mhurhangee/patent-ind-claim-en huggingface dataset:
A method by a base station in a wireless communication system, the method comprising: transmitting, on a physical broadcast channel, PBCH, a master information block, MIB, including information for a position of a first demodulation reference signal, DMRS, for a first slot type; identifying a slot type from the first slot type and a second slot type; in case that the identified slot type is the first slot type, transmitting the first DMRS on a third symbol or a fourth symbol of a slot in a downlink, based on the MIB; and in case that the identified slot type is the second slot type, transmitting the first DMRS on a first symbol of a scheduled downlink data resource. transmitting, on a physical broadcast channel, PBCH, a master information block, MIB, including information for a position of a first demodulation reference signal, DMRS, for a first slot type; identifying a slot type from the first slot type and a second slot type; in case that the identified slot type is the first slot type, transmitting the first DMRS on a third symbol or a fourth symbol of a slot in a downlink, based on the MIB; and in case that the identified slot type is the second slot type, transmitting the first DMRS on a first symbol of a scheduled downlink data resource.
Tilt rotator for a machine, in particular an excavator, having a head section , that is attachable to the machine, and a motor flange ; a rotator , which rests on the head section pivotably around a pivot axis , for rotating an attachment around a rotation axis vertical to the pivot axis ; a pivot drive for pivoting the rotator around the pivot axis ; characterised in that the pivot drive comprises two identical radial piston motors with hydraulic power unit; the radial piston motors are arranged coaxially with the pivot axis mirrored on two opposing sides of the head section and flange-mounted to the motor flange . a head section , that is attachable to the machine, and a motor flange ; a rotator , which rests on the head section pivotably around a pivot axis , for rotating an attachment around a rotation axis vertical to the pivot axis ; a pivot drive for pivoting the rotator around the pivot axis ; characterised in that the pivot drive comprises two identical radial piston motors with hydraulic power unit; the radial piston motors are arranged coaxially with the pivot axis mirrored on two opposing sides of the head section and flange-mounted to the motor flange .
A machining unit for machining a workpiece , in particular for welding a workpiece , using a thermal machining beam, in particular a laser machining beam, wherein the thermal machining beam can be directed onto a workpiece by means of the machining unit along a beam incidence axis , and wherein the machining unit comprises a rotary drive device and at least one auxilliary module by means of which the at least one auxilliary module is rotatable about the beam incidence axis for workpiece machining, characterized in that the machining unit comprises a coupling device by means of which the at least one auxilliary module is movable between a position coupled to the rotary drive device and a position uncoupled from the rotary drive device , and the coupling device at least in the position of the at least one auxilliary module coupled to the rotary drive device is uncouplable from the at least one auxilliary module .
A wound care system comprising a wound care arrangement with a means of covering which can be fixed to the skin surrounding the wound and creates an enclosed wound space containing the wound, with said covering having a tubular film and portions at least of the covering being water vapour-permeable, and with a suction connection by means of which a vacuum can be created in the wound space, wherein the tubular film has an opening with an opening circumference length of 80 cm or more, in particular 130 cm or more, and an external fixator having at least one stabilising element which is at least partially exposed outside of a patient during treatment of the patient, wherein the tubular film is dimensioned to fully enclose the external fixator during treatment of the patient.
A multilayer structure for a garment, comprising a flexible substrate film for accommodating electronics, a number of flexible sensor pads provided on the film utilizing printed electronics technology, optionally screen printing or ink jetting, a power supply element for powering electricity-driven components including the at least one electronic circuit, characterized by at least one electronic circuit , preferably integrated circuit, further provided on the film for controlling capacitive measurements via the number of sensor pads for obtaining an indication of pressure subjected to the multilayer structure, a number of conductor traces further printed on the film for electrically connecting the at least one electronic circuit and the number of capacitive sensor pads, and at least one plastic layer molded upon the film substantially embedding the number of sensor pads, conductor traces and the at least one electronic circuit therewithin, and wherein the multilayer structure is configured to monitor the capacitance between at least one of the pads and external conductive element, optionally a sole of a user, placed upon the structure and functionally forming a capacitor with said at least one of the pads. a flexible substrate film for accommodating electronics, a number of flexible sensor pads provided on the film utilizing printed electronics technology, optionally screen printing or ink jetting, a power supply element for powering electricity-driven components including the at least one electronic circuit, characterized by at least one electronic circuit , preferably integrated circuit, further provided on the film for controlling capacitive measurements via the number of sensor pads for obtaining an indication of pressure subjected to the multilayer structure, a number of conductor traces further printed on the film for electrically connecting the at least one electronic circuit and the number of capacitive sensor pads, and at least one plastic layer molded upon the film substantially embedding the number of sensor pads, conductor traces and the at least one electronic circuit therewithin, and wherein the multilayer structure is configured to monitor the capacitance between at least one of the pads and external conductive element, optionally a sole of a user, placed upon the structure and functionally forming a capacitor with said at least one of the pads.
An evaluation apparatus , comprising: a storage unit configured to store a model (MO) modeling a state of a facility (T) provided in a plant (PL); a simulator configured to adjust a parameter that is set in the model (MO) so that a difference between an actual measurement value based on a process value of the facility (T) in a first state and a first simulate value calculated by using the model (MO) is equal to or less than a threshold; an estimation unit configured to estimate a first estimated operating point (RP) that associates the adjusted parameter, the process value, and a time of the first state to indicate an operation state of the facility (T) in the first state; and an evaluation unit configured to evaluate a change of an operation state of the facility (T) based on a difference between the first estimated operating point (RP) and a second estimated operating point (OP), characterized in that the simulator adjusts the parameter so that a difference between an actual measurement value and a second simulate value calculated by using the model (MO) is equal to or less than the threshold, the actual measurement value based on a process value of the facility (T) in a second state that is temporally posterior to the first state, and the estimation unit estimates the second estimated operating point (OP) that associates the adjusted parameter, the process value, and a time of the first state to indicate an operation state of the facility (T) in the second state. a storage unit configured to store a model (MO) modeling a state of a facility (T) provided in a plant (PL); a simulator configured to adjust a parameter that is set in the model (MO) so that a difference between an actual measurement value based on a process value of the facility (T) in a first state and a first simulate value calculated by using the model (MO) is equal to or less than a threshold; an estimation unit configured to estimate a first estimated operating point (RP) that associates the adjusted parameter, the process value, and a time of the first state to indicate an operation state of the facility (T) in the first state; and an evaluation unit configured to evaluate a change of an operation state of the facility (T) based on a difference between the first estimated operating point (RP) and a second estimated operating point (OP), characterized in that the simulator adjusts the parameter so that a difference between an actual measurement value and a second simulate value calculated by using the model (MO) is equal to or less than the threshold, the actual measurement value based on a process value of the facility (T) in a second state that is temporally posterior to the first state, and the estimation unit estimates the second estimated operating point (OP) that associates the adjusted parameter, the process value, and a time of the first state to indicate an operation state of the facility (T) in the second state.
A method comprising: storing in a queue of a buffer a first type of traffic; storing in the queue of the buffer a second type of traffic, wherein the first type of traffic is less sensitive to latency than the second type of traffic; and when an amount of the first type of traffic meets or exceeds a first threshold, effecting flow control of the first type of traffic to slow a flow of the first type of traffic into the buffer; wherein effecting flow control of the first type of traffic comprises effecting flow control of the first type of traffic in a first predetermined manner when the amount of the first type of traffic meets or exceeds the first threshold, and effecting flow control of the first type of traffic in a second predetermined manner when the amount of the first type of traffic meets or exceeds a second threshold; and wherein the first predetermined manner comprises marking packets and the second predetermined manner comprises discarding packets. storing in a queue of a buffer a first type of traffic; storing in the queue of the buffer a second type of traffic, wherein the first type of traffic is less sensitive to latency than the second type of traffic; and when an amount of the first type of traffic meets or exceeds a first threshold, effecting flow control of the first type of traffic to slow a flow of the first type of traffic into the buffer; wherein effecting flow control of the first type of traffic comprises effecting flow control of the first type of traffic in a first predetermined manner when the amount of the first type of traffic meets or exceeds the first threshold, and effecting flow control of the first type of traffic in a second predetermined manner when the amount of the first type of traffic meets or exceeds a second threshold; and wherein the first predetermined manner comprises marking packets and the second predetermined manner comprises discarding packets.
An armrest box structure, comprising an armrest and an armrest box , the armrest is arranged on the armrest box , the armrest can slide backward relative to the armrest box , an armrest storage box being mounted at the backend of the upper surface of the armrest , and an armrest cover , which can be open and closed, being set on the armrest storage box , when the armrest cover is open, an article area (D) is formed on the armrest by the armrest storage box and the armrest cover for containing articles therein, characterized in that an armrest box cover is mounted on the armrest box , and the armrest is arranged on the armrest box cover , and a guide rail is sandwiched between the bottom surface of the armrest and the upper surface of the armrest box cover , the armrest and the armrest box are connected with each other in a sliding mode through the guide rail, an armrest box storage tank is mounted in the armrest box , the armrest box cover is arranged over the armrest box storage tank , and the backend of the armrest box cover is hinged with the armrest box .
Fastening unit for connecting thermally stressed components to each another, in particular a heat-generating body to a heat sink , comprising a holding pin and a holding element , wherein the holding pin is connected to a holding head , the holding pin engages through the holding element , the holding head bears against the holding element , and the holding element engages on the body or the heat sink and holds the latter in a fastening direction of the holding pin , with the holding element being designed for lateral engagement on the body or the heat sink for which purpose the holding element has, on its side facing the body or the heat sink , a holding groove that extends in a longitudinal direction transverse to the fastening direction, with at least one groove surface , in the assembled state, coming to rest against the body or the heat sink , at least in some areas, characterized in that, in its center, on the side of the fastening pin , the holding element has an elongate projection (web 30a) each, which extends perpendicularly to the fastening pin and which in turn has an additional groove on the side remote from the holding head .
A method for wireless communication, comprising: determining channel quality indication, CQI, information for data received from a first cell at a user equipment, UE; determining CQI information for data received from a second cell at the UE; sending the CQI information for the first cell in a first transmission time interval, TTI; sending the CQI information for the second cell in a second TTI after the first TTI, wherein a CQI time offset is signaled to indicate which TTIs to use to send the CQI information for each cell, and wherein the CQI information for the first and second cells is sent on a feedback channel with a single channelization code to the first and second cells; and receiving data from the first cell or the second cell in a third TTI after the second TTI. determining channel quality indication, CQI, information for data received from a first cell at a user equipment, UE; determining CQI information for data received from a second cell at the UE; sending the CQI information for the first cell in a first transmission time interval, TTI; sending the CQI information for the second cell in a second TTI after the first TTI, wherein a CQI time offset is signaled to indicate which TTIs to use to send the CQI information for each cell, and wherein the CQI information for the first and second cells is sent on a feedback channel with a single channelization code to the first and second cells; and receiving data from the first cell or the second cell in a third TTI after the second TTI.
A method for determining collision risk(s) between a taxiing aircraft and an object(s) external to the taxiing aircraft, the method comprising one or more processors performing the following steps: collecting, via an avionics unit, position, heading, and/or ground-speed data of the taxiing aircraft; predicting, based on the collected position, heading, and/or ground-speed data, a future position of the taxiing aircraft within a time interval; tracking, via an object detection system, a location(s) of the object(s) external to the taxiing aircraft; predicting, based on the tracked location(s), a future location(s) of the object(s) external to the taxiing aircraft within the time interval; and determining, based on the predicted future location(s) of the object(s) and the future position of the taxiing aircraft within the time interval, a measure(s) of collision risk, wherein the measure(s) of collision risk is indicative of a predicted minimum separation distance between the predicted future location(s) of the object(s) and the future position of the taxiing aircraft within the time interval; characterised by the one or more processors: forming image data of a view of an area external to and including the taxiing aircraft; mapping into the image data symbols indicative of the object(s) external to the aircraft at the tracked location(s); rendering the image data with velocity vectors associated with the object(s) external to the aircraft; and annotating the image data with the determined measure(s) of collision risk. collecting, via an avionics unit, position, heading, and/or ground-speed data of the taxiing aircraft; predicting, based on the collected position, heading, and/or ground-speed data, a future position of the taxiing aircraft within a time interval; tracking, via an object detection system, a location(s) of the object(s) external to the taxiing aircraft; predicting, based on the tracked location(s), a future location(s) of the object(s) external to the taxiing aircraft within the time interval; and determining, based on the predicted future location(s) of the object(s) and the future position of the taxiing aircraft within the time interval, a measure(s) of collision risk, wherein the measure(s) of collision risk is indicative of a predicted minimum separation distance between the predicted future location(s) of the object(s) and the future position of the taxiing aircraft within the time interval; forming image data of a view of an area external to and including the taxiing aircraft; mapping into the image data symbols indicative of the object(s) external to the aircraft at the tracked location(s); rendering the image data with velocity vectors associated with the object(s) external to the aircraft; and annotating the image data with the determined measure(s) of collision risk.
A method of estimating an available bandwidth of each User Equipment, UE, by an enhanced node B in a mobile communication system, the method comprising: receiving estimated bandwidth information for a UE from at least one subordinate layer within the enhanced node B; identifying at least one of channel quality information and an amount of data with which the enhanced node B serves the UE included in the received estimated bandwidth information; updating a parameter related to a channel status through a percentage of variation of the channel quality information if the received estimated bandwidth information is the channel quality information ; updating a weighted average value for a number of bytes of a served bandwidth received as the estimated bandwidth information if the received estimated bandwidth information comprises the amount of data with which the enhanced node B serves the UE ; and determining an available bandwidth of the UE by using the updated parameter and the updated weighted average value for the number of bytes of the served bandwidth, and then transmitting information on the available bandwidth to a server. receiving estimated bandwidth information for a UE from at least one subordinate layer within the enhanced node B; identifying at least one of channel quality information and an amount of data with which the enhanced node B serves the UE included in the received estimated bandwidth information; updating a parameter related to a channel status through a percentage of variation of the channel quality information if the received estimated bandwidth information is the channel quality information ; updating a weighted average value for a number of bytes of a served bandwidth received as the estimated bandwidth information if the received estimated bandwidth information comprises the amount of data with which the enhanced node B serves the UE ; and determining an available bandwidth of the UE by using the updated parameter and the updated weighted average value for the number of bytes of the served bandwidth, and then transmitting information on the available bandwidth to a server.
A polymeric tape comprising a flattened multi-filament yarn, said yarn comprising a plurality of continuous polymeric filaments that are twisted together and bonded together; wherein said yarn is twisted to have at least about 0.5 twists per inch (0.5 twists per 2.54 cm) of yarn length up to about 15 twists per inch (15 twists per 2.54 cm) of yarn length, as measured in accordance with ASTM D1423-02; and wherein either (i) said tape has an ultimate tensile strength of at least 15 g/denier; and wherein the value of the ultimate tensile strength (g/denier) of the tape multiplied by the ultimate elongation (%) of the tape (UTS ∗ UE) is at least 150; or (ii) said tape has an ultimate elongation (y)(%) and an ultimate tensile strength (x)(g/denier) that are proportional to each other and conform to the relationship y=-0.04x + b, where b = 5 or greater and x is 15 or greater; wherein the ultimate tensile strength is measured by ASTM D882-09, and wherein the ultimate elongation is measured by ASTM D2256-02. (i) said tape has an ultimate tensile strength of at least 15 g/denier; and wherein the value of the ultimate tensile strength (g/denier) of the tape multiplied by the ultimate elongation (%) of the tape (UTS ∗ UE) is at least 150; or (ii) said tape has an ultimate elongation (y)(%) and an ultimate tensile strength (x)(g/denier) that are proportional to each other and conform to the relationship y=-0.04x + b, where b = 5 or greater and x is 15 or greater;
An apparatus for detecting and responding to changes in a subject in applying tumor treating fields to a region of interest of the subject's body corresponding to a tumor of the subject's body, the apparatus comprising one or more processors and memory accessible by the one or more processors and providing stored instructions that, when executed by the one or more processors , cause the apparatus to: alternately apply to the region of interest a first electric field between a first pair of locations of the subject's body and a second electric field between a second pair of locations of the subject's body; detect a change in the region of interest; record changes in the region of interest based on at least one of a posture change of the subject's body, a change in vital signs of the subject's body, a physiological change of the subject's body, a change in the voltage and/or current of the tumor treating fields or a change in the impedance of the subject's body over time; generate a habit model of the subject's body based on the recorded changes in the region of interest; cease applying the first and second electric fields; select, based on the habit model, a third pair of locations of the subject's body and a fourth pair of locations of the subject's body, the third and fourth pairs of locations (505, 508; 506, 507) being different than the first and second pairs of locations (501, 504; 502, 503); and alternately apply to the region of interest a third electric field between the third pair of locations and a fourth electric field between the fourth pair of locations . alternately apply to the region of interest a first electric field between a first pair of locations of the subject's body and a second electric field between a second pair of locations of the subject's body; detect a change in the region of interest; record changes in the region of interest based on at least one of a posture change of the subject's body, a change in vital signs of the subject's body, a physiological change of the subject's body, a change in the voltage and/or current of the tumor treating fields or a change in the impedance of the subject's body over time; generate a habit model of the subject's body based on the recorded changes in the region of interest; cease applying the first and second electric fields; select, based on the habit model, a third pair of locations of the subject's body and a fourth pair of locations of the subject's body, the third and fourth pairs of locations (505, 508; 506, 507) being different than the first and second pairs of locations (501, 504; 502, 503); and alternately apply to the region of interest a third electric field between the third pair of locations and a fourth electric field between the fourth pair of locations .