mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing a broadcast service at a Primary Device, PD, the method comprising: receiving broadcast signals including the broadcast service, Service Layer Signaling, SLS, and a signaling table, wherein the broadcast service is a linear service with an application-based enhancement or an application-based service; wherein the signaling table includes information used for a transport session carrying the SLS; parsing the SLS including a Service-based Transport Session Instance Description, S-TSID, a Media Presentation Description, MPD, and application signaling information, wherein the S-TSID includes information for transport sessions carrying the broadcast service, the application signaling information is used for delivering the application-based enhancement, and the MPD includes a period element having an event stream element for the broadcast service, wherein the event stream element includes a plurality of event elements, and each of the event elements includes an event ID for an event and timing information for indicating start time of the event; decoding the broadcast service based on the SLS. receiving broadcast signals including the broadcast service, Service Layer Signaling, SLS, and a signaling table, wherein the broadcast service is a linear service with an application-based enhancement or an application-based service; wherein the signaling table includes information used for a transport session carrying the SLS; parsing the SLS including a Service-based Transport Session Instance Description, S-TSID, a Media Presentation Description, MPD, and application signaling information, wherein the S-TSID includes information for transport sessions carrying the broadcast service, the application signaling information is used for delivering the application-based enhancement, and the MPD includes a period element having an event stream element for the broadcast service, wherein the event stream element includes a plurality of event elements, and each of the event elements includes an event ID for an event and timing information for indicating start time of the event; decoding the broadcast service based on the SLS.
A method for wireless communications at a user equipment, UE, comprising: identifying a configuration of a plurality of control resource sets for transmitting downlink control information for a downlink data transmission; performing a demodulation reference signal, DMRS, measurement on a shared radio frequency spectrum band for each transmission and reception point, TRP, of a plurality of TRPs, wherein each TRP of the plurality of TRPs is associated with a different control resource set of the plurality of control resource sets; detecting DMRS transmissions from more than one TRPs of the plurality of TRPs for which DRMS measurements are performed; receiving the downlink control information using more than one control resource sets of the plurality of control resource sets, wherein the more than one control resource sets being used are associated with the more than one TRPs from which DMRS transmissions are detected; and receiving a downlink data transmission based at least in part on the downlink control information. identifying a configuration of a plurality of control resource sets for transmitting downlink control information for a downlink data transmission; performing a demodulation reference signal, DMRS, measurement on a shared radio frequency spectrum band for each transmission and reception point, TRP, of a plurality of TRPs, wherein each TRP of the plurality of TRPs is associated with a different control resource set of the plurality of control resource sets; detecting DMRS transmissions from more than one TRPs of the plurality of TRPs for which DRMS measurements are performed; receiving the downlink control information using more than one control resource sets of the plurality of control resource sets, wherein the more than one control resource sets being used are associated with the more than one TRPs from which DMRS transmissions are detected; and receiving a downlink data transmission based at least in part on the downlink control information.
An internet-ofthings, IoT, sensor management method, wherein the method comprises: obtaining , by a wireless access point, AP, with a wireless local area network, WLAN, function, a measurement parameter collected by an IoT sensor , wherein the IoT sensor is integrated in the wireless AP; sending , by the wireless AP when the measurement parameter meets a first trigger condition, an indication to a first execution device of an IoT system, the first execution device being pointed to by a first execution action, wherein the indication is an indication to execute the first execution action, wherein the first execution action is triggered by the first trigger condition; and changing , by the wireless AP, a setting of the WLAN function of the wireless AP when the measurement parameter meets a second trigger condition; wherein the changing , by the wireless AP, a setting of the WLAN function of the wireless AP when the measurement parameter meets a second trigger condition comprises: canceling, by the wireless AP when the measurement parameter indicates that an emergency case has occurred, all WLAN authentications to open a WLAN. obtaining , by a wireless access point, AP, with a wireless local area network, WLAN, function, a measurement parameter collected by an IoT sensor , wherein the IoT sensor is integrated in the wireless AP; sending , by the wireless AP when the measurement parameter meets a first trigger condition, an indication to a first execution device of an IoT system, the first execution device being pointed to by a first execution action, wherein the indication is an indication to execute the first execution action, wherein the first execution action is triggered by the first trigger condition; and changing , by the wireless AP, a setting of the WLAN function of the wireless AP when the measurement parameter meets a second trigger condition; wherein the changing , by the wireless AP, a setting of the WLAN function of the wireless AP when the measurement parameter meets a second trigger condition comprises: canceling, by the wireless AP when the measurement parameter indicates that an emergency case has occurred, all WLAN authentications to open a WLAN.
Method for controlling a welding device, carried out on at least one device, including at least one welding device with a welding torch connected to the welding device , - in which a part data set assigned to a determined part is obtained, which predefines welding parameter target values for a welding process to be performed on the part , - in which the welding device is set automatically in accordance with the predefined welding parameter target values for the welding process, - in which the part data set predefines a welding sequence plan for the part , wherein the welding sequence plan predefines an order for a plurality of welding processes to be performed successively on the part and welding parameter target values for the individual welding processes, and - in which the welding device is set automatically in accordance with the predefined welding parameter target values for the individual welding processes successively in the predefined order, characterised in that - in reaction to a predefined user input, the welding device is respectively set in accordance with the predefined welding parameter target values for the welding process which is next according to the predefined order, wherein the predefined user input is a user input on the welding torch such that an operator can successively process the welding sequence plan without having to put down the welding torch to do so. - in which a part data set assigned to a determined part is obtained, which predefines welding parameter target values for a welding process to be performed on the part , - in which the welding device is set automatically in accordance with the predefined welding parameter target values for the welding process, - in which the part data set predefines a welding sequence plan for the part , wherein the welding sequence plan predefines an order for a plurality of welding processes to be performed successively on the part and welding parameter target values for the individual welding processes, and - in which the welding device is set automatically in accordance with the predefined welding parameter target values for the individual welding processes successively in the predefined order, characterised in that - in reaction to a predefined user input, the welding device is respectively set in accordance with the predefined welding parameter target values for the welding process which is next according to the predefined order, wherein the predefined user input is a user input on the welding torch such that an operator can successively process the welding sequence plan without having to put down the welding torch to do so.
Machine for the fumigation treatment of agricultural lands, of the type comprising first means adapted to open a slit in said land and second means adapted to spray such land with a liquid fumigating substance, said second means , adapted to spray such land, being placed next to said first means adapted to open said slit in such land, spraying occurring simultaneously with said opening of said slit in the land, said first means being adapted to open a lenticular recess in such land, without overturning the land above said lenticular recess , said second means spraying said liquid fumigating substances inside said recess and said lenticular recess closing itself after the spraying of said liquid fumigating substances, in order to prevent a dispersion in the atmosphere of fumes produced by said liquid fumigating substances, in which said first means, adapted to open a lenticular recess in such land, without overturning the land above said lenticular recess , comprise at least one anchor , rigidly connected to the chassis of the machine , said anchor being assembled on a support , in order to have a slanted part which has an incidence angle α included between 12° and 20°, and has a sweep angle β included between 110° and 140°, characterized in that said machine further has an upper part of the anchor having a null inclination, in order to support a vault of said recess , to guarantee a free space to said second means below, so as to spray said fumigating substances till the edges of said recess , said second means adapted to spray said land with a liquid fumigating substance, comprising sprayers , placed below said anchors .
A method at a communications device of increasing reliability of the transfer of data received via in-band signaling during an eCall or a next generation eCall, the method comprising: obtaining an indication of in-band signaling, the in-band signaling occurring in an audio channel of a communication network and said in-band signaling transferring a minimum set of data, MSD, during the eCall or the next generation eCall; and in response to obtaining the indication of in-band signaling, utilizing a modified decoding process to decode audio signals for the audio channel, wherein the modified decoding process comprises disabling an adaptive de-jitter buffer ; or increasing a time interval for audio packet buffering in an adaptive de-jitter buffer . obtaining an indication of in-band signaling, the in-band signaling occurring in an audio channel of a communication network and said in-band signaling transferring a minimum set of data, MSD, during the eCall or the next generation eCall; and in response to obtaining the indication of in-band signaling, utilizing a modified decoding process to decode audio signals for the audio channel, wherein the modified decoding process comprises disabling an adaptive de-jitter buffer ; or increasing a time interval for audio packet buffering in an adaptive de-jitter buffer .
An apparatus comprising: a memory interface ; an array of processing clusters each including a multiprocessor unit coupled to the memory interface , at least one multiprocessor unit to execute a fused multiply-add instruction in parallel across multiple threads, the at least one multiprocessor unit comprising: a register file (1406; 1825) to store data; and a compute unit (1411,..., 1418; 1824A, ..., 1824N) coupled to the register file (1406; 1825), the compute unit (1411,..., 1418; 1824A, ..., 1824N) to execute the fused multiply-add instruction on matrix data, the compute unit (1411,..., 1418; 1824A, ..., 1824N) comprising: hardware logic to quantize the matrix data from a higher precision, including a 32-bit floating point format to a lower precision floating point format, including a 16-bit floating point format, having a 1-bit sign, an 8-bit exponent, and a 7-bit mantissa, wherein the matrix data is quantized from the higher to the lower precision by using fewer bits for the mantissa; and one or more logic units to perform the fused multiply-add operation on the matrix data in the lower precision floating point format. a memory interface ; an array of processing clusters each including a multiprocessor unit coupled to the memory interface , at least one multiprocessor unit to execute a fused multiply-add instruction in parallel across multiple threads, the at least one multiprocessor unit comprising: a register file (1406; 1825) to store data; and a compute unit (1411,..., 1418; 1824A, ..., 1824N) coupled to the register file (1406; 1825), the compute unit (1411,..., 1418; 1824A, ..., 1824N) to execute the fused a register file (1406; 1825) to store data; and a compute unit (1411,..., 1418; 1824A, ..., 1824N) coupled to the register file (1406; 1825), the compute unit (1411,..., 1418; 1824A, ..., 1824N) to execute the fused multiply-add instruction on matrix data, the compute unit (1411,..., 1418; 1824A, ..., 1824N) comprising: hardware logic to quantize the matrix data from a higher precision, including a 32-bit floating point format to a lower precision floating point format, including a 16-bit floating point format, having a 1-bit sign, an 8-bit exponent, and a 7-bit mantissa, wherein the matrix data is quantized from the higher to the lower precision by using fewer bits for the mantissa; and one or more logic units to perform the fused multiply-add operation on the matrix data in the lower precision floating point format. hardware logic to quantize the matrix data from a higher precision, including a 32-bit floating point format to a lower precision floating point format, including a 16-bit floating point format, having a 1-bit sign, an 8-bit exponent, and a 7-bit mantissa, wherein the matrix data is quantized from the higher to the lower precision by using fewer bits for the mantissa; and one or more logic units to perform the fused multiply-add operation on the matrix data in the lower precision floating point format.
A charger for charging an aerosol-generating device comprising: a housing defining a cavity for receiving the aerosol-generating device to be charged, the cavity having an opening , at least one electrical contact being located in the cavity ; and a cover slidable relative to the opening between an open position and a closed position, an inner surface of the cover facing the cavity when the cover is in the closed position, in which: at least a portion of the inner surface of the cover defines a profiled engagement member having a leading edge and a trailing edge , the profiled engagement member sloping into, or towards, the cavity when the cover is in the closed position, the slope increasing in a direction from the leading edge to the trailing edge of the profiled engagement member . a housing defining a cavity for receiving the aerosol-generating device to be charged, the cavity having an opening , at least one electrical contact being located in the cavity ; and a cover slidable relative to the opening between an open position and a closed position, an inner surface of the cover facing the cavity when the cover is in the closed position, in which: at least a portion of the inner surface of the cover defines a profiled engagement member having a leading edge and a trailing edge , the profiled engagement member sloping into, or towards, the cavity when the cover is in the closed position, the slope increasing in a direction from the leading edge to the trailing edge of the profiled engagement member . at least a portion of the inner surface of the cover defines a profiled engagement member having a leading edge and a trailing edge , the profiled engagement member sloping into, or towards, the cavity when the cover is in the closed position, the slope increasing in a direction from the leading edge to the trailing edge of the profiled engagement member .
A method for calibrating a linearization function for correcting the output of a position sensor providing a continuous output position signal, wherein the linearization function has a predetermined number of linearization points, wherein each linearization point specifies a correction factor for a corresponding position of the output signal of the position sensor, comprising the steps of: setting an initial linearization point of the linearization function for a starting position to a start position of the position sensor; setting a final linearization point of the linearization function for a last position to the final position of the position sensor; determining the output of the position sensor for a full period by applying the linearization function to the position signal of the position sensor for the full period; calculating an error vector for the full period of the position sensor by comparing the output of the position sensor with a reference signal , wherein the reference signal provides an ideal position signal for the full period of the position sensor; detecting the maximum error of the error vector and the corresponding position of the detected maximum error; setting a next linearization point of the linearization function to the position of the maximum error and a correction factor corresponding to the difference between the output of the position sensor and the ideal position of the reference signal for the position of the maximum error; repeating the steps of determining the output of the position sensor, calculating the error vector, detecting the maximum error and setting the next linearization point until all available linearization points have been set. setting an initial linearization point of the linearization function for a starting position to a start position of the position sensor; setting a final linearization point of the linearization function for a last position to the final position of the position sensor; determining the output of the position sensor for a full period by applying the linearization function to the position signal of the position sensor for the full period; calculating an error vector for the full period of the position sensor by comparing the output of the position sensor with a reference signal , wherein the reference signal provides an ideal position signal for the full period of the position sensor; detecting the maximum error of the error vector and the corresponding position of the detected maximum error; setting a next linearization point of the linearization function to the position of the maximum error and a correction factor corresponding to the difference between the output of the position sensor and the ideal position of the reference signal for the position of the maximum error; repeating the steps of determining the output of the position sensor, calculating the error vector, detecting the maximum error and setting the next linearization point until all available linearization points have been set.
Apparatus for additively manufacturing three-dimensional objects by means of successive layerwise consolidation of layers of a build material which can be consolidated by means of an energy source, comprising a dose module and a build module and an application unit , wherein the application unit is adapted to convey build material from a dose plane provided by the dose module to a build plane of the build module , characterized by at least one buffer module , wherein the application unit is adapted to convey build material from a buffer plane to the build plane , which buffer plane is provided by the buffer module in an operational state of the apparatus in which the dose module is not available, in particular during an exchange of the dose module , wherein the buffer plane is smaller than the dose plane .
Garden implement operator control apparatus comprising a handle unit on which at least one operator control unit (12a; 12b; 12c; 12d) is arranged, wherein the operator control unit (12a; 12b; 12c; 12d) has, on a handle element of the handle unit or on a main and auxiliary handle of the handle unit , at least one operator control element (14a; 14b; 14c; 14d) which can be operated by an operator and at least one further operator control element (16a; 16b; 16c; 16d) which can be operated by an operator, and having at least one electronics unit (18a; 18b; 18c; 18d) which is provided to switch at least one power supply of a drive unit (20a; 20c; 20d) at least as a function of operation of the operator control element (14a; 14b; 14c; 14d) and of the further operator control element (16a; 16b; 16c; 16d), wherein the operator control element (14a; 14b; 14c; 14d) and/or the further operator control element (16a; 16b; 16c; 16d) are/is designed as (an) electronic operator control element(s), wherein the electronics unit (18a; 18b; 18c; 18d) is provided at least to switch at least the power supply of the drive unit (20a; 20c; 20d) at least as a function of an operating characteristic variable which is formed as an operating sequence of the operator control element (14a; 14b; 14c; 14d) and/or of the further operator control element (16a; 16b; 16c; 16d) defined with respect to time and/or defined in terms of an order, characterized in that the operator control element (14a; 14b; 14c; 14d) and/or the further operator control element (16a; 16b; 16c; 16d) are/is designed as (a) resistive, capacitive and/or inductive operator control element(s) and the electronics unit (18a; 18b; 18c; 18d) is provided for switching at least one garden implement function, in particular a garden implement function that is different from activation or deactivation of the power supply of the drive unit (20a; 20c; 20d), at least as a function of a sensed operator movement on the operator control element (14a; 14b; 14c; 14d) and/or on the further operator control element (16a; 16b; 16c; 16d).
A method for detecting at least one nucleic acid to be detected in a solution during and/or after an amplification or replication of the nucleic acid to be detected , the method comprising the steps of: - providing at least one dye , wherein the solution and/or a reaction vessel (R), wherein the solution is present, comprises the dye and wherein the at least one dye is adapted to emit emission light due to an optical excitation by excitation light; - providing at least one absorber in the solution, wherein the absorber is adapted to cause an attenuation of the emission light and/or the excitation light and wherein the attenuation is influenced by a bonding of the at least one absorber to the nucleic acid to be detected ; and - radiating excitation light into the solution and measuring an intensity of the emission light; wherein the attenuation of the emission light and/or the excitation light by the at least one absorber occurs independently of a quantum yield of the at least one dye. - providing at least one dye , wherein the solution and/or a reaction vessel (R), wherein the solution is present, comprises the dye and wherein the at least one dye is adapted to emit emission light due to an optical excitation by excitation light; - providing at least one absorber in the solution, wherein the absorber is adapted to cause an attenuation of the emission light and/or the excitation light and wherein the attenuation is influenced by a bonding of the at least one absorber to the nucleic acid to be detected ; and - radiating excitation light into the solution and measuring an intensity of the emission light;