mhurhangee/ep-ind-claims huggingface dataset:
A card reader to be installed for use in a higher-level device, where a side with an insertion slot configured for a card is represented as a near side, and an opposite side to the near side is represented as a deep side, the card reader comprises a card transfer path where the card inserted through the insertion slot is transferred, and the card reader is characterized by comprising: a card insertion detecting mechanism, placed at a deep side of the insertion slot, configured to detect the card by way of switching from an OFF state to an ON state; a transfer roller, placed at a deeper side position than the card insertion detecting mechanism is, configured to transfer the card through the card transfer path; a turn detecting mechanism configured to detect a turn of the transfer roller; and a card detecting mechanism (15, 16), placed at a deeper side position than the transfer roller is, configured to detect the card by way of switching from an OFF state to an ON state; wherein, if the card detecting mechanism (15, 16) switches from the OFF state to the ON state after the card insertion detecting mechanism switches from the OFF state to the ON state, even though no turn of the transfer roller is detected by the turn detecting mechanism, a control unit of the card reader is configured to send a control unit of the higher-level device an alarm signal for notifying that a skimming device (50, 60) has been inserted through the insertion slot. a card insertion detecting mechanism, placed at a deep side of the insertion slot, configured to detect the card by way of switching from an OFF state to an ON state; a transfer roller, placed at a deeper side position than the card insertion detecting mechanism is, configured to transfer the card through the card transfer path; a turn detecting mechanism configured to detect a turn of the transfer roller; and a card detecting mechanism (15, 16), placed at a deeper side position than the transfer roller is, configured to detect the card by way of switching from an OFF state to an ON state; wherein, if the card detecting mechanism (15, 16) switches from the OFF state to the ON state after the card insertion detecting mechanism switches from the OFF state to the ON state, even though no turn of the transfer roller is detected by the turn detecting mechanism, a control unit of the card reader is configured to send a control unit of the higher-level device an alarm signal for notifying that a skimming device (50, 60) has been inserted through the insertion slot.
An end effector, comprising: (a) a staple cartridge, wherein the staple cartridge comprises: i. a cartridge body, and ii. a lower cartridge tray, wherein both of the cartridge body and the lower cartridge tray comprise at least one proximally presented protrusion engagement feature; (b) a jaw, wherein the jaw comprises: i. a channel, wherein the channel is configured to receive the staple cartridge, and ii. at least one protrusion, wherein the at least one protrusion laterally extends from an interior surface of the jaw, and wherein the at least one protrusion is positioned to align with the at least one protrusion engagement feature when the staple cartridge and jaw are coupled together; and (c) an anvil, wherein the anvil is coupled to the jaw, wherein the anvil is movable relative to the jaw; wherein the protrusion engagement feature comprises at least one notch (218, 220) formed in both the cartridge body and the lower cartridge tray. (a) a staple cartridge, wherein the staple cartridge comprises: i. a cartridge body, and ii. a lower cartridge tray, wherein both of the cartridge body and the lower cartridge tray comprise at least one proximally presented protrusion engagement feature; i. a cartridge body, and ii. a lower cartridge tray, (b) a jaw, wherein the jaw comprises: i. a channel, wherein the channel is configured to receive the staple cartridge, and ii. at least one protrusion, wherein the at least one protrusion laterally extends from an interior surface of the jaw, and wherein the at least one protrusion is positioned to align with the at least one protrusion engagement feature when the staple cartridge and jaw are coupled together; and i. a channel, wherein the channel is configured to receive the staple cartridge, and ii. at least one protrusion, wherein the at least one protrusion laterally extends from an interior surface of the jaw, and wherein the at least one protrusion is positioned to align with the at least one protrusion engagement feature when the staple cartridge and jaw are coupled together; and (c) an anvil, wherein the anvil is coupled to the jaw, wherein the anvil is movable relative to the jaw; wherein the protrusion engagement feature comprises at least one notch (218, 220) formed in both the cartridge body and the lower cartridge tray.
A cultivated Cucumis melo plant comprising resistance against whitefly, wherein said resistance is conferred by an introgression fragment on chromosome 11 in homozygous or heterozygous form and wherein said introgression fragment is from a wild plant of the species Cucumis melo of which a representative sample of seeds has been deposited under accession number NCIMB 41965 and NCIMB 41966, wherein said introgression fragment is detectable by all markers of the group: i) the CC genotype or CT genotype for the SNP marker mME15248 in SEQ ID NO: 3; ii) the CC genotype or CT genotype for SNP marker mME17306 in SEQ ID NO: 4; iii) the AA genotype or AT genotype for SNP marker mME26059 in SEQ ID NO: 5; iv) the GG genotype or GA genotype for SNP marker mME38084 in SEQ ID NO: 6; v) the CC or AC genotype for SNP marker mME21974 in SEQ ID NO: 7; vi) the CC genotype or CT genotype for SNP marker mME12777 in SEQ ID NO: 8. i) the CC genotype or CT genotype for the SNP marker mME15248 in SEQ ID NO: 3; ii) the CC genotype or CT genotype for SNP marker mME17306 in SEQ ID NO: 4; iii) the AA genotype or AT genotype for SNP marker mME26059 in SEQ ID NO: 5; iv) the GG genotype or GA genotype for SNP marker mME38084 in SEQ ID NO: 6; v) the CC or AC genotype for SNP marker mME21974 in SEQ ID NO: 7; vi) the CC genotype or CT genotype for SNP marker mME12777 in SEQ ID NO: 8.
A coated tablet comprising: (a) a tablet core wherein the tablet core comprises (i) optionally at least one antidiabetic agent or a pharmaceutically acceptable salt thereof, wherein the antidiabetic agent is other than saxagliptin; (b) a first layer that coats the tablet core, wherein the first layer comprises (i) a coating material; and (ii) optionally at least one water soluble antioxidant; (c) a second layer that coats the first layer wherein the second layer comprises (i) a coating material comprising at least 25 wt% of a combination of poly(ethylene glycol) and poly(vinyl alcohol); (ii) at least one water soluble antioxidant selected from ascorbic acid, propyl gallate, or a combination thereof; and (iii) saxagliptin or a pharmaceutically acceptable salt thereof; and (d) a third layer that coats the second layer wherein the third layer comprises (i) a coating material; and (ii) optionally at least one water soluble antioxidant. (a) a tablet core wherein the tablet core comprises (i) optionally at least one antidiabetic agent or a pharmaceutically acceptable salt thereof, wherein the antidiabetic agent is other than saxagliptin; (i) optionally at least one antidiabetic agent or a pharmaceutically acceptable salt thereof, wherein the antidiabetic agent is other than saxagliptin; (b) a first layer that coats the tablet core, wherein the first layer comprises (i) a coating material; and (ii) optionally at least one water soluble antioxidant; (i) a coating material; and (ii) optionally at least one water soluble antioxidant; (c) a second layer that coats the first layer wherein the second layer comprises (i) a coating material comprising at least 25 wt% of a combination of poly(ethylene glycol) and poly(vinyl alcohol); (ii) at least one water soluble antioxidant selected from ascorbic acid, propyl gallate, or a combination thereof; and (iii) saxagliptin or a pharmaceutically acceptable salt thereof; and (i) a coating material comprising at least 25 wt% of a combination of poly(ethylene glycol) and poly(vinyl alcohol); (ii) at least one water soluble antioxidant selected from ascorbic acid, propyl gallate, or a combination thereof; and (iii) saxagliptin or a pharmaceutically acceptable salt thereof; and (d) a third layer that coats the second layer wherein the third layer comprises (i) a coating material; and (ii) optionally at least one water soluble antioxidant. (i) a coating material; and (ii) optionally at least one water soluble antioxidant.
A solid catalyst component for the polymerization of olefins comprising Mg, Ti, Cl and at least an electron donor compound which is the reaction product obtained by bringing into contact a Mg compound and a Ti compound having at least a Ti-halogen bond with an electron donor selected from diphenol derivatives of formula in which X is a chlorine substituted phenyl group, and Y is selected from hydrogen or R 1; the R groups, equal to or different from each other, are selected from hydrogen, halogen and C 1 -C 15 hydrocarbon groups, optionally containing an heteroatom selected from halogen, P, S, N, O and Si, which can be fused together to form one or more cycles, and R 1 is a C 1 -C 5 aliphatic group.
A polymethallyl alcohol copolymer comprising: a structural unit represented by the following formula and a structural unit represented by the following formula, a molar ratio / of the structural unit to the structural unit being greater than or equal to 0.5, a lower limit value of the content of the structural unit of all the structural units is 90 mol%, (wherein, X represents at least one selected from the group consisting of a hydrogen atom, an alkoxy group, a hydroxy group, and an alkyl group having 1 to 3 carbon atoms). a structural unit represented by the following formula and a structural unit represented by the following formula, a molar ratio / of the structural unit to the structural unit being greater than or equal to 0.5,
A screw compressor, comprising an oil separating barrel provided with a discharge port and an exhaust bearing seat being sheathed in the oil separating barrel, wherein the exhaust bearing seat is provided with an exhaust port, and an opening of the exhaust port is orientated in a way that, gas exhausted from the exhaust port has a component which rotationally flows along an inner wall of the oil separating barrel and around an axis of the oil separating barrel, wherein the opening of the exhaust port is orientated to be substantially perpendicular to an axis of a male rotor bearing chamber or an axis of a female rotor bearing chamber in the exhaust bearing seat, wherein the exhaust port is inclined upward to allow gas flow exhausted through the exhaust port to flow obliquely upward, characterized in that, the opening of the exhaust port comprises an exhaust port upper edge and an exhaust port lower edge, the exhaust port upper edge is an arc, and a tangent line of the arc and a horizontal plane form an opening inclination angle θ1 greater than 0 degree, the exhaust port lower edge is also an arc, and a tangent line of the arc and a horizontal plane form an opening inclination angle θ2 greater than 0 degree, and an oil return hole is provided in the exhaust bearing seat at a position close to the exhaust port upper edge, and, the opening inclination angle θ1 of the exhaust port upper edge is set as a specific largest value, and the opening inclination angle θ2 of the exhaust port lower edge is smaller than the opening inclination angle θ1 of the exhaust port upper edge by 5 degrees to 10 degrees.
An engine rotational speed display device comprising: a rotational speed sensor for detecting a crankshaft rotational speed pulse according to rotation of a crank pulse rotor provided to a crankshaft of an engine; an engine rotational speed calculating means for calculating an engine rotational speed by a moving average of a detected value of the crankshaft rotational speed pulse; and a display means for displaying the engine rotational speed on a meter by electrical processing, characterized in that, when the crankshaft rotational speed pulse is not detected in a detection time equal to or more than a predetermined value, the engine rotational speed calculating means determines that the engine rotational speed is "0" without calculating the engine rotational speed by the moving average, and the engine rotational speed of "0" is displayed on the meter. a rotational speed sensor for detecting a crankshaft rotational speed pulse according to rotation of a crank pulse rotor provided to a crankshaft of an engine; an engine rotational speed calculating means for calculating an engine rotational speed by a moving average of a detected value of the crankshaft rotational speed pulse; and a display means for displaying the engine rotational speed on a meter by electrical processing, characterized in that, when the crankshaft rotational speed pulse is not detected in a detection time equal to or more than a predetermined value, the engine rotational speed calculating means determines that the engine rotational speed is "0" without calculating the engine rotational speed by the moving average, and the engine rotational speed of "0" is displayed on the meter.
A method of direction of arrival estimation with an automotive spread radar system, the automotive spread radar system comprising a plurality of at least two transceiver antenna units (TRx k), which are configured to work in a multiple-input and multiple-output configuration, wherein the transceiver antenna units (TRx k) are arranged at a priori known positions, and the automotive spread radar system is configured to determine, for each specific transceiver unit antenna unit (TRx k) of the plurality of transceiver antenna units (TRx k), a range of a target reflecting radar waves that have been transmitted by at least the specific transceiver antenna unit (TRx k) by reading out a plurality of range gates that are assigned to the specific transceiver antenna unit (TRx k), the method comprising steps of - for each specific one of the plurality of transceiver antenna units (TRx k), determining a range of a target occurring in one of separated angular directions (α k) lying within an angular range that is arranged about a common direction (φ) at least from radar waves that have been transmitted by the specific transceiver antenna unit (TRx k) and have been reflected by the target, by reading out range gates out of the plurality of range gates of the specific transceiver antenna unit (TRx k), - determining a pattern of occupied range gates from the read-out range gates of the plurality of transceiver unit antenna units (TRx k), and - estimating a direction of arrival (d k) based on relating the determined pattern of occupied range gates to a plurality of expected patterns of occupied range gates for targets occurring in the separated angular directions (α k), the plurality of expected patterns of occupied range gates being predetermined from the a priori known positions of the plurality of transceiver unit antenna units (TRx k). - for each specific one of the plurality of transceiver antenna units (TRx k), determining a range of a target occurring in one of separated angular directions (α k) lying within an angular range that is arranged about a common direction (φ) at least from radar waves that have been transmitted by the specific transceiver antenna unit (TRx k) and have been reflected by the target, by reading out range gates out of the plurality of range gates of the specific transceiver antenna unit (TRx k), - determining a pattern of occupied range gates from the read-out range gates of the plurality of transceiver unit antenna units (TRx k), and - estimating a direction of arrival (d k) based on relating the determined pattern of occupied range gates to a plurality of expected patterns of occupied range gates for targets occurring in the separated angular directions (α k), the plurality of expected patterns of occupied range gates being predetermined from the a priori known positions of the plurality of transceiver unit antenna units (TRx k).
A method of encoding a point cloud to generate a bitstream of compressed point cloud data representing a three-dimensional location of an object, the point cloud being located within a volumetric space recursively split into sub-volumes and containing points of the point cloud, wherein a volume is partitioned into a first set of child sub-volumes and a second set of child sub-volumes, the first set of child sub-volumes being positioned in a first plane and the second set of child sub-volumes being positioned in a second plane parallel to the first plane, and wherein an occupancy bit associated with each respective child sub-volume indicates whether that respective child sub-volume contains at least one of the points, both the first plane and the second plane being orthogonal to an axis, characterized by determining whether the volume is planar based on whether all child sub-volumes containing at least one point are positioned in either the first set or the second set; entropy encoding in the bitstream a planar mode flag to signal whether the volume is planar, wherein entropy encoding includes determining a context for coding the planar mode flag based, in part, on one or more of: (a) whether a parent volume containing the volume is planar in occupancy, (b) occupancy of a neighbouring volume at a parent depth, the neighbouring volume being adjacent the volume and having a face in common with the parent volume, or (c) a distance between the volume and a closest already-coded occupied volume at a same depth as the volume and having a same position on the axis as the volume; encoding occupancy bits for at least some of the child sub-volumes; and outputting the bitstream of compressed point cloud data. determining whether the volume is planar based on whether all child sub-volumes containing at least one point are positioned in either the first set or the second set; entropy encoding in the bitstream a planar mode flag to signal whether the volume is planar, wherein entropy encoding includes determining a context for coding the planar mode flag based, in part, on one or more of: (a) whether a parent volume containing the volume is planar in occupancy, (b) occupancy of a neighbouring volume at a parent depth, the neighbouring volume being adjacent the volume and having a face in common with the parent volume, or (c) a distance between the volume and a closest already-coded occupied volume at a same depth as the volume and having a same position on the axis as the volume; (a) whether a parent volume containing the volume is planar in occupancy, (b) occupancy of a neighbouring volume at a parent depth, the neighbouring volume being adjacent the volume and having a face in common with the parent volume, or (c) a distance between the volume and a closest already-coded occupied volume at a same depth as the volume and having a same position on the axis as the volume; encoding occupancy bits for at least some of the child sub-volumes; and outputting the bitstream of compressed point cloud data.
Method for optimizing an operating parameter of a machine designed for the application of agricultural material to a field, involving the step of calculating an operating parameter for the machine during the application of the material at a location of the field by an electronic computer unit on the basis of data concerning a plant-growth affecting property of the location to be supplied with the material, wherein the calculation of the operating parameter for the machine during the application of the material at the location to be supplied with the material is performed by the electronic computer unit additionally on the basis of data concerning the plant-growth affecting property of a location of the field adjacent to the location to be supplied with the material for the purpose of optimizing a horticultural result, characterized in that the computer unit calculates an expected plant growth at the adjacent location on the basis of the data of the adjacent location and a plant-growth model and calculates the operating parameter for the location to be supplied with the material on the basis of the plant growth expected at the adjacent location. wherein the calculation of the operating parameter for the machine during the application of the material at the location to be supplied with the material is performed by the electronic computer unit additionally on the basis of data concerning the plant-growth affecting property of a location of the field adjacent to the location to be supplied with the material for the purpose of optimizing a horticultural result, characterized in that the computer unit calculates an expected plant growth at the adjacent location on the basis of the data of the adjacent location and a plant-growth model and calculates the operating parameter for the location to be supplied with the material on the basis of the plant growth expected at the adjacent location.
Method for providing information assisting a driver of a vehicle which is equipped with a navigation system, - Providing real-time image information to a remote system, said real-time image information having been obtained from at least one road-side camera, - Displaying an object on a display of said navigation system which represents at least one road-side camera, - selecting a corresponding road-side camera using a user interface of said navigation system, - transmitting image information based on said real-time image information provided by the corresponding road-side camera which has been selected, from said remote system to said navigation system, - providing static image content by using vector information for lines and edges or by using basic shapes and elements, - displaying reconstructed image information based on said image information and said static image content on said display in order to provide visual information of said specific section of a route. - Providing real-time image information to a remote system, said real-time image information having been obtained from at least one road-side camera, - Displaying an object on a display of said navigation system which represents at least one road-side camera, - selecting a corresponding road-side camera using a user interface of said navigation system, - transmitting image information based on said real-time image information provided by the corresponding road-side camera which has been selected, from said remote system to said navigation system, - providing static image content by using vector information for lines and edges or by using basic shapes and elements, - displaying reconstructed image information based on said image information and said static image content on said display in order to provide visual information of said specific section of a route.