mhurhangee/ep-ind-claims huggingface dataset:
A shaped charge liner having a composition comprising metal powders, the composition comprising: one or more of an aluminum metal powder and a titanium metal powder, wherein each of the aluminum metal powder and the titanium metal powder comprise a grain size range from 50 micrometers to 150 micrometers; a first bronze metal powder comprising a grain size range of 160 micrometers to 179 micrometers; a second bronze metal powder comprising a grain size range of 125 micrometers to 159 micrometers; and a tungsten metal powder comprising a grain size up to 200 micrometers; and a graphite powder comprising a grain size up to 100 micrometers. one or more of an aluminum metal powder and a titanium metal powder, wherein each of the aluminum metal powder and the titanium metal powder comprise a grain size range from 50 micrometers to 150 micrometers; a first bronze metal powder comprising a grain size range of 160 micrometers to 179 micrometers; a second bronze metal powder comprising a grain size range of 125 micrometers to 159 micrometers; and a tungsten metal powder comprising a grain size up to 200 micrometers; and a graphite powder comprising a grain size up to 100 micrometers.
A molding device for molding a material around a core, comprising a hollow molding enclosure adapted to receive the core, and means for controlling the shape of the core in the hollow enclosure, the controlling means comprising means for deforming the core, the molding device being characterized in that the means for controlling further comprise force control means and a control unit adapted to actuate the deformation means as a function of information given by the force control means.
A method of inter-layer prediction for scalable video coding, wherein video data is configured into a Base Layer, BL, and an Enhancement Layer, EL, and wherein EL video data has higher spatial resolution or better video quality than BL video data, the method comprising: receiving input data associated with the EL video data, wherein the EL video data is partitioned into transform units, TUs, each TU has a TU size and is subjectable to a transform, wherein the input data associated with the EL video data correspond to a difference between EL input data and their inter-layer texture prediction, characterized by the method further comprising: applying a discrete sine transform, DST, and inverse DST, respectively, or a discrete cosine transform, DCT, and inverse DCT, respectively, to the input data corresponding to a current TU of the EL video data depending on a current TU size, wherein the DST, and inverse DST, respectively, is used if the current TU size is equal to a pre-defined size of 4x4, and the DCT, and inverse DCT, respectively, is used if the current TU size is greater than the pre-defined size. receiving input data associated with the EL video data, wherein the EL video data is partitioned into transform units, TUs, each TU has a TU size and is subjectable to a transform, wherein the input data associated with the EL video data correspond to a difference between EL input data and their inter-layer texture prediction, characterized by the method further comprising: applying a discrete sine transform, DST, and inverse DST, respectively, or a discrete cosine transform, DCT, and inverse DCT, respectively, to the input data corresponding to a current TU of the EL video data depending on a current TU size, wherein the DST, and inverse DST, respectively, is used if the current TU size is equal to a pre-defined size of 4x4, and the DCT, and inverse DCT, respectively, is used if the current TU size is greater than the pre-defined size.
A yarn-forming element for an air-jet spinning machine for producing a yarn from a fiber strand by means of a swirling air flow, - the yarn-forming element comprising a spinning tip having an inlet opening for fibers of the fiber strand, - the yarn-forming element comprising a base body connected to the spinning tip, and - the yarn-forming element comprising a draw-off channel for a yarn produced in the region of the spinning tip and extending through the spinning tip and the base body and opening into an outlet through which the yarn produced in the region of the spinning tip can exit the yarn-forming element, wherein the spinning tip and the base body are connected to each other by means of at least one snap connection, wherein the spinning tip is retained on the base body by means of a sleeve, characterized in that, the snap connection holds the sleeve and thus the spinning tip on the base body. - the yarn-forming element comprising a spinning tip having an inlet opening for fibers of the fiber strand, - the yarn-forming element comprising a base body connected to the spinning tip, and - the yarn-forming element comprising a draw-off channel for a yarn produced in the region of the spinning tip and extending through the spinning tip and the base body and opening into an outlet through which the yarn produced in the region of the spinning tip can exit the yarn-forming element,
A control system for controlling the storage of respiratory produce in a defined confined storage environment, said control system comprising: - at least one gas analyzing means comprising a control unit for determining an adjusted gas medium composition of the confined storage environment for protecting the produce against fermentative degradation; - at least one operating/actuating means for adapting the gas medium in the confined storage environment based on said determined adjusted gas medium composition; - wherein the control unit is adapted for determining the adjusted gas medium composition based on a mathematical model of the system that determines the actual respiratory and fermentative rates of the produce and on the evaluation of the gas exchange dynamics of the storage system comprising the gas exchange dynamics of the respiratory produce, the storage atmosphere and the outside, the adjusted gas medium composition being determined as a function of the calculated total gas exchange rate quotient (GERQ) in the confined storage environment, whereby GERQ is calculated as GERQ = d CO 2 d t + k Δ CO 2 - d O 2 d t + k Δ O 2 in aerobic and anaerobic conditions, whereby d d t ̲ is the rate of change with time t, O 2 and CO 2 are the oxygen and carbon dioxide concentration, k the leak transfer rate constant characteristic of the storage environment at the time of storage, and ΔO 2 or ΔCO 2 the difference of O 2 and CO 2 in the storage room and the environment, respectively. - at least one gas analyzing means comprising a control unit for determining an adjusted gas medium composition of the confined storage environment for protecting the produce against fermentative degradation; - at least one operating/actuating means for adapting the gas medium in the confined storage environment based on said determined adjusted gas medium composition; - wherein the control unit is adapted for determining the adjusted gas medium composition based on a mathematical model of the system that determines the actual respiratory and fermentative rates of the produce and on the evaluation of the gas exchange dynamics of the storage system comprising the gas exchange dynamics of the respiratory produce, the storage atmosphere and the outside, the adjusted gas medium composition being determined as a function of the calculated total gas exchange rate quotient (GERQ) in the confined storage environment, whereby GERQ is calculated as GERQ = d CO 2 d t + k Δ CO 2 - d O 2 d t + k Δ O 2 in aerobic and anaerobic conditions, whereby d d t ̲ is the rate of change with time t, O 2 and CO 2 are the oxygen and carbon dioxide concentration, k the leak transfer rate constant characteristic of the storage environment at the time of storage, and ΔO 2 or ΔCO 2 the difference of O 2 and CO 2 in the storage room and the environment, respectively.
A terminal device configured to operate in a time division duplex, TDD, communication system, comprising: a processing module, configured to determine that the terminal device cancels sending of uplink data and/or uplink control information in K consecutive orthogonal frequency division multiplexing, OFDM, symbols in an uplink subframe, wherein the K OFDM symbols are located on one or more normal carriers in a carrier set, the carrier set comprises all carriers in carrier aggregation that are used by the terminal device to send the uplink subframe, and K is a positive integer and is not greater than a quantity of OFDM symbols comprised in the uplink subframe; and a sending module, configured to send an uplink signal in the K symbols on one or more special carriers in the carrier set, wherein the special carrier is a carrier without transmission of uplink data and uplink control information, and the normal carrier is a carrier that is used by the terminal device to send at least one kind of: the uplink data and the uplink control information, wherein the uplink data is a physical uplink shared channel, PUSCH, the uplink control information is a physical uplink control channel, PUCCH, and the uplink signal is a sounding reference signal, SRS. a processing module, configured to determine that the terminal device cancels sending of uplink data and/or uplink control information in K consecutive orthogonal frequency division multiplexing, OFDM, symbols in an uplink subframe, wherein the K OFDM symbols are located on one or more normal carriers in a carrier set, the carrier set comprises all carriers in carrier aggregation that are used by the terminal device to send the uplink subframe, and K is a positive integer and is not greater than a quantity of OFDM symbols comprised in the uplink subframe; and a sending module, configured to send an uplink signal in the K symbols on one or more special carriers in the carrier set, wherein the special carrier is a carrier without transmission of uplink data and uplink control information, and the normal carrier is a carrier that is used by the terminal device to send at least one kind of: the uplink data and the uplink control information, wherein the uplink data is a physical uplink shared channel, PUSCH, the uplink control information is a physical uplink control channel, PUCCH, and the uplink signal is a sounding reference signal, SRS.
Mixing device for mixing combustion air and gas for a gas appliance, having a. a housing with a gas supply connectable to it, b. a nozzle insert which is interchangeably arranged in the housing and has a predetermined flow through cross-sectional area, c. wherein the housing has an inlet region which forms an inlet section of a venturi nozzle tapering in the flow direction, d. wherein the nozzle insert forming at least one outlet section of the venturi nozzle widening in the flow direction, wherein e. a displacement body extending over a predetermined axial length and reducing the flow through cross-sectional area is formed inside the nozzle insert, characterized in that f. the displacement body is held in the centre of the flow cross-sectional area by means of vertical webs, and g. the nozzle insert is fastened to its downstream edge region in a sealing manner on the housing at least in sections positively adjacent. a. a housing with a gas supply connectable to it, b. a nozzle insert which is interchangeably arranged in the housing and has a predetermined flow through cross-sectional area, c. wherein the housing has an inlet region which forms an inlet section of a venturi nozzle tapering in the flow direction, d. wherein the nozzle insert forming at least one outlet section of the venturi nozzle widening in the flow direction, wherein e. a displacement body extending over a predetermined axial length and reducing the flow through cross-sectional area is formed inside the nozzle insert, characterized in that f. the displacement body is held in the centre of the flow cross-sectional area by means of vertical webs, and g. the nozzle insert is fastened to its downstream edge region in a sealing manner on the housing at least in sections positively adjacent.
A slotter head, comprising: a cutter rest that is disk shaped, and is rotatably supported; a movable block (103;202) that is mounted in an outer peripheral portion of the cutter rest; a first cutting blade that is fixed to the movable block (103;202) along a rotation shaft c enter direction of the cutter rest and along a direction inclined in a circumferential direction by a predetermined angle; a first support shaft (106;203) that supports, on the cutter rest, the movable block (103;202) rotatably around a first shaft center (O1;O11) along the rotation shaft center direction of the cutter rest; and characterised by a second support shaft (107;204) that supports, on the cutter rest, the movable block (103; 202) rotatably around a second shaft center (02;012) along a circumferential direction of the cutter rest. a cutter rest that is disk shaped, and is rotatably supported; a movable block (103;202) that is mounted in an outer peripheral portion of the cutter rest; a first cutting blade that is fixed to the movable block (103;202) along a rotation shaft c enter direction of the cutter rest and along a direction inclined in a circumferential direction by a predetermined angle; a first support shaft (106;203) that supports, on the cutter rest, the movable block (103;202) rotatably around a first shaft center (O1;O11) along the rotation shaft center direction of the cutter rest; and characterised by a second support shaft (107;204) that supports, on the cutter rest, the movable block (103; 202) rotatably around a second shaft center (02;012) along a circumferential direction of the cutter rest.
A knee airbag module comprises: an airbag; an inflator; a housing, the housing containing the airbag and inflator within a hollow interior of the housing formed by a first housing part and a second housing part, characterized in that the first and second housing parts are joined together along four common sides, along three common sides (410, 412, 414) by a locking engagement snap-in feature and wherein each first a second housing parts are joined by a hinge extending along a fourth housing side, the housing includes a deployable door cover formed in the second part that articulates about said hinge as the airbag is inflated extending upward relative to the lower portion of the instrument panel between the instrument panel and an occupant's knees. an airbag; an inflator; a housing, the housing containing the airbag and inflator within a hollow interior of the housing formed by a first housing part and a second housing part, characterized in that the first and second housing parts are joined together along four common sides, along three common sides (410, 412, 414) by a locking engagement snap-in feature and wherein each first a second housing parts are joined by a hinge extending along a fourth housing side, the housing includes a deployable door cover formed in the second part that articulates about said hinge as the airbag is inflated extending upward relative to the lower portion of the instrument panel between the instrument panel and an occupant's knees.
A method for detecting a target molecule in a sample, comprising the sequential steps of a. incubating at the same time in a buffer solution in a reaction well i. the sample suspected to contain one or more target molecules, ii. capture molecules suitable for binding to the target molecules, wherein the capture molecules are coupled to beads (capture-beads), iii. a defined amount of detection molecules suitable for binding to the target molecules and/or the capture molecules, wherein the detection molecules are coupled to beads (detection-beads), wherein the capture-beads are separable from the detection-beads, b. separating in the reaction well the capture-beads from the buffer solution comprising unbound detection-beads, and c. detecting remaining unbound detection-beads in the buffer solution, which has been separated from the capture-beads, wherein the detection of remaining unbound detection-beads occurs in the same reaction well as the incubation and separation by means of a label that does not require additional reagents for signal generation, wherein the method does not comprise a washing step. a. incubating at the same time in a buffer solution in a reaction well i. the sample suspected to contain one or more target molecules, ii. capture molecules suitable for binding to the target molecules, wherein the capture molecules are coupled to beads (capture-beads), iii. a defined amount of detection molecules suitable for binding to the target molecules and/or the capture molecules, wherein the detection molecules are coupled to beads (detection-beads), wherein the capture-beads are separable from the detection-beads, i. the sample suspected to contain one or more target molecules, ii. capture molecules suitable for binding to the target molecules, wherein the capture molecules are coupled to beads (capture-beads), iii. a defined amount of detection molecules suitable for binding to the target molecules and/or the capture molecules, wherein the detection molecules are coupled to beads (detection-beads), wherein the capture-beads are separable from the detection-beads, b. separating in the reaction well the capture-beads from the buffer solution comprising unbound detection-beads, and c. detecting remaining unbound detection-beads in the buffer solution, which has been separated from the capture-beads, wherein the detection of remaining unbound detection-beads occurs in the same reaction well as the incubation and separation by means of a label that does not require additional reagents for signal generation,
An anchor delivery system for inserting an anchor in bone comprising: a guide; and an anchor delivery tool removeably disposable within the guide, the tool including a shaft and a handle coupled to a proximal portion of the shaft, the handle including a hub and a nose cone coupled to the hub, wherein, in use, full advancement of the tool into the guide is achieved when a distal portion of the nose cone abuts a proximal portion of the guide, or a laser mark at a distal portion of the tool is centred in an opening at a distal portion of the guide. a guide; and an anchor delivery tool removeably disposable within the guide, the tool including a shaft and a handle coupled to a proximal portion of the shaft, the handle including a hub and a nose cone coupled to the hub, wherein, in use, full advancement of the tool into the guide is achieved when a distal portion of the nose cone abuts a proximal portion of the guide, or a laser mark at a distal portion of the tool is centred in an opening at a distal portion of the guide.
A sole structure for an article of footwear having an upper, the sole structure when not compressed comprising: a perimeter chamber extending adjacent to a lateral sidewall and a medial sidewall of the sole structure, the perimeter chamber having an upper surface and a lower surface, and tapering from the lower surface to the upper surface in a direction away from a center of the sole structure and toward the upper at an inner side surface of the perimeter chamber; and a central chamber positioned within a central area of the sole structure, the central chamber having an upper surface and a lower surface, and tapering from the upper surface to the lower surface in a direction toward the center of the sole structure and away from the upper at an outer side surface of the central chamber that opposes the inner side surface of the perimeter chamber, the central chamber being located between the lateral sidewall and the medial sidewall. a perimeter chamber extending adjacent to a lateral sidewall and a medial sidewall of the sole structure, the perimeter chamber having an upper surface and a lower surface, and tapering from the lower surface to the upper surface in a direction away from a center of the sole structure and toward the upper at an inner side surface of the perimeter chamber; and a central chamber positioned within a central area of the sole structure, the central chamber having an upper surface and a lower surface, and tapering from the upper surface to the lower surface in a direction toward the center of the sole structure and away from the upper at an outer side surface of the central chamber that opposes the inner side surface of the perimeter chamber, the central chamber being located between the lateral sidewall and the medial sidewall.
A stand for holding at least one essentially flat information carrier, which extends in a vertical direction, having an information carrier and having a retaining base, which has a mounting with a retaining opening, through which the information carrier protrudes in the vertical direction, wherein the retaining opening is delimited by at least one retaining lip (48, 60) running transversely to the vertical direction at least in certain sections and the mounting expands in the vertical direction behind the retaining opening, characterised in that at least one pressure piston, arranged displaceably counter to a spring force in the retaining base, is provided, to which the at least one retaining lip (48, 60) is connected in a movement-transmitting manner.
Masterbatch in the form of granules comprising at least one oil and more than 3% by weight of carbon nanotubes having a mean diameter, measured by transmission electron microscopy, of between 5 and 30 nm and a specific surface area, determined by the nitrogen adsorption BET method, greater than 200 m 2 /g, said oil being chosen from: vegetable oils comprising at least 50% of triglycerides consisting of esters of fatty acids and of glycerol; synthetic oils of formula R 5 COOR 6 in which R 5 represents an aryl group or the residue of a higher, linear or branched, fatty acid having 7 to 30 carbon atoms and R 6 represents a branched or unbranched hydrocarbon chain, possibly hydroxylated, containing 3 to 30 carbon atoms; petroleum ether; linear or branched, saturated or unsaturated, C 6 to C 26 fatty alcohols; linear or branched hydrocarbons; cyclic hydrocarbons; aromatic hydrocarbons; C 8 to C 24 perfluoroalkanes; fluorosilicone oils; and mixtures thereof.