mhurhangee/patent-ind-claim-en huggingface dataset:
A system for steering an IEEE 802.11 station STA , the system comprising: the STA; a first access point, AP, which is an IEEE 802.11 access point, the first AP configured to operate at least a first virtual network identified by a first SSID, and to run a first Client Steering Daemon CSD configured to monitor STA unassociated with the first AP and log information about monitoring data; a second AP which is an IEEE 802.11 access point configured to operate at least a second virtual network identified by a second SSID different from the first SSID, and to run a second CSD configured to receive a command from a cloud server , and to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received command; and the cloud server configured to receive the logged information from the first AP, and to send a command to the second AP to enable the second AP to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received logged information. a first access point, AP, which is an IEEE 802.11 access point, the first AP configured to operate at least a first virtual network identified by a first SSID, and to run a first Client Steering Daemon CSD configured to monitor STA unassociated with the first AP and log information about monitoring data; a second AP which is an IEEE 802.11 access point configured to operate at least a second virtual network identified by a second SSID different from the first SSID, and to run a second CSD configured to receive a command from a cloud server , and to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received command; and the cloud server configured to receive the logged information from the first AP, and to send a command to the second AP to enable the second AP to steer the STA from the second virtual network identified by the second SSID to the first virtual network identified by the first SSID based on the received logged information.
A leadless atrial pacing device comprising a housing configured for implantation within the atrium, wherein the housing encloses: a signal generator module configured to deliver pacing pulses to an atrium; a sensing and processing module configured to: detect a ventricular activation event and an atrial activation event that preceded the ventricular activation event; determine a length of an interval between the ventricular activation event and the atrial activation event; schedule a time at which to deliver a pacing pulse to the atrium based on the length of the interval; and control the signal generator module to deliver the pacing pulse at the scheduled time; and the housing further enclosing a sensor that senses far-field R waves and/or heart sounds indicative of the ventricular activation event and the processing module detects the ventricular activation event in response thereto. a signal generator module configured to deliver pacing pulses to an atrium; a sensing and processing module configured to: detect a ventricular activation event and an atrial activation event that preceded the ventricular activation event; determine a length of an interval between the ventricular activation event and the atrial activation event; schedule a time at which to deliver a pacing pulse to the atrium based on the length of the interval; and control the signal generator module to deliver the pacing pulse at the scheduled time; and the housing further enclosing detect a ventricular activation event and an atrial activation event that preceded the ventricular activation event; determine a length of an interval between the ventricular activation event and the atrial activation event; schedule a time at which to deliver a pacing pulse to the atrium based on the length of the interval; and control the signal generator module to deliver the pacing pulse at the scheduled time; and the housing further enclosing a sensor that senses far-field R waves and/or heart sounds indicative of the ventricular activation event and the processing module detects the ventricular activation event in response thereto.
A rotor blade assembly for a wind turbine , comprising: an upper shell member having at least one upper spar cap configured on an internal surface thereof; a lower shell member having at least one lower spar cap configured on an internal surface thereof; and, a shear web extending between the spar caps along a longitudinal length of the rotor blade assembly, characterized in that the shear web comprises first and second outer pultruded layers , wherein end portions of the first and second outer pultruded layers form compressed flanges at opposing ends of the shear web that are bonded to the upper and lower spar caps . an upper shell member having at least one upper spar cap configured on an internal surface thereof; a lower shell member having at least one lower spar cap configured on an internal surface thereof; and, a shear web extending between the spar caps along a longitudinal length of the rotor blade assembly, characterized in that the shear web comprises first and second outer pultruded layers , wherein end portions of the first and second outer pultruded layers form compressed flanges at opposing ends of the shear web that are bonded to the upper and lower spar caps .
A method of route directing performed in an unmanned aerial vehicle , the unmanned aerial vehicle comprising a communication module for wireless communication with an access node of a communications system , characterized by the method comprising: - receiving , from a network entity , warning signaling about a restricted area, and - withdrawing from the restricted area in response to receiving the warning signaling, by receiving, from the network entity , signaling comprising route directions to a destination along a route excluding the restricted area. - receiving , from a network entity , warning signaling about a restricted area, and - withdrawing from the restricted area in response to receiving the warning signaling, by receiving, from the network entity , signaling comprising route directions to a destination along a route excluding the restricted area.
A method of wireless communication performed by a first wireless station, in the following also referred to as STA, comprising at least a first transceiver and a second transceiver, the method comprising: generating a first Media Access Control, in the following also referred to as MAC, address for said first transceiver and a second MAC address for said second transceiver ; constructing an Additional Authentication Data, in the following also referred to as AAD, by using said first MAC address ; encrypting a first frame using said AAD ; said first transceiver and said second transceiver performing clear channel assessment, in the following also referred to as CCA, independently of each other; after said encrypting, obtaining a first transmission opportunity, in the following also referred to as TXOP, on said second channel ; and in said first TXOP, said second transceiver transmitting said first frame on said second channel for receipt by a second wireless STA, wherein said transmitting is performed without re-encrypting said first frame subsequent to said obtaining . generating a first Media Access Control, in the following also referred to as MAC, address for said first transceiver and a second MAC address for said second transceiver ; constructing an Additional Authentication Data, in the following also referred to as AAD, by using said first MAC address ; encrypting a first frame using said AAD ; said first transceiver and said second transceiver performing clear channel assessment, in the following also referred to as CCA, independently of each other; after said encrypting, obtaining a first transmission opportunity, in the following also referred to as TXOP, on said second channel ; and in said first TXOP, said second transceiver transmitting said first frame on said second channel for receipt by a second wireless STA, wherein said transmitting is performed without re-encrypting said first frame subsequent to said obtaining .
A spring element , in particular jounce bumper, for a vehicle suspension, comprising: a longitudinal axis (L) and a base body extending along the longitudinal axis (L), the base body being elastically deformable between an uncompressed basic state and a compressed state in which the base body is at least partially compressed in the direction of the longitudinal axis (L), an end portion positioned on a base end of the base body, said end portion being configured for mounting the base body in a mounting cap ; wherein the end portion comprises a plurality of at least two radially extending retention elements (7a,b) that are spaced apart from one another in the direction of the longitudinal axis (L), and each of the retention elements (7a, b) being configured to engage a mating retention element provided on the mounting cap , characterised in that the mating retention elements are configured to engage one another in a positive fit, preferably such that the retention elements provided on the base body are elastically deformable between an uncompressed basic state and a compressed state, and further preferably that the retention elements provided on the base body are oversized when compared to the mating retention elements of the mounting cap.. a longitudinal axis (L) and a base body extending along the longitudinal axis (L), the base body being elastically deformable between an uncompressed basic state and a compressed state in which the base body is at least partially compressed in the direction of the longitudinal axis (L), an end portion positioned on a base end of the base body, said end portion being configured for mounting the base body in a mounting cap ; wherein the end portion comprises a plurality of at least two radially extending retention elements (7a,b) that are spaced apart from one another in the direction of the longitudinal axis (L), and each of the retention elements (7a, b) being configured to engage a mating retention element provided on the mounting cap , characterised in that the mating retention elements are configured to engage one another in a positive fit, preferably such that the retention elements provided on the base body are elastically deformable between an uncompressed basic state and a compressed state, and further preferably that the retention elements provided on the base body are oversized when compared to the mating retention elements of the mounting cap..
A classifying device for classifying cells in real-time, comprising: an alignment unit configured to align a cell to be classified along the cell's major axis; and a classifying unit configured to classify the aligned cell using a multilayer perceptron, MLP; wherein the MLP classifies the aligned cell by inputting images of aligned cells to be classified as information to the input layer of the MLP, wherein the alignment unit comprises a microfluidic channel through which the cell to be classified flows. an alignment unit configured to align a cell to be classified along the cell's major axis; and a classifying unit configured to classify the aligned cell using a multilayer perceptron, MLP; wherein the MLP classifies the aligned cell by inputting images of aligned cells to be classified as information to the input layer of the MLP, wherein the alignment unit comprises a microfluidic channel through which the cell to be classified flows.
A polymer composition comprising a polyethylene and a crosslinking agent, characterized in that the polymer composition contains a total amount of vinyl groups which is B vinyl groups per 1000 carbon atoms, and B 1 ≤ B , wherein B 1 is 0.88, when measured prior to crosslinking according to method ASTM D6248-98; and in that the crosslinking agent is present in an amount which is Z wt%, based on the total amount (100 wt%) of the polymer composition, and Z ≤ Z 2 , wherein Z 2 is 0.60.
A digital radio-frequency, RF, circuitry comprising a digitally controlled amplifier further configured to receive an RF input signal and a digital control signal , and to output an amplitude controlled output signal ; the digitally controlled amplifier comprising one or more common-source amplifying unit cells ; and wherein a respective common-source amplifying unit cell comprises a source node connected to a switching circuitry configured to be controlled by the digital control signal so as to activate or deactivate the respective common-source amplifying unit cell; and wherein the switching circuitry comprises a first switch and a second switch configured to connect the source node with a first power supply node or a second power supply node , respectively, when activating respectively deactivating the respective common-source amplifying unit cell.
A feeder comprising: a tape feeding path for feeding carrier tape that is adapted to store many components; a tape insertion section that is provided on a rear section of a feeder main body and into which the carrier tape is inserted; a sprocket that is rotatably provided on the feeder main body and that includes an engaging protrusion engageable with an engaging hole of the carrier tape inserted into the tape insertion section ; a motor that is adapted to rotate the sprocket ; an entrance retaining member that is adapted to press the carrier tape inserted into the tape insertion section towards the tape feeding path ; a rotatable lever ; and a contact prevention device that is adapted to prevent contact between the carrier tape inserted into the tape insertion section and the engaging protrusion ; wherein the rotatable lever is adapted to raise the entrance retaining member when the carrier tape is inserted into the tape insertion section ; wherein the contact prevention device prevents contact between the carrier tape inserted into the tape insertion section and the engaging protrusion when the entrance retaining member is raised by the rotation of the lever ; characterized in that the contact prevention device is provided with a motor control function that, when the entrance retaining member is raised by the rotation of the lever , controls rotation of the motor such that the engaging protrusion provided only on a portion of an outer circumference of the sprocket is positioned at an angular position so as not to contact the carrier tape . a tape feeding path for feeding carrier tape that is adapted to store many components; a tape insertion section that is provided on a rear section of a feeder main body and into which the carrier tape is inserted; a sprocket that is rotatably provided on the feeder main body and that includes an engaging protrusion engageable with an engaging hole of the carrier tape inserted into the tape insertion section ; a motor that is adapted to rotate the sprocket ; an entrance retaining member that is adapted to press the carrier tape inserted into the tape insertion section towards the tape feeding path ; a rotatable lever ; and a contact prevention device that is adapted to prevent contact between the carrier tape inserted into the tape insertion section and the engaging protrusion ; wherein the rotatable lever is adapted to raise the entrance retaining member when the carrier tape is inserted into the tape insertion section ; wherein the contact prevention device prevents contact between the carrier tape inserted into the tape insertion section and the engaging protrusion when the entrance retaining member is raised by the rotation of the lever ; characterized in that the contact prevention device is provided with a motor control function that, when the entrance retaining member is raised by the rotation of the lever , controls rotation of the motor such that the engaging protrusion provided only on a portion of an outer circumference of the sprocket is positioned at an angular position so as not to contact the carrier tape .
A direction-finding device comprising: a first antenna configured to receive electromagnetic energy ; a second antenna configured to receive electromagnetic energy; a radome located in a receiving pathway of the first antenna and shaped to cover only the first antenna, wherein the radome is configured to cause a predetermined phase shift that varies based on an angular position of the receiving pathway; a radio receiver configured to receive the signal from the first and second antennas; and a processor configured to determine an angle of arrival of the electromagnetic energy based on a comparison of a phase of the electromagnetic energy received by the first antenna to a phase of the electromagnetic energy received by the second antenna. a first antenna configured to receive electromagnetic energy ; a second antenna configured to receive electromagnetic energy; a radome located in a receiving pathway of the first antenna and shaped to cover only the first antenna, wherein the radome is configured to cause a predetermined phase shift that varies based on an angular position of the receiving pathway; a radio receiver configured to receive the signal from the first and second antennas; and a processor configured to determine an angle of arrival of the electromagnetic energy based on a comparison of a phase of the electromagnetic energy received by the first antenna to a phase of the electromagnetic energy received by the second antenna.
A plastic injection tool for producing a closure cap with a cap body and a cap cover formed integrally with and of the same material as the cap body , wherein the cap cover can be formed as cap lid, which can be moved relative to the cap body , wherein the injection tool is further divided into first and second mold halves , which can be displaced relative to one another, and wherein an injection nozzle is formed in the first mold half , wherein sliding jaw tool parts , which can simultaneously be moved in an injection direction (r) of the produced closure cap and perpendicular to the ejection direction (r), are further formed in the second mold half radially outside to a central tool core , and a partial injection contour of the cap body is in each case formed in the sliding jaw tool parts , wherein the partial injection contours , combined in a circumferential direction of the closure cap result in a complete injection contour of the part of the cap body , which is formed by the sliding jaw tool parts , wherein an ejector is further provided assigned to the second mold half , for ejecting the produced closure cap , characterized in that partial injection contours , which differ from one another, are formed in two or more sliding jaw tool parts in such a way that individually producible and exchangeable sliding jaw tool parts are formed by means of a certain partial injection contour, which differs at least from a further sliding jaw tool part , and that a sliding jaw tool part is in contact with the tool core in the ejection direction (r) prior to the ejection of the closure cap on two regions located one behind the other in the ejection direction (r).
A process for producing a brush strip , comprising the steps of: arranging a plurality of aligned monofilament fibers transversely in a sinusoidal configuration to form a body portion with fibers arranged in parallel and two looped ends ; applying at least one row of stitching across the body portion towards one end, wherein the stitching is such as to loop around groups of fibers to divide the body portion into separate bundles; overmolding the stitched end of the bundles with a thermoplastic polymeric material ; and trimming the non-overmolded end of the body portion to create tufts of bristles ; wherein the overmolding is carried out by inserting the stitched end of the bundles into a molding cavity injected with the thermoplastic polymeric material , in a molten form, characterized in that the overmolding is carried out at a pressure between 0.01 to 400 MPa; and wherein cooling of the thermoplastic material is accelerated by maintaining the temperature of the mold between 15 to 25°C. arranging a plurality of aligned monofilament fibers transversely in a sinusoidal configuration to form a body portion with fibers arranged in parallel and two looped ends ; applying at least one row of stitching across the body portion towards one end, wherein the stitching is such as to loop around groups of fibers to divide the body portion into separate bundles; overmolding the stitched end of the bundles with a thermoplastic polymeric material ; and trimming the non-overmolded end of the body portion to create tufts of bristles ; wherein the overmolding is carried out by inserting the stitched end of the bundles into a molding cavity injected with the thermoplastic polymeric material , in a molten form, characterized in that the overmolding is carried out at a pressure between 0.01 to 400 MPa; and wherein cooling of the thermoplastic material is accelerated by maintaining the temperature of the mold between 15 to 25°C. wherein the overmolding is carried out by inserting the stitched end of the bundles into a molding cavity injected with the thermoplastic polymeric material , in a molten form, characterized in that the overmolding is carried out at a pressure between 0.01 to 400 MPa; and wherein cooling of the thermoplastic material is accelerated by maintaining the temperature of the mold between 15 to 25°C.
Emergency stop system for putting a vehicle that is able to be operated at least partially autonomously into a safe state, having an actuation device for outputting an actuation signal, a control device for receiving the actuation signal and for outputting a control signal, an emergency braking device for actively braking the vehicle, wherein the emergency braking device is configured to actuate a brake system provided in the vehicle based on the output control signal and based on a predefined operating mode in order to generate a braking force for decelerating the vehicle, characterized by an operating mode setting device that is configured to selectively prohibit activation of the emergency braking device by the actuation device , wherein the operating mode setting device is additionally configured to specify different operating modes for the transmission to the transmission control device . an actuation device for outputting an actuation signal, a control device for receiving the actuation signal and for outputting a control signal, an emergency braking device for actively braking the vehicle, wherein the emergency braking device is configured to actuate a brake system provided in the vehicle based on the output control signal and based on a predefined operating mode in order to generate a braking force for decelerating the vehicle, characterized by an operating mode setting device that is configured to selectively prohibit activation of the emergency braking device by the actuation device , wherein the operating mode setting device is additionally configured to specify different operating modes for the transmission to the transmission control device .
Device for producing energy having an air-towed vessel and at least one water current turbine linked to the vessel by at least one electric cable , the water current turbine being further linked to the vessel by at least one mechanical linking cable in order to be towed by the vessel , characterized in that the device for producing energy comprises a system for managing the movements and/or positions of the water current turbines and/or a system for managing the movements and/or positions of the supports connecting at least two water current turbines .