mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device , comprising: a plurality of electrodes configured to provide stimulation for a patient's tissue; stimulation circuitry ; at least one sense amplifier ; and control circuitry configured to control the stimulation circuitry to issue stimulation pulses pursuant to a stimulation program using at least two active electrodes, receive from the at least one sense amplifier a neural response to at least one of the stimulation pulses from at least one non-active electrode of the plurality of electrodes and to determine at least one measure of synchronicity of the neural response, and in response to the at least one measure of synchronicity, adjust the stimulation program at the stimulation circuitry to promote desynchronicity of the neural response; the medical device being characterized in that the control circuitry is configured to adjust the stimulation program by adding to the at least two active electrodes an additional one or more anode electrodes or one or more cathodes that issue one or more additional pulses. a plurality of electrodes configured to provide stimulation for a patient's tissue; stimulation circuitry ; at least one sense amplifier ; and control circuitry configured to control the stimulation circuitry to issue stimulation pulses pursuant to a stimulation program using at least two active electrodes, receive from the at least one sense amplifier a neural response to at least one of the stimulation pulses from at least one non-active electrode of the plurality of electrodes and to determine at least one measure of synchronicity of the neural response, and in response to the at least one measure of synchronicity, adjust the stimulation program at the stimulation circuitry to promote desynchronicity of the neural response; the medical device being characterized in that the control circuitry is configured to adjust the stimulation program by adding to the at least two active electrodes an additional one or more anode electrodes or one or more cathodes that issue one or more additional pulses. control the stimulation circuitry to issue stimulation pulses pursuant to a stimulation program using at least two active electrodes, receive from the at least one sense amplifier a neural response to at least one of the stimulation pulses from at least one non-active electrode of the plurality of electrodes and to determine at least one measure of synchronicity of the neural response, and in response to the at least one measure of synchronicity, adjust the stimulation program at the stimulation circuitry to promote desynchronicity of the neural response; the medical device being characterized in that the control circuitry is configured to adjust the stimulation program by adding to the at least two active electrodes an additional one or more anode electrodes or one or more cathodes that issue one or more additional pulses.
A method comprising: providing, by a computing device executing an optimizer , a user interface, UI , that presents a plurality of options to modify a video; receiving, via the UI, a user selection of a subset of options of the plurality of options; in response to the user selection of the subset of options, processing, by the computing device executing the optimizer, a video of the plurality of videos using a plurality of rules to determine one or more optimizations for the video, the one or more optimizations reflecting the subset of options by modifying properties of the video to be closer to predetermined properties that are correlated with improved viewership statistics; modifying the video to produce a modified version of the video that implements the one or more optimizations; causing the modified version of the video to be presented to viewers; and monitoring viewership or viewing time for the modified and original versions of the video, and if the viewership or viewing time stayed the same or went down after implementing the optimizations, adjusting one or more of the rules used to determine the one or more optimizations for the video. providing, by a computing device executing an optimizer , a user interface, UI , that presents a plurality of options to modify a video; receiving, via the UI, a user selection of a subset of options of the plurality of options; in response to the user selection of the subset of options, processing, by the computing device executing the optimizer, a video of the plurality of videos using a plurality of rules to determine one or more optimizations for the video, the one or more optimizations reflecting the subset of options by modifying properties of the video to be closer to predetermined properties that are correlated with improved viewership statistics; modifying the video to produce a modified version of the video that implements the one or more optimizations; causing the modified version of the video to be presented to viewers; and monitoring viewership or viewing time for the modified and original versions of the video, and if the viewership or viewing time stayed the same or went down after implementing the optimizations, adjusting one or more of the rules used to determine the one or more optimizations for the video.
A fluid detection system , comprising: a sensor module comprising: a sensor base or a sensor housing ; a sensor cover coupled to the sensor base; and a sensor element ; wherein: the sensor element comprises at least one continuous conductor configured to detect a capacitance within a liquid flow path from a position outside the liquid flow path and to communicatively couple to a controller of an electronics module comprising a pin, the at least one continuous conductor configured to extend around substantially all of the liquid flow path; and the sensor base or the sensor housing comprises: a first cavity configured to house at least a portion of the sensor element; a second cavity configured to couple with an electronics module; and at least one divider to separate the first cavity from the second cavity, the divider comprising an opening to facilitate coupling of the sensor element with the pin of the electronics module. a sensor base or a sensor housing ; a sensor cover coupled to the sensor base; and a sensor element ; the sensor element comprises at least one continuous conductor configured to detect a capacitance within a liquid flow path from a position outside the liquid flow path and to communicatively couple to a controller of an electronics module comprising a pin, the at least one continuous conductor configured to extend around substantially all of the liquid flow path; and the sensor base or the sensor housing comprises: a first cavity configured to house at least a portion of the sensor element; a second cavity configured to couple with an electronics module; and at least one divider to separate the first cavity from the second cavity, the divider comprising an opening to facilitate coupling of the sensor element with the pin of the electronics module. a first cavity configured to house at least a portion of the sensor element; a second cavity configured to couple with an electronics module; and at least one divider to separate the first cavity from the second cavity, the divider comprising an opening to facilitate coupling of the sensor element with the pin of the electronics module.
A method of decoding video data, the method comprising: constructing a history-based motion vector prediction, HMVP, candidate history table that includes motion vector information of previously coded blocks that extend beyond adjacent neighboring blocks of a current block of the video data; constructing a motion vector predictor list; adding one or more HMVP candidates from the HMVP candidate history table to the motion vector predictor list, wherein adding the one or more HMVP candidates from the HMVP candidate history table comprises: comparing a first HMVP candidate in the HMVP candidate history table to two entries in the motion vector predictor list and no other entries in the motion vector predictor list; and adding the first HMVP candidate to the motion vector predictor list when the first HMVP candidate is different than both of the two entries in the motion vector predictor list; and decoding the current block of video data using the motion vector predictor list; characterized in that the two entries in the motion vector predictor list are predefined and comprise a first entry for a left neighboring block of the current block and a second entry for an above neighboring block of the current block. constructing a history-based motion vector prediction, HMVP, candidate history table that includes motion vector information of previously coded blocks that extend beyond adjacent neighboring blocks of a current block of the video data; constructing a motion vector predictor list; adding one or more HMVP candidates from the HMVP candidate history table to the motion vector predictor list, wherein adding the one or more HMVP candidates from the HMVP candidate history table comprises: comparing a first HMVP candidate in the HMVP candidate history table to two entries in the motion vector predictor list and no other entries in the motion vector predictor list; and adding the first HMVP candidate to the motion vector predictor list when the first HMVP candidate is different than both of the two entries in the motion vector predictor list; and comparing a first HMVP candidate in the HMVP candidate history table to two entries in the motion vector predictor list and no other entries in the motion vector predictor list; and adding the first HMVP candidate to the motion vector predictor list when the first HMVP candidate is different than both of the two entries in the motion vector predictor list; and decoding the current block of video data using the motion vector predictor list; characterized in that the two entries in the motion vector predictor list are predefined and comprise a first entry for a left neighboring block of the current block and a second entry for an above neighboring block of the current block.
An insulating resin material, comprising: porous inorganic aggregates each having pores, the aggregates each comprising a plurality of fine particles; and fibrils comprising a fibril made from polytetrafluoroethylene, wherein each fibril of the fibrils is multidirectionally oriented, wherein the insulating resin material has at least one connection selected from the group consisting of (i) a connection among the aggregates; (ii) a connection among the fibrils; and (iii) a connection between the aggregates and the fibrils, and wherein the insulating resin material has a micro network structure with a porosity of 50% or more. porous inorganic aggregates each having pores, the aggregates each comprising a plurality of fine particles; and fibrils comprising a fibril made from polytetrafluoroethylene, wherein each fibril of the fibrils is multidirectionally oriented, wherein the insulating resin material has at least one connection selected from the group consisting of (i) a connection among the aggregates; (ii) a connection among the fibrils; and (iii) a connection between the aggregates and the fibrils, and wherein the insulating resin material has a micro network structure with a porosity of 50% or more.
A lighting system comprising at least a first and at least one second lighting device , each lighting device comprising a plurality of lighting units mounted only in a first direction (X) along a length of an elongated carrier , each lighting unit of the plurality of lighting units being mounted with a respective, fixed, pre-determined orientation, said plurality of lighting units of the first lighting device being configured to directly project on a target area a row of a first plurality of light patches , wherein said at least first and at least second lighting device substantially lie in line in the length direction (X), characterized in that said row of first plurality of light patches extends on said target area only in a second direction (Y) transverse to the first direction (X) and that said plurality of lighting units of the second lighting device are configured to generate a row of second light patches which extend substantially parallel to said row of first plurality of light patches on said target area , wherein the first lighting device has tunable first lighting units comprising first light sources configured to issue first light of a first color, color temperature or CCT and the second lighting device has tunable second lighting units comprising second light sources configured to issue second light of a second, color, color temperature or CCT different from the first light, and wherein the first light sources are configured to provide first light at a first intensity and the second light sources are configured to provide light at a second intensity lower than the first intensity. wherein said at least first and at least second lighting device substantially lie in line in the length direction (X), characterized in that said row of first plurality of light patches extends on said target area only in a second direction (Y) transverse to the first direction (X) and that said plurality of lighting units of the second lighting device are configured to generate a row of second light patches which extend substantially parallel to said row of first plurality of light patches on said target area , wherein the first lighting device has tunable first lighting units comprising first light sources configured to issue first light of a first color, color temperature or CCT and the second lighting device has tunable second lighting units comprising second light sources configured to issue second light of a second, color, color temperature or CCT different from the first light, and wherein the first light sources are configured to provide first light at a first intensity and the second light sources are configured to provide light at a second intensity lower than the first intensity.
A compound of formula (I) an enantiomer, or a pharmaceutically acceptable salt thereof, wherein R = H, halogen, C 1-6 alkyl, C 1-6 alkoxy, OH, CF 3 , NR"R"'; R' = H, C 1-6 alkyl; X is H, C 1-6 alkyl, C 1-6 alkoxy, NRʺR′′′, C 1-6 alkylalkoxy, C 1 -C 6 alkylamide; R"R"' are, independently, H, C 1-6 alkyl, C 1-6 alkylalkoxy, for use in treating cancer. an enantiomer, or a pharmaceutically acceptable salt thereof, wherein R = H, halogen, C 1-6 alkyl, C 1-6 alkoxy, OH, CF 3 , NR"R"'; R' = H, C 1-6 alkyl; X is H, C 1-6 alkyl, C 1-6 alkoxy, NRʺR′′′, C 1-6 alkylalkoxy, C 1 -C 6 alkylamide; R"R"' are, independently, H, C 1-6 alkyl, C 1-6 alkylalkoxy, for use in treating cancer.
Method for manufacturing an automotive part , comprising: - providing a first layer on a receiving surface of a first half-mold ; - placing a closing surface of a second half-mold facing the receiving surface to define at least a first part of a molding cavity ; - forming a foam layer in the molding cavity ; characterized by : - before forming the foam layer , cutting an outer region of the first layer along a cutting edge , the first layer remaining on the receiving surface ; - defining a second part of the molding cavity , extending away from the first layer , beyond the cutting edge , the second part of the molding cavity extending the first part of the molding cavity , the foam layer forming step comprising filling the first part and the second part of the molding cavity to create the foam layer with a base region adhering on the first layer and a protruding region protruding beyond the first layer from the cutting edge , the protruding region being uncovered. - providing a first layer on a receiving surface of a first half-mold ; - placing a closing surface of a second half-mold facing the receiving surface to define at least a first part of a molding cavity ; - forming a foam layer in the molding cavity ; - before forming the foam layer , cutting an outer region of the first layer along a cutting edge , the first layer remaining on the receiving surface ; - defining a second part of the molding cavity , extending away from the first layer , beyond the cutting edge , the second part of the molding cavity extending the first part of the molding cavity ,
A drive circuit operable to receive power from a DC power source and apply AC drive power to a motor at a working current and voltage, which drive circuit includes at least one power inverter and a controller for the power inverter: a) wherein the power inverter has: • a number p , where p ≥ 1, of phase outputs (40 A , 40 B , 40 C ), each driven by a number n , where n ≥ 2, of switching legs , each of wherein which switching legs includes: • two series-connected half-legs the phase output being connected between the half-legs, characterised by each half-leg including: • a number s, where s > 1, of series-connected switching stages , each of which is capable of operating at the working voltage divided by s - 1; • and n - 1 legs are capable of delivering the working current of a phase; and b) wherein the controller has a plurality of independent drivers , each switch within a phase being controlled by a different one of the plurality of drivers. a) wherein the power inverter has: • a number p , where p ≥ 1, of phase outputs (40 A , 40 B , 40 C ), each driven by a number n , where n ≥ 2, of switching legs , each of wherein which switching legs includes: • two series-connected half-legs the phase output being connected between the half-legs, characterised by each half-leg including: • a number s, where s > 1, of series-connected switching stages , each of which is capable of operating at the working voltage divided by s - 1; • and n - 1 legs are capable of delivering the working current of a phase; and • a number p , where p ≥ 1, of phase outputs (40 A , 40 B , 40 C ), each driven by a number n , where n ≥ 2, of switching legs , each of wherein which switching legs includes: • two series-connected half-legs the phase output being connected between the half-legs, characterised by each half-leg including: • a number s, where s > 1, of series-connected switching stages , each of which is capable of operating at the working voltage divided by s - 1; • two series-connected half-legs the phase output being connected between the half-legs, characterised by each half-leg including: • a number s, where s > 1, of series-connected switching stages , each of which is capable of operating at the working voltage divided by s - 1; • a number s, where s > 1, of series-connected switching stages , each of which is capable of operating at the working voltage divided by s - 1; • and n - 1 legs are capable of delivering the working current of a phase; and b) wherein the controller has a plurality of independent drivers , each switch within a phase being controlled by a different one of the plurality of drivers.
A set of nucleic acid sequences for typing detection of cutaneous human papillomaviruses (HPVs), wherein the nucleic acid sequences are specifically nucleic acid sequences of 30 primer pairs that are useful in the typing detection of 30 cutaneous HPVs, and the nucleic acid sequences of the 30 primer pairs are set forth in SEQ ID NOs : 1 to 60.
A magnetic cooling apparatus comprising a plurality of cooling modules , each of the cooling modules including: a pair of magnetic regenerators arranged to allow a heat transfer fluid to pass therethrough and filled with a magnetocaloric material; a bidirectional fluid supply device arranged to change flow of the heat transfer fluid between two directions and to supply the heat transfer fluid into the magnetic regenerator , and a guide flow passage arranged to connect the magnetic regenerators to the bidirectional fluid supply device to guide flow of the heat transfer fluid such that the heat transfer fluid reciprocates through the first magnetic regenerator , the second magnetic regenerator and the fluid supply device as a closed loop, wherein the cooling modules are rotatably arranged in a circumferential direction. a pair of magnetic regenerators arranged to allow a heat transfer fluid to pass therethrough and filled with a magnetocaloric material; a bidirectional fluid supply device arranged to change flow of the heat transfer fluid between two directions and to supply the heat transfer fluid into the magnetic regenerator , and a guide flow passage arranged to connect the magnetic regenerators to the bidirectional fluid supply device to guide flow of the heat transfer fluid such that the heat transfer fluid reciprocates through the first magnetic regenerator , the second magnetic regenerator and the fluid supply device as a closed loop, wherein the cooling modules are rotatably arranged in a circumferential direction.
Fastening clip, comprising: a clip body comprising a pair of side walls , said side walls being provided with windows ; a pair of retaining portions , a part of which protrude through said windows in the rest and use positions and that are deflected during the placement of the fastening clip in its use position, each of said retaining portions comprising an end portion ; and a head portion provided at an end of the clip body and protruding from said side walls , characterized in that said end portions comprise a bent portion , each end portion being divided in two side portions by a groove , and said bent portion being in one of said two side portions , and in that the fastening clip also comprises a base body comprising verification elements that in the use position are placed in the groove between said side portions . a clip body comprising a pair of side walls , said side walls being provided with windows ; a pair of retaining portions , a part of which protrude through said windows in the rest and use positions and that are deflected during the placement of the fastening clip in its use position, each of said retaining portions comprising an end portion ; and a head portion provided at an end of the clip body and protruding from said side walls , characterized in that said end portions comprise a bent portion , each end portion being divided in two side portions by a groove , and said bent portion being in one of said two side portions , and in that the fastening clip also comprises a base body comprising verification elements that in the use position are placed in the groove between said side portions .
An aerosol-generating device, comprising: a housing comprising an air inlet , an air outlet , and an airflow path extending therebetween; an aerosol-generating element disposed within the housing and configured to generate an aerosol; a thermal output element coupled to the housing, the thermal output element being distinct from the aerosol-generating element ; and a circuit coupled to the thermal output element and configured to cause the thermal output element to generate a user-perceptible temperature change. a housing comprising an air inlet , an air outlet , and an airflow path extending therebetween; an aerosol-generating element disposed within the housing and configured to generate an aerosol; a thermal output element coupled to the housing, the thermal output element being distinct from the aerosol-generating element ; and a circuit coupled to the thermal output element and configured to cause the thermal output element to generate a user-perceptible temperature change.