mhurhangee/ep-ind-claims huggingface dataset:
A clamping device for a bone-in limb meat, the device comprising: a pair of clamp pieces (12a, 12b) for holding the bone-in limb meat; a support portion openably/closably supporting the pair of clamp pieces (12a, 12b) at respective base portions of the clamp pieces (112a, 12b); and rotation suppressing portions for suppressing a rotation of the bone-in limb meat when the bone-in limb meat is held by the pair of clamp pieces, characterized in that the rotation suppressing portions are disposed so as to protrude from surfaces of the pair of clamp pieces (12a, 12b) along a direction perpendicular to a plane including opening/closing directions of the pair of clamp pieces (12a, 12b), and in that in an opened state of the pair of clamp pieces (12a, 12b), the pair of clamp pieces (12a, 12b) respectively have tip portions (18a, 18b) at positions closer to a center line between the pair of clamp pieces (12a, 12b) than the rotation suppressing portions and positions farther away from the support portion than the rotation suppressing portions in a direction along the center line. a pair of clamp pieces (12a, 12b) for holding the bone-in limb meat; a support portion openably/closably supporting the pair of clamp pieces (12a, 12b) at respective base portions of the clamp pieces (112a, 12b); and rotation suppressing portions for suppressing a rotation of the bone-in limb meat when the bone-in limb meat is held by the pair of clamp pieces, characterized in that the rotation suppressing portions are disposed so as to protrude from surfaces of the pair of clamp pieces (12a, 12b) along a direction perpendicular to a plane including opening/closing directions of the pair of clamp pieces (12a, 12b), and in that in an opened state of the pair of clamp pieces (12a, 12b), the pair of clamp pieces (12a, 12b) respectively have tip portions (18a, 18b) at positions closer to a center line between the pair of clamp pieces (12a, 12b) than the rotation suppressing portions and positions farther away from the support portion than the rotation suppressing portions in a direction along the center line.
An implantable device comprising: a body, the body defining a designed surface topography of bone-contacting features and being sized for placement into an intravertebral disc space, the designed surface topography having a defined, repeating, three-dimensional pattern, the three dimensional pattern resulting from the application to the surface of first and second two-dimensional dimple surface patterns; each said first and second patterns having a depth dimension, the first said pattern depth dimension being greater than the second depth dimension to create a surface area of bone-contacting features that allow for in-growth and biological attachment to a biocompatible material, the body having a top surface, a bottom surface, opposing lateral sides, and opposing anterior and posterior portions. wherein the designed surface topography is provided on at least a portion of the top surface, the bottom surface, or both the top and bottom surfaces (10, 20), and being produced by overlapping several features, wherein the designed surface topography on the top surface in the anterior portion has larger and sharper features, while the designed surface topography on the top surface in the posterior portion has smaller and less sharp features, the designed surface topography allowing for initial stabilization and long-term bone in-growth and fusion. a body, the body defining a designed surface topography of bone-contacting features and being sized for placement into an intravertebral disc space, the designed surface topography having a defined, repeating, three-dimensional pattern, the three dimensional pattern resulting from the application to the surface of first and second two-dimensional dimple surface patterns; each said first and second patterns having a depth dimension, the first said pattern depth dimension being greater than the second depth dimension to create a surface area of bone-contacting features that allow for in-growth and biological attachment to a biocompatible material, the body having a top surface, a bottom surface, opposing lateral sides, and opposing anterior and posterior portions. wherein the designed surface topography is provided on at least a portion of the top surface, the bottom surface, or both the top and bottom surfaces (10, 20), and being produced by overlapping several features, wherein the designed surface topography on the top surface in the anterior portion has larger and sharper features, while the designed surface topography on the top surface in the posterior portion has smaller and less sharp features, the designed surface topography allowing for initial stabilization and long-term bone in-growth and fusion.
A tool for use with a tubular, the tool comprising: a base; and a sleeve member; and characterised by an actuation member pivotally coupled to the sleeve member and configured to rotate the sleeve member relative to the base; and a dog member coupled to the base, wherein the dog member is configured to be moved between a radially retracted position and a radially extended position by the sleeve member as the sleeve member rotates relative to the base. a base; and a sleeve member; and characterised by an actuation member pivotally coupled to the sleeve member and configured to rotate the sleeve member relative to the base; and a dog member coupled to the base, wherein the dog member is configured to be moved between a radially retracted position and a radially extended position by the sleeve member as the sleeve member rotates relative to the base.
An image forming apparatus, comprising: a main controller capable of controlling operations of the image forming apparatus; and a Customer Replaceable Unit Monitoring, CRUM, chip that stores information regarding a consumable unit, wherein the main controller is operable to transmit to the CRUM chip a first data set and first integrity detection data regarding the first data for authentication with the CRUM chip, the first data set comprising first command data, first data, first Cyclic Redundancy Check, CRC, data and first symbol data, wherein the CRUM chip is operable: to generate second integrity detection data using both a second data set to be transmitted to the main controller and the first integrity detection data in response to the first data set and the first integrity detection data being received, the second data set comprising second data, second result data, second CRC data and second symbol data, and to transmit the second data set and the second integrity detection data to the main controller. a main controller capable of controlling operations of the image forming apparatus; and a Customer Replaceable Unit Monitoring, CRUM, chip that stores information regarding a consumable unit, wherein the main controller is operable to transmit to the CRUM chip a first data set and first integrity detection data regarding the first data for authentication with the CRUM chip, the first data set comprising first command data, first data, first Cyclic Redundancy Check, CRC, data and first symbol data, wherein the CRUM chip is operable: to generate second integrity detection data using both a second data set to be transmitted to the main controller and the first integrity detection data in response to the first data set and the first integrity detection data being received, the second data set comprising second data, second result data, second CRC data and second symbol data, and to transmit the second data set and the second integrity detection data to the main controller. to generate second integrity detection data using both a second data set to be transmitted to the main controller and the first integrity detection data in response to the first data set and the first integrity detection data being received, the second data set comprising second data, second result data, second CRC data and second symbol data, and to transmit the second data set and the second integrity detection data to the main controller.
A method, comprising: performing (302, 304, 402, 404) a first pass of an iterative reconstruction in which an intermediate first spectral image and an intermediate second spectral image are generated using an iterative image reconstruction algorithm, a start first spectral image, a start second spectral image, an initial first spectral regularization parameter, and an initial second spectral regularization parameter; updating (314, 412) at least one of the initial first spectral regularization parameter or the initial second spectral regularization parameter, thereby creating an updated first spectral regularization parameter or an updated second spectral regularization parameter, based on at least a sharpness of one of the intermediate first spectral image or the intermediate second spectral image; and performing a subsequent pass of the iterative image reconstruction in which an updated intermediate first spectral image and an updated intermediate second spectral image are generated using the iterative image reconstruction algorithm, the intermediate first spectral image, the intermediate second spectral image, the updated first spectral regularization parameter, and the updated second spectral regularization parameter. performing (302, 304, 402, 404) a first pass of an iterative reconstruction in which an intermediate first spectral image and an intermediate second spectral image are generated using an iterative image reconstruction algorithm, a start first spectral image, a start second spectral image, an initial first spectral regularization parameter, and an initial second spectral regularization parameter; updating (314, 412) at least one of the initial first spectral regularization parameter or the initial second spectral regularization parameter, thereby creating an updated first spectral regularization parameter or an updated second spectral regularization parameter, based on at least a sharpness of one of the intermediate first spectral image or the intermediate second spectral image; and performing a subsequent pass of the iterative image reconstruction in which an updated intermediate first spectral image and an updated intermediate second spectral image are generated using the iterative image reconstruction algorithm, the intermediate first spectral image, the intermediate second spectral image, the updated first spectral regularization parameter, and the updated second spectral regularization parameter.
A method for automatic raster scanning a surface of a sample using a mapping means (4, 5) for mapping said surface and a scanning means (2, 3) for raster scanning said surface, said surface being substantially larger than the scanning area of said scanning means (2, 3), the method comprising the following steps: - automatically mapping the complete surface of said sample or a large part of it, - by coarsely positioning said mapping means over said surface of said sample in a given distance, - stepwise reducing said distance, thereby in each step recording a focal plane of said surface and - from said recorded focal planes, developing an integral map of said surface including an elevation profile, - automatically analysing said integral map to identify and localize at least one area of interest within said surface, thereby deriving the elevation of said area of interest, - automatically positioning said raster scanning means (2, 3) over said area of interest at a distance given by the derived elevation, and - automatically raster scanning said area of interest of said surface by said raster scanning means (2, 3), characterized in that - the analysis is a mathematical analysis or evaluation, said analysis resulting in - an identification and localization of at least one two-dimensional area of interest within the surface and - a determination of the third dimension as elevation of said identified two-dimensional area of interest. - automatically mapping the complete surface of said sample or a large part of it, - by coarsely positioning said mapping means over said surface of said sample in a given distance, - stepwise reducing said distance, thereby in each step recording a focal plane of said surface and - from said recorded focal planes, developing an integral map of said surface including an elevation profile, - by coarsely positioning said mapping means over said surface of said sample in a given distance, - stepwise reducing said distance, thereby in each step recording a focal plane of said surface and - from said recorded focal planes, developing an integral map of said surface including an elevation profile, - automatically analysing said integral map to identify and localize at least one area of interest within said surface, thereby deriving the elevation of said area of interest, - automatically positioning said raster scanning means (2, 3) over said area of interest at a distance given by the derived elevation, and - automatically raster scanning said area of interest of said surface by said raster scanning means (2, 3), - the analysis is a mathematical analysis or evaluation, said analysis resulting in - an identification and localization of at least one two-dimensional area of interest within the surface and - a determination of the third dimension as elevation of said identified two-dimensional area of interest. - an identification and localization of at least one two-dimensional area of interest within the surface and - a determination of the third dimension as elevation of said identified two-dimensional area of interest.
A device configured to switch a clock speed for multiple links running at different clock speeds, the device comprising: a frequency divider configured to generate from a source clock signal a plurality of clock signals at different frequencies; a clock switching controller configured to select one of the clock signals for a plurality of ports and output the selected clock signal to a port for which a maximum data rate, among the data rates requested for the plurality of ports, has been requested; and wherein the clock switching controller is configured to output modified versions of the selected clock signal to match data rates other than the maximum data rate requested by the plurality of ports. a frequency divider configured to generate from a source clock signal a plurality of clock signals at different frequencies; a clock switching controller configured to select one of the clock signals for a plurality of ports and output the selected clock signal to a port for which a maximum data rate, among the data rates requested for the plurality of ports, has been requested; and wherein the clock switching controller is configured to output modified versions of the selected clock signal to match data rates other than the maximum data rate requested by the plurality of ports.
A BUM traffic control method, applied to a target broadcast domain of a communications network, wherein the target broadcast domain comprises a traffic controller, a plurality of network devices, and a host connected to each network device, the traffic controller is in a communications connection to each network device through a tunnel, and the method comprises: receiving, by the traffic controller through a tunnel, a BUM packet encapsulated by a network device in the target broadcast domain; collecting, by the traffic controller based on the received BUM packet, statistics about a BUM traffic value of a target object within a preset time period, and determining whether the BUM traffic value is greater than a preset BUM traffic threshold of the target object, wherein the target object is the target broadcast domain, a network device in the target broadcast domain, or a host connected to a network device in the target broadcast domain; and if the BUM traffic value is greater than the preset BUM traffic threshold, controlling, by the traffic controller, BUM traffic of the target object, to reduce the BUM traffic of the target object. receiving, by the traffic controller through a tunnel, a BUM packet encapsulated by a network device in the target broadcast domain; collecting, by the traffic controller based on the received BUM packet, statistics about a BUM traffic value of a target object within a preset time period, and determining whether the BUM traffic value is greater than a preset BUM traffic threshold of the target object, wherein the target object is the target broadcast domain, a network device in the target broadcast domain, or a host connected to a network device in the target broadcast domain; and if the BUM traffic value is greater than the preset BUM traffic threshold, controlling, by the traffic controller, BUM traffic of the target object, to reduce the BUM traffic of the target object.
An electrical connector having one or more first terminals (22a, 22b) each adapted for electrical coupling to a respective one or more second terminals (42a, 42b) of a mating connector, wherein heat is generated in said connectors when rendered electrically conductive, said electrical connector comprising: a first thermally conductive inner electrical insulator disposed about and in tight-fitting contact with said one or more first terminals (22a, 22b); an elongated metal sleeve disposed about and in tight-fitting contact with said first insulator; a first outer thermally conductive coupling nut adapted for connection to the mating connector and disposed about and in tight-fitting contact with said metal sleeve; and at least one metallic coiled spring heat conductor disposed intermediate and in contact with said metal sleeve and said first coupling nut, wherein heat is transmitted from the one or more first terminals (22a, 22b) via said inner insulator, said metal sleeve and said coiled spring heat conductor to said outer coupling nut for radiation from an outer surface of said coupling nut. a first thermally conductive inner electrical insulator disposed about and in tight-fitting contact with said one or more first terminals (22a, 22b); an elongated metal sleeve disposed about and in tight-fitting contact with said first insulator; a first outer thermally conductive coupling nut adapted for connection to the mating connector and disposed about and in tight-fitting contact with said metal sleeve; and at least one metallic coiled spring heat conductor disposed intermediate and in contact with said metal sleeve and said first coupling nut, wherein heat is transmitted from the one or more first terminals (22a, 22b) via said inner insulator, said metal sleeve and said coiled spring heat conductor to said outer coupling nut for radiation from an outer surface of said coupling nut.
A recombinant DNA molecule detectable in a sample containing corn DNA, wherein the nucleotide sequence of said molecule is: (a) selected from the group consisting of SEQ ID NO:12, SEQ ID NO:14, SEQ ID NO:16, SEQ ID NO:41, SEQ ID NO:42, SEQ ID NO:43, SEQ ID NO:44, SEQ ID NO:45, SEQ ID NO:49, SEQ ID NO:50, SEQ ID NO:51, and SEQ ID NO:52 or; (b) a nucleotide sequence completely complementary to (a), wherein the presence of such DNA molecule is diagnostic for the construct comprised within corn event MON 87411 DNA in said sample. (a) selected from the group consisting of SEQ ID NO:12, SEQ ID NO:14, SEQ ID NO:16, SEQ ID NO:41, SEQ ID NO:42, SEQ ID NO:43, SEQ ID NO:44, SEQ ID NO:45, SEQ ID NO:49, SEQ ID NO:50, SEQ ID NO:51, and SEQ ID NO:52 or; (b) a nucleotide sequence completely complementary to (a),
Cyanamide-containing solution comprising a) 15 to 60 wt.% cyanamide, b) 0.01 to 4 wt.% of a stabiliser containing one or more compounds from the group of phosphorus-containing acids or the salts thereof, c) 0.01 to 4 wt.% of a non-ionic surfactant containing one or more compounds selected from the group of ethoxylates according to formula, the fatty alcohol glucosides according to formula, or mixtures thereof, wherein the following applies for formula and formula, R 1 -O-(CH 2 CH 2 O) n -H Formula wherein the following applies for the functional groups R 1, R 2 and the indices n, m, simultaneously or independently: R 1 = a linear or branched alkyl or alkenyl group having 6 to 24 carbon atoms, a partially or completely fluorinated alkyl group having 6 to 18 carbon atoms, a phenyl group, an alkyl-substituted phenyl group, a mono- or polyfunctional siloxane group, R 2 = a linear or branched alkyl or alkenyl group having 6 to 24 carbon atoms, n = a number from 2 to 20, m = a number from 1 to 5, d) remainder water, wherein components a) and c) are present in a weight ratio of cyanamide to non-ionic surfactant in the range of 500:1 to 5:1. a) 15 to 60 wt.% cyanamide, b) 0.01 to 4 wt.% of a stabiliser containing one or more compounds from the group of phosphorus-containing acids or the salts thereof, c) 0.01 to 4 wt.% of a non-ionic surfactant containing one or more compounds selected from the group of ethoxylates according to formula, the fatty alcohol glucosides according to formula, or mixtures thereof, wherein the following applies for formula and formula, R 1 -O-(CH 2 CH 2 O) n -H Formula wherein the following applies for the functional groups R 1, R 2 and the indices n, m, simultaneously or independently: R 1 = a linear or branched alkyl or alkenyl group having 6 to 24 carbon atoms, a partially or completely fluorinated alkyl group having 6 to 18 carbon atoms, a phenyl group, an alkyl-substituted phenyl group, a mono- or polyfunctional siloxane group, R 2 = a linear or branched alkyl or alkenyl group having 6 to 24 carbon atoms, n = a number from 2 to 20, m = a number from 1 to 5, R 1 = a linear or branched alkyl or alkenyl group having 6 to 24 carbon atoms, a partially or completely fluorinated alkyl group having 6 to 18 carbon atoms, a phenyl group, an alkyl-substituted phenyl group, a mono- or polyfunctional siloxane group, R 2 = a linear or branched alkyl or alkenyl group having 6 to 24 carbon atoms, n = a number from 2 to 20, m = a number from 1 to 5, d) remainder water,
Computer-implemented method for operating a mobile device, comprising: observing the physical movement of the mobile device to classify the mobile device to have an observed movement state relating to a change in the location of the mobile device over time; notifying the observed movement state to other mobile devices; in response to the notification, receiving location information (x2, y2) from at least one other mobile device that has a movement state that is complementary to the observed movement state; and upon arrival of the mobile device in a destination area (240, 840), handing over the location information (x2, y2) to a recipient (R1, R2, 812, 813, 810); wherein the mobile device is configured to operate in a communication network and the method is triggered by detecting that the operation of the communication network exceeds a threshold condition and wherein said notifying and receiving are performed by communication channels that are independent from the communication network (111/101). observing the physical movement of the mobile device to classify the mobile device to have an observed movement state relating to a change in the location of the mobile device over time; notifying the observed movement state to other mobile devices; in response to the notification, receiving location information (x2, y2) from at least one other mobile device that has a movement state that is complementary to the observed movement state; and upon arrival of the mobile device in a destination area (240, 840), handing over the location information (x2, y2) to a recipient (R1, R2, 812, 813, 810); wherein the mobile device is configured to operate in a communication network and the method is triggered by detecting that the operation of the communication network exceeds a threshold condition and wherein said notifying and receiving are performed by communication channels that are independent from the communication network (111/101).