mhurhangee/ep-ind-claims huggingface dataset:
Computing system for identifying files transmitted from an internal computing device within an internal network to an external computing device within an external network, the computing system comprising one or more internal computing devices, the internal computing devices being connectable by an internal network, wherein at least one of the internal computing devices is configured to be operable as a workstation (4, 4') or as a file server, wherein the workstation (4,4') or the file server is configured to generate, store and/or transmit a data file, wherein at least one of the internal computing devices is configured to be operable as a gateway, wherein the gateway is configured to connect the internal network to the external network, wherein at least one of the internal computing devices is configured to be operable as an insertion device, wherein the insertion device is configured to determine a data file to be processed, the data file being stored on the workstation (4, 4') or the file server or about to be transmitted through the gateway; determine if a data file element needs to be inserted into the data file based on criteria associated with the data file; in case a data file element needs to be inserted into the data file - generate the data file element; - insert the data file element into the data file to generate a tagged data file; and - transmit the tagged data file to the external computing device through the gateway, in case no data file element needs to be inserted into the data file - transmit the data file to the external computing device through the gateway, and wherein at least one computing device is configured to be operable as a monitoring server, wherein the at least one monitoring server is configured to receive information transmitted by the external computing device upon opening, reading and/or processing the tagged data file, wherein the at least one monitoring server is an internal computing device and/or an external computing device. determine a data file to be processed, the data file being stored on the workstation (4, 4') or the file server or about to be transmitted through the gateway; determine if a data file element needs to be inserted into the data file based on criteria associated with the data file; in case a data file element needs to be inserted into the data file - generate the data file element; - insert the data file element into the data file to generate a tagged data file; and - transmit the tagged data file to the external computing device through the gateway, - generate the data file element; - insert the data file element into the data file to generate a tagged data file; and - transmit the tagged data file to the external computing device through the gateway, in case no data file element needs to be inserted into the data file - transmit the data file to the external computing device through the gateway, - transmit the data file to the external computing device through the gateway,
An inductive antenna comprising: an insulating substrate; a first planar conductive winding on a first surface of the substrate, interrupted at regular intervals to form a series of pairs of first conductive tracks (522, 524; 542, 544; 562, 564); a second planar conductive winding on a second surface of the substrate facing the first winding and interrupted facing the interruptions in the first winding to form a series of pairs of second conductive tracks (526, 528; 546, 548; 566, 568), each pair of first tracks defining, with the facing pair of second tracks, a resonant subassembly (52, 54, 56); the first two tracks of a same subassembly being not interconnected and each being electrically connected to one and only one other first track of another subassembly or to a terminal (41, 43) of the antenna; the second tracks of neighboring pairs being not electrically interconnected; and one end (5224, 5244, 5424, 5444, 5624, 5644) of each first track being electrically connected (523, 543, 563, 525, 545, 565) to one end (5284, 5264, 5484, 5464, 5684, 5664) of a second track of the concerned subassembly. an insulating substrate; a first planar conductive winding on a first surface of the substrate, interrupted at regular intervals to form a series of pairs of first conductive tracks (522, 524; 542, 544; 562, 564); a second planar conductive winding on a second surface of the substrate facing the first winding and interrupted facing the interruptions in the first winding to form a series of pairs of second conductive tracks (526, 528; 546, 548; 566, 568), each pair of first tracks defining, with the facing pair of second tracks, a resonant subassembly (52, 54, 56); the first two tracks of a same subassembly being not interconnected and each being electrically connected to one and only one other first track of another subassembly or to a terminal (41, 43) of the antenna; the second tracks of neighboring pairs being not electrically interconnected; and one end (5224, 5244, 5424, 5444, 5624, 5644) of each first track being electrically connected (523, 543, 563, 525, 545, 565) to one end (5284, 5264, 5484, 5464, 5684, 5664) of a second track of the concerned subassembly.
A pressure sensor, comprising: a laminated piezoelectric device comprising a stacked body in which piezoelectric layers and internal electrodes are alternately laminated; and a case which encloses the laminated piezoelectric device, the case comprising a case main body and a first projection protruding inwardly from the case main body, the first projection comprising an end face which abuts on an end face in a stacking direction of the stacked body, and is located inside an outer periphery of the end face of the stacked body, wherein the internal electrodes comprise a first electrode and a second electrode, the stacked body comprises an active portion in which the first electrode and the second electrode are mutually overlapped with each other in the stacking direction; and an inactive portion in which the first electrode and the second electrode are not mutually overlapped with each other in the stacking direction, and which surrounds the entire active portion, and the end face of the first projection is overlapped with the active portion, and is overlapped with part of the inactive portion, as viewed in the stacking direction. a laminated piezoelectric device comprising a stacked body in which piezoelectric layers and internal electrodes are alternately laminated; and a case which encloses the laminated piezoelectric device, the case comprising a case main body and a first projection protruding inwardly from the case main body, the first projection comprising an end face which abuts on an end face in a stacking direction of the stacked body, and is located inside an outer periphery of the end face of the stacked body, wherein the internal electrodes comprise a first electrode and a second electrode, the stacked body comprises an active portion in which the first electrode and the second electrode are mutually overlapped with each other in the stacking direction; and an inactive portion in which the first electrode and the second electrode are not mutually overlapped with each other in the stacking direction, and which surrounds the entire active portion, and the end face of the first projection is overlapped with the active portion, and is overlapped with part of the inactive portion, as viewed in the stacking direction.
A draw device, including • two drafting systems each with - an intake section, configured for transporting sliver material from outside with regard to the associated drafting system in the direction of a drafting section of the associated drafting system, - the drafting section itself, configured for drafting and harmonizing the transported sliver material according to predetermined specifications, - an output section configured for delivering the drafted and harmonized sliver material out of the associated drafting system to the outside, as well as - a drive device, configured for driving the section (3, 13) of the associated drafting system, as well as • an operator unit, adapted for allowing a user to configure and/or to control the operation of the two drafting systems independently of each other. • two drafting systems each with - an intake section, configured for transporting sliver material from outside with regard to the associated drafting system in the direction of a drafting section of the associated drafting system, - the drafting section itself, configured for drafting and harmonizing the transported sliver material according to predetermined specifications, - an output section configured for delivering the drafted and harmonized sliver material out of the associated drafting system to the outside, as well as - a drive device, configured for driving the section (3, 13) of the associated drafting system, as well as - an intake section, configured for transporting sliver material from outside with regard to the associated drafting system in the direction of a drafting section of the associated drafting system, - the drafting section itself, configured for drafting and harmonizing the transported sliver material according to predetermined specifications, - an output section configured for delivering the drafted and harmonized sliver material out of the associated drafting system to the outside, as well as - a drive device, configured for driving the section (3, 13) of the associated drafting system, as well as • an operator unit, adapted for allowing a user to configure and/or to control the operation of the two drafting systems independently of each other.
A method for video decoding, comprising: obtaining, from a video bitstream, a plurality of coding units, CUs, which are partitioned from video pictures, at least one of the CUs being further portioned into two prediction units, PUs, of geometric partitioning prediction mode; constructing a first merge list comprising a plurality of candidates, each comprising one or more motion vectors; characterized in obtaining a plurality of uni-prediction merge candidates directly from the first merge list without creating a uni-prediction merge candidate list, wherein each uni-prediction merge candidate comprises one motion vector of a corresponding candidate in the first merge list; wherein each candidate in the first merge list comprises at least one of a List 0 motion vector and a List 1 motion vector, and each uni-prediction merge candidate is selected to comprise a single one of the List 0 and List 1 motion vectors of each candidate in the first merge list. obtaining, from a video bitstream, a plurality of coding units, CUs, which are partitioned from video pictures, at least one of the CUs being further portioned into two prediction units, PUs, of geometric partitioning prediction mode; constructing a first merge list comprising a plurality of candidates, each comprising one or more motion vectors; characterized in obtaining a plurality of uni-prediction merge candidates directly from the first merge list without creating a uni-prediction merge candidate list, wherein each uni-prediction merge candidate comprises one motion vector of a corresponding candidate in the first merge list; wherein each candidate in the first merge list comprises at least one of a List 0 motion vector and a List 1 motion vector, and each uni-prediction merge candidate is selected to comprise a single one of the List 0 and List 1 motion vectors of each candidate in the first merge list.
A grinder assembly (32, 132, 232) removably connectable to a container (22, 122, 222) of a spice dispenser (20, 120, 220) comprising: an outer housing; a stationary grinder component (36, 134, 234); and a rotatable grinder component (38, 136, 236) associated with said stationary grinder component (36, 134, 234) to define a grinding chamber (66, 184, 284) between a portion of said stationary grinder component (36, 134, 234) and a portion of said rotatable grinder component (38, 136, 236), wherein said rotatable grinder component (38, 136, 236) is rotatable relative to said stationary grinder component (36, 134, 234) about a grinding axis; and a first feature for coupling the grinder assembly (32, 132, 232) to said container (22, 122, 222); and a second feature movable to selectively decouple the grinder assembly (32, 132, 232) from the container (22, 122, 222), said second feature being distinct from said first feature; characterized in that both the first feature and the second feature are arranged at an interior surface (82, 170, 270) of the outer housing. an outer housing; a stationary grinder component (36, 134, 234); and a rotatable grinder component (38, 136, 236) associated with said stationary grinder component (36, 134, 234) to define a grinding chamber (66, 184, 284) between a portion of said stationary grinder component (36, 134, 234) and a portion of said rotatable grinder component (38, 136, 236), wherein said rotatable grinder component (38, 136, 236) is rotatable relative to said stationary grinder component (36, 134, 234) about a grinding axis; and a first feature for coupling the grinder assembly (32, 132, 232) to said container (22, 122, 222); and a second feature movable to selectively decouple the grinder assembly (32, 132, 232) from the container (22, 122, 222), said second feature being distinct from said first feature; characterized in that both the first feature and the second feature are arranged at an interior surface (82, 170, 270) of the outer housing.
A chemical-mechanical polishing composition for the polishing of substrates comprising silicon nitride and silicon oxide, comprising: (a) 0.01 to 1 wt.% of a cationic abrasive, wherein the cationic abrasive is selected from the group consisting of ceria and zirconia, (b) a cationic polymer selected from the group consisting of 0.1 ppm to 50 ppm of a cationic homopolymer, 0.1 ppm to 50 ppm of a cationic copolymer comprising at least one cationic monomer and at least one nonionic monomer, wherein the at least one cationic monomer comprises more than 50% of the cationic copolymer on a molar basis, and 0.1 ppm to 200 ppm of a cationic copolymer comprising at least one cationic monomer and at least one nonionic monomer, wherein the at least one cationic monomer comprises 50% or less of the copolymer on a molar basis, and (c) water, wherein the polishing composition has a pH of 7 or less. (a) 0.01 to 1 wt.% of a cationic abrasive, wherein the cationic abrasive is selected from the group consisting of ceria and zirconia, (b) a cationic polymer selected from the group consisting of 0.1 ppm to 50 ppm of a cationic homopolymer, 0.1 ppm to 50 ppm of a cationic copolymer comprising at least one cationic monomer and at least one nonionic monomer, wherein the at least one cationic monomer comprises more than 50% of the cationic copolymer on a molar basis, and 0.1 ppm to 200 ppm of a cationic copolymer comprising at least one cationic monomer and at least one nonionic monomer, wherein the at least one cationic monomer comprises 50% or less of the copolymer on a molar basis, and (c) water,
A turbine engine comprising an outer casing supporting an annular vane carrier, an annular stationary seal structure supported on the vane carrier, and a rotor rotatable about an axis and having a plurality of blades, each blade having a tip proximate to an inner surface of the seal structure, said turbine engine further comprising a measuring assembly comprising: a body member (54, 154) having an outwardly facing side (60, 160) attached to said inner surface of said seal structure; and said body member having an inwardly facing side (62, 162), opposite said outwardly facing side, said body member extending radially inwardly from said inner surface of said seal structure to a location radially inwardly from said tips of said blades, characterised in that said body member includes a plurality of indicia (74, 174) for providing an incremental visual indication for determining the clearance between said tips of said blades and said inner surface of said seal structure, and in that said inwardly facing side (62, 162) extends at an angle relative to said inner surface, and in that said body member is abradable, the rotation of said rotor abrading a portion (70, 170) of the body member, the abraded portion being indicative of said clearance, the abraded portion having a measurement location relative to said indicia, said measurement location corresponding to a distance of said abraded portion from said inner surface of said seal structure. a body member (54, 154) having an outwardly facing side (60, 160) attached to said inner surface of said seal structure; and said body member having an inwardly facing side (62, 162), opposite said outwardly facing side, said body member extending radially inwardly from said inner surface of said seal structure to a location radially inwardly from said tips of said blades, characterised in that said body member includes a plurality of indicia (74, 174) for providing an incremental visual indication for determining the clearance between said tips of said blades and said inner surface of said seal structure, and in that said inwardly facing side (62, 162) extends at an angle relative to said inner surface, and in that said body member is abradable, the rotation of said rotor abrading a portion (70, 170) of the body member, the abraded portion being indicative of said clearance, the abraded portion having a measurement location relative to said indicia, said measurement location corresponding to a distance of said abraded portion from said inner surface of said seal structure.
A method for a communication device comprising a plurality of antenna elements arranged in an antenna array structure (100, 531) and configured to perform dynamic calibration of the antenna elements for beamforming, the method comprising: during an antenna calibration opportunity, performing (210, 310, 318, 430) interference level measurements and antenna calibration measurements; adapting (220, 320, 450, 480) the antenna calibration measurements for one or more of the antenna elements based on the measured interference level; and characterized by: repeating the step of performing interference level measurements and antenna calibration measurements during a plurality of antenna calibration opportunities; wherein adapting the antenna calibration measurements for one or more of the antenna elements based on the measured interference level comprises: determining a weighting value for the antenna calibration measurements for each antenna calibration opportunity based on the corresponding measured interference levels. during an antenna calibration opportunity, performing (210, 310, 318, 430) interference level measurements and antenna calibration measurements; adapting (220, 320, 450, 480) the antenna calibration measurements for one or more of the antenna elements based on the measured interference level; and characterized by: repeating the step of performing interference level measurements and antenna calibration measurements during a plurality of antenna calibration opportunities; wherein adapting the antenna calibration measurements for one or more of the antenna elements based on the measured interference level comprises: determining a weighting value for the antenna calibration measurements for each antenna calibration opportunity based on the corresponding measured interference levels. repeating the step of performing interference level measurements and antenna calibration measurements during a plurality of antenna calibration opportunities; wherein adapting the antenna calibration measurements for one or more of the antenna elements based on the measured interference level comprises: determining a weighting value for the antenna calibration measurements for each antenna calibration opportunity based on the corresponding measured interference levels.
Brake system for a motor vehicle for the actuation of hydraulically actuable wheel brakes (151a-151d), with • a brake master cylinder which can be actuated by way of brake pedal and has pressure spaces (133, 134), each pressure space being assigned at least one wheel brake (151a, 151b; 151c, 151d), • a pressure medium storage vessel which is under atmospheric pressure and is assigned to the brake master cylinder, • an electrically controllable pressure modulation device for the setting of wheel-individual brake pressures with at least one inlet valve (152a-152d) and one outlet valve (153a-153d) for each wheel brake (151a-151d), and • an electrically controllable pressure provision device (190, 290), the said brake system comprising an arrangement (30, 130, 230) with an inlet pressure connector which is connected to the brake master cylinder, a vessel connector which is connected to the pressure medium storage vessel, and an outlet pressure connector which is connected to one of the wheel brakes, the arrangement comprising • a hydraulic connection (11a, 11b) between the inlet pressure connector and the outlet pressure connector, in which hydraulic connection (11a, 11b) a first valve which is of normally open configuration and can be actuated in an analogue manner is arranged, and • a pump arrangement (4, 40) with at least one pump with a suction side which is connected or can be connected to the inlet pressure connector, and a pressure side which is connected or can be connected to the outlet pressure connector, characterized in that the suction side of the pump is connected to the vessel connector, a first check valve which opens in the direction of the suction side being arranged in the connection. • a brake master cylinder which can be actuated by way of brake pedal and has pressure spaces (133, 134), each pressure space being assigned at least one wheel brake (151a, 151b; 151c, 151d), • a pressure medium storage vessel which is under atmospheric pressure and is assigned to the brake master cylinder, • an electrically controllable pressure modulation device for the setting of wheel-individual brake pressures with at least one inlet valve (152a-152d) and one outlet valve (153a-153d) for each wheel brake (151a-151d), and • an electrically controllable pressure provision device (190, 290), • a hydraulic connection (11a, 11b) between the inlet pressure connector and the outlet pressure connector, in which hydraulic connection (11a, 11b) a first valve which is of normally open configuration and can be actuated in an analogue manner is arranged, and • a pump arrangement (4, 40) with at least one pump with a suction side which is connected or can be connected to the inlet pressure connector, and a pressure side which is connected or can be connected to the outlet pressure connector,
A communication method, comprising: 1.1 obtaining, by a session management function entity, parameter information; 1.2 determining, by the session management function entity, an access technology type for a protocol data unit, PDU, session of a terminal device based on the parameter information during a protocol data unit, PDU, session establishment; and 1.3 sending, by the session management function entity, indication information to an access and mobility management function entity, wherein the indication information is used to indicate the access technology type of the PDU session. 1.1 obtaining, by a session management function entity, parameter information; 1.2 determining, by the session management function entity, an access technology type for a protocol data unit, PDU, session of a terminal device based on the parameter information during a protocol data unit, PDU, session establishment; and 1.3 sending, by the session management function entity, indication information to an access and mobility management function entity, wherein the indication information is used to indicate the access technology type of the PDU session.