mhurhangee/patent-ind-claim-en huggingface dataset:
A ticket system used when a passenger rides a vehicle, the ticket system comprising: a position beacon installed in a moving body on which a passenger rides; a passenger terminal used by a passenger; a ticket inspection terminal used by a ticket inspection staff; and a server connected to the passenger terminal and the ticket inspection terminal, wherein the passenger terminal is configured to detect the position beacon, the server is configured to manage a passenger reliability and a passenger reliability update history of a passenger; manage an identifier of the position beacon detected by the passenger terminal in association with an identifier of the passenger terminal; manage a place of the ticket inspection terminal based on a correspondence relationship between the identifier of the position beacon installed in the moving body and the identifier of the ticket inspection terminal; manage a temporal change in a state and a place of the passenger terminal as a riding state transition based on a correspondence relationship between the identifier of the position beacon and the identifier of the passenger terminal; and update said reliability of a passenger whc uses a passenger terminal near the ticket inspection terminal based on a position of the ticket inspection terminal during the riding state transition, wherein the server is configured to refer to said passenger reliability update history of the passenger, collect information of a passenger having a low reliability among passengers riding on the moving body, and transmit the collected information to the ticket inspection terminal. a position beacon installed in a moving body on which a passenger rides; a passenger terminal used by a passenger; a ticket inspection terminal used by a ticket inspection staff; and a server connected to the passenger terminal and the ticket inspection terminal, wherein the passenger terminal is configured to detect the position beacon, the server is configured to manage a passenger reliability and a passenger reliability update history of a passenger; manage an identifier of the position beacon detected by the passenger terminal in association with an identifier of the passenger terminal; manage a place of the ticket inspection terminal based on a correspondence relationship between the identifier of the position beacon installed in the moving body and the identifier of the ticket inspection terminal; manage a temporal change in a state and a place of the passenger terminal as a riding state transition based on a correspondence relationship between the identifier of the position beacon and the identifier of the passenger terminal; and update said reliability of a passenger whc uses a passenger terminal near the ticket inspection terminal based on a position of the ticket inspection terminal during the riding state transition, wherein the server is configured to refer to said passenger reliability update history of the passenger, collect information of a passenger having a low reliability among passengers riding on the moving body, and transmit the collected information to the ticket inspection terminal.
A signal processor (100;300;400;500; 700;900) for providing one or more processed audio signals (112; 312;412;512; ŝ (n); ẑ (n)) on the basis of one or more input audio signals (110;310;410;710;910;y(n)), wherein the signal processor is configured to estimate coefficients ( ĉ (n)) of an autoregressive reverberation model using the one or more input audio signals and one or more delayed noise-reduced reverberant signals ( x̂ ( n )) obtained using a noise reduction (130;303;703;903); and wherein the signal processor is configured to provide one or more noise-reduced reverberant signals ( x̂ ( n )) using the one or more input audio signals and the estimated coefficients (124;302a;702a; ĉ (n)) of the autoregressive reverberation model; and wherein the signal processor is configured to derive one or more noise-reduced and reverberation-reduced output signals (112; 312; 412; 512; ŝ (n); ẑ (n)) using the one or more noise-reduced reverberant signals ( x̂ ( n )) and the estimated coefficients ( ĉ (n)) of the autoregressive reverberation model. wherein the signal processor is configured to estimate coefficients ( ĉ (n)) of an autoregressive reverberation model using the one or more input audio signals and one or more delayed noise-reduced reverberant signals ( x̂ ( n )) obtained using a noise reduction (130;303;703;903); and wherein the signal processor is configured to provide one or more noise-reduced reverberant signals ( x̂ ( n )) using the one or more input audio signals and the estimated coefficients (124;302a;702a; ĉ (n)) of the autoregressive reverberation model; and wherein the signal processor is configured to derive one or more noise-reduced and reverberation-reduced output signals (112; 312; 412; 512; ŝ (n); ẑ (n)) using the one or more noise-reduced reverberant signals ( x̂ ( n )) and the estimated coefficients ( ĉ (n)) of the autoregressive reverberation model.
A method for coupling an ECG monitor with an incompatible ECG lead set , comprising the steps of: providing an ECG adapter including an adapter body having at least one monitor connector adapted for coupling to an input of an ECG monitor and first and second lead set receptacles adapted for coupling to respective connectors of first and second ECG lead sets incompatible with the input of the ECG monitor; coupling the at least one monitor connector of the adapter body with the input of the ECG monitor; and coupling the connectors of the first and second ECG lead sets to the respective first and second lead set receptacles of the adapter body to thereby electrically couple the ECG lead set with the ECG monitor; wherein the adapter body comprising two opposing faces and side walls extending between the opposition faces, wherein said monitor connector is provided in one of the two opposing faces and the two lead set receptacles are provided in another one of the two opposing faces; and wherein the first lead set receptacle is different from the second lead set receptacle to permit coupling to different ECG lead sets . providing an ECG adapter including an adapter body having at least one monitor connector adapted for coupling to an input of an ECG monitor and first and second lead set receptacles adapted for coupling to respective connectors of first and second ECG lead sets incompatible with the input of the ECG monitor; coupling the at least one monitor connector of the adapter body with the input of the ECG monitor; and coupling the connectors of the first and second ECG lead sets to the respective first and second lead set receptacles of the adapter body to thereby electrically couple the ECG lead set with the ECG monitor; wherein the adapter body comprising two opposing faces and side walls extending between the opposition faces, wherein said monitor connector is provided in one of the two opposing faces and the two lead set receptacles are provided in another one of the two opposing faces; and wherein the first lead set receptacle is different from the second lead set receptacle to permit coupling to different ECG lead sets .
Energizing safety shoe , comprising an upper , provided, at the shoe toe, with a safety toe cap and a layered sole associated with said upper , said layered sole comprising a lower layer adapted to come into contact with the ground, an intermediate layer associated with said upper and said lower layer , respectively, and an upper layer , wherein in said intermediate layer , an elastic insert is embedded, which extends exclusively at the rear zone of said shoe on a surface less than 55% of the overall surface of said layered sole , wherein said upper layer comprises an anti-puncture sheet characterized in that said anti-puncture sheet extends so as to thoroughly cover the user's foot sole and which is thoroughly overlapped on said elastic insert , and in that one or more windows are provided on side surfaces of said intermediate layer in order to make visible said elastic insert placed inside said intermediate layer , suitable for allowing the outward deformation of the elastic material in which said elastic insert is made.
A wound core including a portion in which grain-oriented electrical steel sheets in which planar portions and bent portions are alternately continuous in a longitudinal direction (L) are stacked in a sheet thickness direction, wherein the wound core is formed by stacking the grain-oriented electrical steel sheets that have been individually bent in layers and assembled into a wound shape, characterized in that , when an average length of a roughness curve element in a width direction intersecting the longitudinal direction forming a surface of the bent portion of the grain-oriented electrical steel sheet is RSm(b), and an average length of the roughness curve element in the width direction forming a surface of the planar portion of the grain-oriented electrical steel sheet is RSm(s), the relationship of 1.00<RSm(b)/RSm(s)≤5.00 is satisfied.
A food processing device comprising • a feeding structure arranged for transport of food objects in a downstream direction from an inlet to an outflow of a flow path, the feeding structure comprising i. a first feeder comprising a transport auger arranged upstream a knife, and ii. a second feeder arranged downstream a knife, • a rotating knife with at least one knife blade configured to cut the food objects in the flow path to provide a substance of sliced lumps , wherein the flow path defines an unhindered passage between the knife and the outflow to facilitate a free flow of the substance of sliced lumps away from the knife, • an inspection unit located downstream the knife and configured to detect undesired objects in the substance of sliced lumps. • a feeding structure arranged for transport of food objects in a downstream direction from an inlet to an outflow of a flow path, the feeding structure comprising i. a first feeder comprising a transport auger arranged upstream a knife, and ii. a second feeder arranged downstream a knife, i. a first feeder comprising a transport auger arranged upstream a knife, and ii. a second feeder arranged downstream a knife, • a rotating knife with at least one knife blade configured to cut the food objects in the flow path to provide a substance of sliced lumps , wherein the flow path defines an unhindered passage between the knife and the outflow to facilitate a free flow of the substance of sliced lumps away from the knife, • an inspection unit located downstream the knife and configured to detect undesired objects in the substance of sliced lumps.
A point cloud partition method, applied for a decoder, comprising: obtaining a point cloud to-be-partitioned and calculating a Morton code for each respective point of the point cloud to-be-partitioned; determining the point cloud to-be-partitioned as an input point cloud of a first iteration; determining, at an i -th iteration, whether a number of points in an input point cloud of the i -th iteration is equal to 0, i being a positive integer with an initial value equal to 1; shifting Morton codes for the input point cloud of the i -th iteration right by K bits based on a determination that the number of points in the input point cloud of the i -th iteration is unequal to 0, K being a positive integer; selecting (S405) a single point from points with a same value of Morton codes after right shifting by K bits; forming an i -th level of detail, LOD, layer with the point selected, determining remaining points other than the point selected in the input point cloud of the i -th iteration as an input point cloud of an ( i +1)-th iteration, updating i to i +1, and returning to determining whether the number of points in the input point cloud of the i-th iteration is equal to 0 at the i -th iteration; and determining a first to ( i -1)-th LOD layers as LOD layers after partition of the point cloud to-be-partitioned based on a determination that the number of points in the input point cloud of the i -th iteration is equal to 0. obtaining a point cloud to-be-partitioned and calculating a Morton code for each respective point of the point cloud to-be-partitioned; determining the point cloud to-be-partitioned as an input point cloud of a first iteration; determining, at an i -th iteration, whether a number of points in an input point cloud of the i -th iteration is equal to 0, i being a positive integer with an initial value equal to 1; shifting Morton codes for the input point cloud of the i -th iteration right by K bits based on a determination that the number of points in the input point cloud of the i -th iteration is unequal to 0, K being a positive integer; selecting (S405) a single point from points with a same value of Morton codes after right shifting by K bits; forming an i -th level of detail, LOD, layer with the point selected, determining remaining points other than the point selected in the input point cloud of the i -th iteration as an input point cloud of an ( i +1)-th iteration, updating i to i +1, and returning to determining whether the number of points in the input point cloud of the i-th iteration is equal to 0 at the i -th iteration; and determining a first to ( i -1)-th LOD layers as LOD layers after partition of the point cloud to-be-partitioned based on a determination that the number of points in the input point cloud of the i -th iteration is equal to 0.
A method of controlling a printer, the method comprising: controlling, using a printer controller , a print engine to print a pattern using a number of print head dies , each print head die including a number of nozzle trenches (32-38) extending in a print head axis direction wherein each one of the number of nozzle trenches (32-38) is associated with a different color, wherein the nozzles of neighboring dies overlap in a direction perpendicular to the print head axis direction in respective overlap zones , and applying masks to the nozzles of neighboring dies in the respective overlap zones , using the printer controller , to distribute, in the overlap zones , the pattern to be printed between the nozzles of the respective neighboring dies , wherein the masks, in the overlap zones , retain the order in which the nozzles of selected nozzle trenches associated with a selected one of the colors are fired and vary the order in which the nozzles of the other trenches (32-36) associated with the other colors are fired according to a weaving mask strategy; wherein the nozzles of the selected nozzle trenches , in the overlap zone , are controlled to be fired after the nozzles of all other nozzle trenches (32-36) have been fired, or before the nozzles of all other nozzle trenches (32-36) are fired wherein the selected color is the lightest color among all of the colors associated with the number of nozzle trenches . controlling, using a printer controller , a print engine to print a pattern using a number of print head dies , each print head die including a number of nozzle trenches (32-38) extending in a print head axis direction wherein each one of the number of nozzle trenches (32-38) is associated with a different color, wherein the nozzles of neighboring dies overlap in a direction perpendicular to the print head axis direction in respective overlap zones , and applying masks to the nozzles of neighboring dies in the respective overlap zones , using the printer controller , to distribute, in the overlap zones , the pattern to be printed between the nozzles of the respective neighboring dies , wherein the masks, in the overlap zones , retain the order in which the nozzles of selected nozzle trenches associated with a selected one of the colors are fired and vary the order in which the nozzles of the other trenches (32-36) associated with the other colors are fired according to a weaving mask strategy; wherein the nozzles of the selected nozzle trenches , in the overlap zone , are controlled to be fired after the nozzles of all other nozzle trenches (32-36) have been fired, or before the nozzles of all other nozzle trenches (32-36) are fired wherein the selected color is the lightest color among all of the colors associated with the number of nozzle trenches .
Capsule, in particular for preparing a beverage from beverage powder, in particular coffee from coffee powder, by introducing water into the capsule, comprising a capsule body composed of at least one polysaccharide and filled with material, said capsule body being coated with at least one first coating layer, said at least one first coating layer comprising at least one polyvinyl alcohol and/or polyvinyl alcohol copolymer, characterized in that said first coating layer has a thickness of from 0.5 μm to 10 μm and preferably from 1 μm to 2 μm.
Automatic cycle pedal including a pedal body rotatably mounted on a pedal axle adapted to be connected to a pedal crank, said pedal body including means for attaching a retaining plate fixed to the bottom of a cyclist's shoe, said attachment means consisting of a fixed front attachment member and a mobile rear attachment member mounted to pivot on said pedal body about a rotation axis substantially parallel to said pedal axle , between a position retaining said plate engaged between said front and rear attachment members , and a position freeing said plate by pivoting of said rear attachment member against the action of an elastic return means connected on the one hand to said rear attachment member and on the other hand to said pedal body , said pedal further including a system for adjusting the return force of the elastic return means in order to adjust a shoe attachment/detachment tension, characterized in that said elastic return means consists of a variable number of elastic members (70-72; 75-77) each having one end connected to said rear attachment member and another end connected to said pedal body , selected from a plurality of elastic members (70-72; 75-77) extending between the rear attachment member and the pedal body , and in that said adjustment system is adapted to select the elastic members constituting said elastic return means to achieve a predefined shoe attachment/detachment tension value.
A method for acquiring an indication of a preferred beam of a wireless communication device , performed in a network node of a cellular communication network, wherein the network node is adapted to support a plurality of beams of a signal beam-forming scheme and to communicate with the wireless communication device using at least one beam of the plurality of beams, the method comprising: acquiring a beam power setting of the plurality of beams, wherein the beam power setting comprises a power offset being applied to at least one beam of the plurality of beams, the power offset being relative to a nominal power setting of the plurality of beams; transmitting , to the wireless communication device, a message indicative of the beam power setting; transmitting measurement signals; and receiving , from the wireless communication device, a report indicative of the preferred beam, wherein the preferred beam is determined by the wireless communication device based on the measurement signals and the beam power setting. acquiring a beam power setting of the plurality of beams, wherein the beam power setting comprises a power offset being applied to at least one beam of the plurality of beams, the power offset being relative to a nominal power setting of the plurality of beams; transmitting , to the wireless communication device, a message indicative of the beam power setting; transmitting measurement signals; and receiving , from the wireless communication device, a report indicative of the preferred beam, wherein the preferred beam is determined by the wireless communication device based on the measurement signals and the beam power setting.
A method for generating stimulation parameters, comprising: sensing (S205) a brainwave signal (X(t)); decomposing (S210) the brainwave signal (X(t)) to obtain a first sub-signal (C1) and a second sub-signal (C2), wherein a frequency of the first sub-signal (C1) is higher than a frequency of the second sub-signal (C2); analyzing (S215) the first sub-signal (C1) to obtain an intrinsic frequency series (E), wherein the intrinsic frequency series (E) comprises at least one frequency component; converting (S220) the second sub-signal (C2) to a Boolean signal (D), wherein the Boolean signal (D) is serving as a switch signal for a stimulator ; and outputting (S225) the intrinsic frequency series (E) and the Boolean signal (D), which serve as a set of stimulation parameters, to the stimulator , enabling the stimulator to generate a stimulus signal. sensing (S205) a brainwave signal (X(t)); decomposing (S210) the brainwave signal (X(t)) to obtain a first sub-signal (C1) and a second sub-signal (C2), wherein a frequency of the first sub-signal (C1) is higher than a frequency of the second sub-signal (C2); analyzing (S215) the first sub-signal (C1) to obtain an intrinsic frequency series (E), wherein the intrinsic frequency series (E) comprises at least one frequency component; converting (S220) the second sub-signal (C2) to a Boolean signal (D), wherein the Boolean signal (D) is serving as a switch signal for a stimulator ; and outputting (S225) the intrinsic frequency series (E) and the Boolean signal (D), which serve as a set of stimulation parameters, to the stimulator , enabling the stimulator to generate a stimulus signal.
A jewel support base that supports a jewel (s1), the jewel support base comprising: an annular portion having a hole portion at a center of the annular portion ; a plurality of support pieces that protrude from a rim of the annular portion to a center of the hole portion , the rim being on a side where the hole portion is present, and that are arranged at an interval along the rim; and a plurality of first holding claws that extend upward from the annular portion , and that are arranged around the hole portion , the plurality of support pieces supporting a lower side of the jewel (s1) that is arranged in the hole portion , the plurality of first holding claws holding an outer periphery of the jewel (s1); said jewel support base being characterized in that the annular portion includes a recessed portion in which a small jewel (s2) is arranged; and a second holding claw that is provided on a side of the recessed portion , the side of the recessed portion being opposite to the side where the hole portion is present as the annular portion is viewed from above, wherein an outer periphery of the small jewel (s2) that is arranged in the recessed portion is held between a corresponding one of the plurality of first holding claws and the second holding claw . an annular portion having a hole portion at a center of the annular portion ; a plurality of support pieces that protrude from a rim of the annular portion to a center of the hole portion , the rim being on a side where the hole portion is present, and that are arranged at an interval along the rim; and that protrude from a rim of the annular portion to a center of the hole portion , the rim being on a side where the hole portion is present, and that are arranged at an interval along the rim; and a plurality of first holding claws that extend upward from the annular portion , and that are arranged around the hole portion , that extend upward from the annular portion , and that are arranged around the hole portion , the plurality of support pieces supporting a lower side of the jewel (s1) that is arranged in the hole portion , the plurality of first holding claws holding an outer periphery of the jewel (s1); said jewel support base being characterized in that the annular portion includes a recessed portion in which a small jewel (s2) is arranged; and a second holding claw that is provided on a side of the recessed portion , the side of the recessed portion being opposite to the side where the hole portion is present as the annular portion is viewed from above, wherein an outer periphery of the small jewel (s2) that is arranged in the recessed portion is held between a corresponding one of the plurality of first holding claws and the second holding claw .