determine if the first interface should have been invoked by the second interface; and taking a policy action if the second interface is not executed before the first interface.
A touch panel having an electrode array (107, 300C, 300D), the electrode array comprising: first electrodes (401, C1, C2, C3, C4) arranged on a first layer, each first electrode patterned to include a plurality of sequentially connected first electrode elements that are hollowed-hexagon-shaped, second electrodes (402, R1, R2, R3, R4) arranged on a second layer, each second electrode patterned to include a plurality of sequentially connected second electrode elements that are hollowed-hexagon-shaped, wherein the first electrodes on the first layer and the second electrodes on the second layer are arranged over one another so as to form an interlocking pattern. first electrodes (401, C1, C2, C3, C4) arranged on a first layer, each first electrode patterned to include a plurality of sequentially connected first electrode elements that are hollowed-hexagon-shaped, second electrodes (402, R1, R2, R3, R4) arranged on a second layer, each second electrode patterned to include a plurality of sequentially connected second electrode elements that are hollowed-hexagon-shaped, wherein the first electrodes on the first layer and the second electrodes on the second layer are arranged over one another so as to form an interlocking pattern.
A method by a terminal in a wireless communication system, the method comprising: receiving (415, 515), from a base station, configuration information indicating the terminal to provide preferred power related information; determining (435, 535) whether current preferred power related information is different from previous preferred power related information; and transmitting (440, 470, 540, 570), to the base station, a message including the current preferred power related information, in case that the current preferred power related information is different from the previous preferred power related information and a timer associated with the transmission of the message is not running, wherein the timer is started or restarted, in case that the message is transmitted. receiving (415, 515), from a base station, configuration information indicating the terminal to provide preferred power related information; determining (435, 535) whether current preferred power related information is different from previous preferred power related information; and transmitting (440, 470, 540, 570), to the base station, a message including the current preferred power related information, in case that the current preferred power related information is different from the previous preferred power related information and a timer associated with the transmission of the message is not running, wherein the timer is started or restarted, in case that the message is transmitted.
Container at least to some extent composed of a sheet of composite material, where the composite material includes: - an aluminum foil (100, 106) with a first and a second surface side, - a first polymer layer, bonded to at least one of the two surface sides (101, 102), where the aluminum foil (100, 106) covers, by way of the polymer layer, at least one aperture (117, 118) of a holder, where the composite material and the holder together form the container, where the holder accepts at least one analytical aid in a cutout, where the aluminum foil has been pressed or deep-drawn. - an aluminum foil (100, 106) with a first and a second surface side, - a first polymer layer, bonded to at least one of the two surface sides (101, 102), where the aluminum foil (100, 106) covers, by way of the polymer layer, at least one aperture (117, 118) of a holder, where the composite material and the holder together form the container, where the holder accepts at least one analytical aid in a cutout, where the aluminum foil has been pressed or deep-drawn.
Actuator for actuating a safety switch, said actuator having a fixing element, an actuating element and a connection arrangement (2, 3) provided for connecting the fixing element to the actuating element, wherein the connection arrangement (2, 3) has at least one resilient element which is pretensioned by means of at least one pretensioning element for the purpose of connecting the fixing element to the actuating element, characterised in that the pretensioning element is a steel cable.
An apparatus operable for a wireless communication system in which a shared data channel SDCH is used for communication to terminals, the apparatus comprising: means configured for increasing resources allocated for a given user terminal for sending acknowledgements ACKs of transmissions received on the shared data channel SDCH, as resources allocated to the SDCH for the given terminal increase; and means configured for capping the number of resources allocated for sending the ACKs for the given user to a dynamically determined amount of resources. means configured for increasing resources allocated for a given user terminal for sending acknowledgements ACKs of transmissions received on the shared data channel SDCH, as resources allocated to the SDCH for the given terminal increase; and means configured for capping the number of resources allocated for sending the ACKs for the given user to a dynamically determined amount of resources.
An adapter device comprising a first mount on one side and a second mount on another side, where the first mount is detachably mountable to a first imaging apparatus, and the second mount is detachably mountable to a first accessory, wherein the first mount has a first mount recess, a first mount claw, a second mount recess, a second mount claw, a third mount recess, and a third mount claw, disposed following a circumferential direction of the first mount, wherein the second mount has a fourth mount claw, a fourth mount recess, a fifth mount claw, a fifth mount recess, a sixth mount claw, and a sixth mount recess, disposed following the circumferential direction of the second mount, wherein the first, second, and third mount claws (1301d, 1301e, and 1301f) are insertable into corresponding mount recesses provided on the first imaging apparatus, to detachably mount the first mount on the first imaging apparatus, wherein the fourth, fifth, and sixth mount claws (1401a, 1401b, and 1401c) are insertable into mount recesses provided to the first accessory, to detachably mount the second mount on the first accessory, and wherein each of the mount claws (1301d, 1301e, 1301f, 1401a, 1401b, 1401c) and mount recesses (1301a, 1301b, 1301c, 1401d, 1401e, 1401f) extends radially over an angle range in the circumferential direction of the mounts (1301, 1401), where a smallest angle range out of angle ranges of the first, second, and third mount recesses (1301a, 1301b, 1301c) is equal to or smaller than a smallest angle range out of angle ranges of the fourth, fifth, and sixth mount claws (1401a, 1401b, 1401c).