mhurhangee/ep-ind-claims huggingface dataset:
An activity recording data processing apparatus, comprising: an acquisition unit configured to acquire data obtained for a series of activity and action estimation information on the series of activity, the action estimation information being associated with the data; a memory configured to storage a table that defines category of actions about the activity, the action estimation information and a basic unit as a minimum dividing width for each of the data that is suitable for the activity, an extraction unit configured to extract the data associated with the action estimation information in the table; a clustering unit configured to perform clustering of the data associated with the action estimation information in the table by calculating average and standard deviation of the data, dividing the data associated with the action estimation information in the table by a predetermined number and performing labeling of the divided data associated with the action estimation information in the table; and an estimating unit configured to estimate a power used for the series of activity based on the labelled data. a memory configured to storage a table that defines category of actions about the activity, the action estimation information and a basic unit as a minimum dividing width for each of the data that is suitable for the activity, an extraction unit configured to extract the data associated with the action estimation information in the table; a clustering unit configured to perform clustering of the data associated with the action estimation information in the table by calculating average and standard deviation of the data, dividing the data associated with the action estimation information in the table by a predetermined number and performing labeling of the divided data associated with the action estimation information in the table; and an estimating unit configured to estimate a power used for the series of activity based on the labelled data.
An imaging device comprising an image sensor to record image data from a scene, an imaging lens arranged in a light path between an aperture of the imaging device and the image sensor, an infrared light source to illuminate the scene, and an infrared autofocus system for automatically moving the imaging lens in order to set the image sensor in focus, wherein the image sensor comprises an array of sensor pixels each arranged as dual pixel comprising two separate pixel sensors (22a, 22b) per dual pixel to record the image data as a sum signal from both pixel sensors (22a, 22b) by the image sensor and providing infrared data as individual signals from each of the two pixel sensors (22a, 22b) to the autofocus system for phase contrast autofocusing, wherein an infrared filter is arranged in the light path between the aperture and the imaging sensor, wherein the infrared filter is adapted to filter all light directed towards the imaging sensor, wherein the infrared filter comprises at least one first area arranged as infrared blocking area and at least one second area arranged as infrared bandpass area, and wherein only a portion of the infrared light passing through said at least second area is transmitted along the light path to the imaging sensor.
A power tool comprising: a housing; an output shaft extending from the housing in a direction of a tool axis; a motion sensor configured to sense motion of the tool housing; wherein the motion sensor comprises at least three accelerometers (52, 54, 56); a control circuit, configured to receive an input signal from the motion sensor, to make a second determination, based on the input signal, whether the tool axis is substantially level when the tool is being operated in a horizontal mode or the tool axis is substantially plumb when the tool is being operated in a vertical mode, and an indicator coupled to the control circuit, the indicator configured to receive an output signal from the control circuit that causes the indicator to indicate whether the tool axis is level when being operated in the horizontal mode or plumb when being operated in the vertical mode characterised in that the at least three accelerometers (52, 54, 56) are arranged to detect acceleration of the tool housing along at least three different axes, the signal or voltage output from each accelerometer being a function of the gravity based acceleration vector acting in the direction of that sensor (52, 54, 56) when the tool is still and not otherwise accelerating; wherein the control circuit makes a first determination, based on the input signal, whether the tool is being operated in a horizontal mode or a vertical mode prior to making the second determination. a housing; an output shaft extending from the housing in a direction of a tool axis; a motion sensor configured to sense motion of the tool housing; wherein the motion sensor comprises at least three accelerometers (52, 54, 56); a control circuit, configured to receive an input signal from the motion sensor, to make a second determination, based on the input signal, whether the tool axis is substantially level when the tool is being operated in a horizontal mode or the tool axis is substantially plumb when the tool is being operated in a vertical mode, and an indicator coupled to the control circuit, the indicator configured to receive an output signal from the control circuit that causes the indicator to indicate whether the tool axis is level when being operated in the horizontal mode or plumb when being operated in the vertical mode characterised in that the at least three accelerometers (52, 54, 56) are arranged to detect acceleration of the tool housing along at least three different axes, the signal or voltage output from each accelerometer being a function of the gravity based acceleration vector acting in the direction of that sensor (52, 54, 56) when the tool is still and not otherwise accelerating; wherein the control circuit makes a first determination, based on the input signal, whether the tool is being operated in a horizontal mode or a vertical mode prior to making the second determination.
Wishbone separator device for separating a wishbone from a poultry carcass, said wishbone comprising a hypocledium and two limbs, said hypocledium comprising an inward facing surface (2*), which wishbone separator device comprises: - a primary wishbone cutter, which is moveable in a cutting direction, which primary wishbone cutter comprises: - a substantially triangular front cutter portion which is adapted to separate the hypocledium from meat that is present adjacent to the inward facing surface (2*) of the hypocledium, which front cutter portion comprises a central front apex that points in the cutting direction and a left front cutting edge and a right front cutting edge, which left front cutting edge and right front cutting edge diverge from said central front apex, - a substantially triangular wishbone limb cutter portion which is adapted to cut through the limbs of the wishbone, which wishbone limb cutter portion comprises a left limb cutting edge and a right limb cutting edge, wherein an intersection point of an imaginary extension line of the left limb cutting edge and an imaginary extension line of the right limb cutting edge is arranged on an imaginary center line that extends in forward and rearward direction parallel to the cutting direction through the central front apex of the front cutter portion, and wherein the left front cutting edge is arranged forward of the left limb cutting edge as seen in the cutting direction and outward relative to said imaginary extension line from the left limb cutting edge and the right front cutting edge is arranged forward of the right limb cutting edge as seen in the cutting direction and outward relative to said imaginary extension line from the right limb cutting edge. - a primary wishbone cutter, which is moveable in a cutting direction, which primary wishbone cutter comprises: - a substantially triangular front cutter portion which is adapted to separate the hypocledium from meat that is present adjacent to the inward facing surface (2*) of the hypocledium, which front cutter portion comprises a central front apex that points in the cutting direction and a left front cutting edge and a right front cutting edge, which left front cutting edge and right front cutting edge diverge from said central front apex, - a substantially triangular wishbone limb cutter portion which is adapted to cut through the limbs of the wishbone, which wishbone limb cutter portion comprises a left limb cutting edge and a right limb cutting edge, - a substantially triangular front cutter portion which is adapted to separate the hypocledium from meat that is present adjacent to the inward facing surface (2*) of the hypocledium, which front cutter portion comprises a central front apex that points in the cutting direction and a left front cutting edge and a right front cutting edge, which left front cutting edge and right front cutting edge diverge from said central front apex, - a substantially triangular wishbone limb cutter portion which is adapted to cut through the limbs of the wishbone, which wishbone limb cutter portion comprises a left limb cutting edge and a right limb cutting edge,
Method for feeding electrical energy into an electrical supply grid by a wind turbine or a wind farm, wherein - the wind turbine or the wind farm respectively converts kinetic energy from wind having a variable speed to electrical energy, - a wind speed is predicted based on a wind forecast, - a to be fed in reactive power is calculated as a predicted reactive power (Qp) based on the predicted wind speed and - the predicted reactive power is predicted for a forecast period, characterized in that the wind turbine or the wind farm respectively is feeding in the predicted reactive power during the forecast period as calculated, even if later a wind speed occurs which deviates from the predicted wind speed. - the wind turbine or the wind farm respectively converts kinetic energy from wind having a variable speed to electrical energy, - a wind speed is predicted based on a wind forecast, - a to be fed in reactive power is calculated as a predicted reactive power (Qp) based on the predicted wind speed and - the predicted reactive power is predicted for a forecast period,
A compound of formula 1.0: or a pharmaceutically acceptable salt or solvate thereof, wherein R 1, R 2 and Q are independently selected, and wherein: Q is: R 1 is selected from the group consisting of: heteroaryl and substituted heteroaryl, wherein said substituted heteroaryl is substituted with 1 to 3 substituents independently selected from the group consisting of: -OH, alkoxy, and -O-alkylene-O-alkyl; R 2 is selected from the group consisting of: -O-alkyl and -S-alkyl; and R 5 is selected from the group consisting of: (a) triazolyl-phenyl-, (b) triazolyl-phenyl- wherein said phenyl is optionally substituted with 1 to 3 substituents independently selected from the group consisting of: halo and alkoxy, and (c) substituted triazolyl-phenyl- wherein said phenyl is optionally substituted with 1 to 3 substituents independently selected from the group consisting of: halo and alkoxy, and said triazolyl group is substituted with one or two substitutents independently selected from the group consisting of: alkyl, hydroxy substituted alkyl, -alkylene-O-alkyl, and amino, provided that when said -alkylene-O-alkyl group is bound to the nitrogen of said triazolyl in (c) the alkylene moiety of said -alkylene-O-alkyl group is not -CH 2 -. Q is: R 1 is selected from the group consisting of: heteroaryl and substituted heteroaryl, wherein said substituted heteroaryl is substituted with 1 to 3 substituents independently selected from the group consisting of: -OH, alkoxy, and -O-alkylene-O-alkyl; R 2 is selected from the group consisting of: -O-alkyl and -S-alkyl; and R 5 is selected from the group consisting of: (a) triazolyl-phenyl-, (b) triazolyl-phenyl- wherein said phenyl is optionally substituted with 1 to 3 substituents independently selected from the group consisting of: halo and alkoxy, and (c) substituted triazolyl-phenyl- wherein said phenyl is optionally substituted with 1 to 3 substituents independently selected from the group consisting of: halo and alkoxy, and said triazolyl group is substituted with one or two substitutents independently selected from the group consisting of: alkyl, hydroxy substituted alkyl, -alkylene-O-alkyl, and amino, provided that when said -alkylene-O-alkyl group is bound to the nitrogen of said triazolyl in (c) the alkylene moiety of said -alkylene-O-alkyl group is not -CH 2 -. (a) triazolyl-phenyl-, (b) triazolyl-phenyl- wherein said phenyl is optionally substituted with 1 to 3 substituents independently selected from the group consisting of: halo and alkoxy, and (c) substituted triazolyl-phenyl- wherein said phenyl is optionally substituted with 1 to 3 substituents independently selected from the group consisting of: halo and alkoxy, and said triazolyl group is substituted with one or two substitutents independently selected from the group consisting of: alkyl, hydroxy substituted alkyl, -alkylene-O-alkyl, and amino, provided that when said -alkylene-O-alkyl group is bound to the nitrogen of said triazolyl in (c) the alkylene moiety of said -alkylene-O-alkyl group is not -CH 2 -.
A system (100, 102) for sensing harvested grain levels within an agricultural harvester, the system (100, 102) comprising: a grain tank extending vertically between a top end and a bottom end, the grain tank being configured to receive harvested grain, a current grain level of the harvested grain being defined by a top surface of the harvested grain within the grain tank; and a sensor (90, 318) configured to emit a sensor beam (90A, 90B) into the grain tank for reflection off of the top surface of the harvested grain; and a reflective target (92A, 92B, 126, 205, 208), integrated into a bottom surface (93A, 93B, 94A, 94B) of the grain tank at a minimum detectable grain level within the grain tank, the bottom surface (93A, 93B, 94A, 94B) of the grain tank being angled towards the sensor (90, 318), the minimum detectable grain level being defined by a minimum grain level within the grain tank at which the top surface of the harvested grain is contacted by the sensor beam (90A, 90B), and the reflective target (92A, 92B, 126, 205, 208) being configured to reflect the sensor beam (90A, 90B) when the current grain level is vertically below the minimum detectable grain level, wherein the reflective target (92A, 92B, 126, 205, 208) has a convex shape and is stamped into a panel that defines the bottom surface (93A, 93B, 94A, 94B) of the grain tank. a grain tank extending vertically between a top end and a bottom end, the grain tank being configured to receive harvested grain, a current grain level of the harvested grain being defined by a top surface of the harvested grain within the grain tank; and a sensor (90, 318) configured to emit a sensor beam (90A, 90B) into the grain tank for reflection off of the top surface of the harvested grain; and a reflective target (92A, 92B, 126, 205, 208), integrated into a bottom surface (93A, 93B, 94A, 94B) of the grain tank at a minimum detectable grain level within the grain tank, the bottom surface (93A, 93B, 94A, 94B) of the grain tank being angled towards the sensor (90, 318), the minimum detectable grain level being defined by a minimum grain level within the grain tank at which the top surface of the harvested grain is contacted by the sensor beam (90A, 90B), and the reflective target (92A, 92B, 126, 205, 208) being configured to reflect the sensor beam (90A, 90B) when the current grain level is vertically below the minimum detectable grain level, wherein the reflective target (92A, 92B, 126, 205, 208) has a convex shape and is stamped into a panel that defines the bottom surface (93A, 93B, 94A, 94B) of the grain tank.
A method for producing a shielding cartridge of a turbomachine element, the method including a step of winding a carbon wire about a longitudinal axis, the carbon wire including a plurality of fibers, and a step of trapping and preserving from the outside surroundings of the wound-up wire in a housing in which the housing is closed by a cover, the housing and the cover being made of a metallic material or a metallic alloy, the method does not implement a resin-based matrix.
A halogen-free flame-retardant polymer composition, comprising: A. 20 to 40 wt% Propylene polymer; B. 20-40 wt% Thermoplastic elastomer; and C. at least 10wt% Intumescent flame retardant system comprising: an organic phosphoric acid salt type intumescent halogen-free flame retardant and a piperazine component; wherein the thermoplastic elastomer is a propylene/α-olefin copolymer. A. 20 to 40 wt% Propylene polymer; B. 20-40 wt% Thermoplastic elastomer; and C. at least 10wt% Intumescent flame retardant system comprising: an organic phosphoric acid salt type intumescent halogen-free flame retardant and a piperazine component; an organic phosphoric acid salt type intumescent halogen-free flame retardant and a piperazine component;
Method for operating a fuel system for an internal combustion engine, wherein a flow control valve for metering a delivery flow of a highpressure pump can be opened and/or closed by means of an electrical actuating device, and wherein a valve element can switch the flow control valve into a closed position when the actuating device is not activated and into an opened position when the actuating device is activated, characterized by the following steps: (a) activating the electrical actuating device in at least one first cycle such that the valve element reliably switches into the opened position; (b) activating the electrical actuating device in at least one second cycle such that the electric actuating device is activated with progressively decreasing activation energy from one activation to the next activation, until a limit situation is reached in which the valve element just no longer switches into the opened position; wherein the limit situation is identified by means of an increase in a profile with respect to time of the rail pressure; (c) determining a first activation energy which corresponds to the limit situation; (d) subsequently activating the actuating device taking into consideration the first activation energy. (a) activating the electrical actuating device in at least one first cycle such that the valve element reliably switches into the opened position; (b) activating the electrical actuating device in at least one second cycle such that the electric actuating device is activated with progressively decreasing activation energy from one activation to the next activation, until a limit situation is reached in which the valve element just no longer switches into the opened position; wherein the limit situation is identified by means of an increase in a profile with respect to time of the rail pressure; (c) determining a first activation energy which corresponds to the limit situation; (d) subsequently activating the actuating device taking into consideration the first activation energy.
A system for testing wireless communication equipment which includes a beamforming antenna, the system comprising: a probe for coupling an antenna element of the beamforming antenna of the wireless communication equipment to be tested to a test and measurement unit; and a lid configured to cover the beamforming antenna of the wireless communication equipment to be tested, wherein the lid is provided with a port for receiving the probe, such that, when received in the port, the probe couples to the antenna element, and characterized in that the lid is configured to engage with a mechanical feature of the beamforming antenna. a probe for coupling an antenna element of the beamforming antenna of the wireless communication equipment to be tested to a test and measurement unit; and a lid configured to cover the beamforming antenna of the wireless communication equipment to be tested, wherein the lid is provided with a port for receiving the probe, such that, when received in the port, the probe couples to the antenna element, and characterized in that the lid is configured to engage with a mechanical feature of the beamforming antenna.
A device for connection of a wiring board, comprising a bottom plate for supporting thereon a first wiring board having an electronic component mounted thereon; a thermal compression bonding head disposed on the first wiring board for applying pressure to a connecting member (4, 5) and heating an adhesive agent to subject the connecting member (4, 5) to thermal compression bonding; and a wiring board receiving plate for supporting on the bottom plate a mounting surface of the electronic component of the first wiring board; wherein the wiring board receiving plate is provided at a mounting position of the electronic component of the first wiring board with a concave portion corresponding in shape to the electronic component; wherein the concave portion has a depth set to be larger than a mounting height of the electronic component characterized in that the wiring board receiving plate is made of an elastic material and, when a flat portion of a rear surface of the first wiring board abuts on an upper surface of the wiring board receiving plate, a top portion of the electronic component housed in the concave portion and a bottom surface of the concave portion form therebetween a space of 1 mm or less such that, when applying the pressure at a time of the thermal compression bonding, the bottom surface of the concave portion is brought into contact with a top of the electronic component mounted on the first wiring board.
A process for identifying a first corn plant comprising a locus correlated with gray leaf spot tolerance, said process comprising: (a) obtaining a first genetic profile of said first corn plant for a chromosomal interval on chromosome 4 between BNLG1755 and UMC1299, (b) obtaining a second genetic profile from a second corn plant comprising the locus correlated with gray leaf spot tolerance, wherein the locus is located on chromosome 4 between BNLG1755 and UMC1299, and (c) comparing said first genetic profile with said second genetic profile, and further comprising selecting said first corn plant if it comprises the locus correlated with gray leaf spot tolerance, wherein the second genetic profile comprises one or more marker alleles selected from the group consisting of: an A nucleotide at position 205 in SEQ ID NO: 55, a G nucleotide at position 263 in SEQ ID NO: 60, a T nucleotide at position 190 in SEQ ID NO: 65, a T nucleotide at position 71 in SEQ ID NO: 70, a C nucleotide at position 185 in SEQ ID NO: 75, a T nucleotide at position 107 in SEQ ID NO: 80, and a T nucleotide at position 114 in SEQ ID NO: 85. (a) obtaining a first genetic profile of said first corn plant for a chromosomal interval on chromosome 4 between BNLG1755 and UMC1299, (b) obtaining a second genetic profile from a second corn plant comprising the locus correlated with gray leaf spot tolerance, wherein the locus is located on chromosome 4 between BNLG1755 and UMC1299, and (c) comparing said first genetic profile with said second genetic profile, and further comprising selecting said first corn plant if it comprises the locus correlated with gray leaf spot tolerance, an A nucleotide at position 205 in SEQ ID NO: 55, a G nucleotide at position 263 in SEQ ID NO: 60, a T nucleotide at position 190 in SEQ ID NO: 65, a T nucleotide at position 71 in SEQ ID NO: 70, a C nucleotide at position 185 in SEQ ID NO: 75, a T nucleotide at position 107 in SEQ ID NO: 80, and a T nucleotide at position 114 in SEQ ID NO: 85.