mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: processing circuitry to send instruction execution information indicative of a sequence of instructions executed by the processing circuitry, said sequence including a branch-future instruction that indicates an identified instruction following said branch-future instruction within said sequence, execution of the branch-future instruction being such that said identified instruction, when encountered in said sequence by the processing circuitry, causes the processing circuitry to branch to a target address identified by the branch-future instruction; an input interface to receive the instruction execution information from the processing circuitry; trace generation circuitry to generate from the instruction execution information a trace stream comprising a plurality of trace elements indicative of execution by the processing circuitry of predetermined instructions within said sequence; and a branch control cache (55; 75) to store branch control information derived from said branch-future instruction; the trace generation circuitry being arranged to detect, based on the branch control information stored in the branch control cache (55; 75) and the instruction execution information from the processing circuitry, when the identified instruction has been encountered by the processing circuitry, and to then issue within the trace stream a trace element to indicate that a branch to the target address has occurred. processing circuitry to send instruction execution information indicative of a sequence of instructions executed by the processing circuitry, said sequence including a branch-future instruction that indicates an identified instruction following said branch-future instruction within said sequence, execution of the branch-future instruction being such that said identified instruction, when encountered in said sequence by the processing circuitry, causes the processing circuitry to branch to a target address identified by the branch-future instruction; an input interface to receive the instruction execution information from the processing circuitry; trace generation circuitry to generate from the instruction execution information a trace stream comprising a plurality of trace elements indicative of execution by the processing circuitry of predetermined instructions within said sequence; and a branch control cache (55; 75) to store branch control information derived from said branch-future instruction; the trace generation circuitry being arranged to detect, based on the branch control information stored in the branch control cache (55; 75) and the instruction execution information from the processing circuitry, when the identified instruction has been encountered by the processing circuitry, and to then issue within the trace stream a trace element to indicate that a branch to the target address has occurred.
Device for artificially producing rain, snow or icing conditions, wherein it is a wind tunnel, climate chamber or icing wind tunnel, comprising a device for producing water droplets of a specific size in a device for artificially producing rain, snow or icing conditions, having a plurality of spray nozzles arranged in a distributed manner on a retaining frame in the flow cross-section with preferably pressurized water supply lines and preferably also gas supply lines, characterised in that a plurality of nozzle carriers are provided on the retaining frame, each having a static main body and at least one movable body preferably coupled via a gear unit, and in that at least one spray nozzle is seated on the movable body.
A method for calorimetry, the method comprising: a) flowing a first fluid through a co-flow reactor microchannel (100, 838) having plural inlets and an outlet, the first fluid flowing through each of the inlets (102, 104); b) while flowing the first fluid, measuring transmission of light through a Nano Hole Array sensor (210, 810) to obtain a baseline extraordinary optical transmission measurement; c) flowing the first fluid and a second fluid through the co-flow reactor microchannel such that a reaction occurs at least at a diffusion interface of the fluids, the first fluid flowing through a first of the inlets and the second fluid flowing through a second of the inlets; d) while flowing the first and second fluids, measuring transmission of light through the NHA sensor to obtain a reaction EOT measurement; e) calculating a calorimetry measurement as a function of the baseline EOT measurement and the reaction EOT measurement, the calorimetry measurement being indicative of energy released during the reaction; characterized in that between b) and c) the method further comprises: f) stopping the flow of the first fluid; and g) emptying the co-flow reactor microchannel of the first fluid after stopping the flow of the first fluid. a) flowing a first fluid through a co-flow reactor microchannel (100, 838) having plural inlets and an outlet, the first fluid flowing through each of the inlets (102, 104); b) while flowing the first fluid, measuring transmission of light through a Nano Hole Array sensor (210, 810) to obtain a baseline extraordinary optical transmission measurement; c) flowing the first fluid and a second fluid through the co-flow reactor microchannel such that a reaction occurs at least at a diffusion interface of the fluids, the first fluid flowing through a first of the inlets and the second fluid flowing through a second of the inlets; d) while flowing the first and second fluids, measuring transmission of light through the NHA sensor to obtain a reaction EOT measurement; e) calculating a calorimetry measurement as a function of the baseline EOT measurement and the reaction EOT measurement, the calorimetry measurement being indicative of energy released during the reaction; f) stopping the flow of the first fluid; and g) emptying the co-flow reactor microchannel of the first fluid after stopping the flow of the first fluid.
A light pipe structure comprising: a plurality of light pipes, the light pipes having a lower vertical body portion, an upper horizontal body portion, and a central body portion between the lower vertical body portion and the upper horizontal body portion; and a bracket that connects and supports the light pipes, the bracket being planar and having broad support regions that connect to a back portion of the light pipes, the bracket including at least one narrow bridging region between the broad support regions, the broad support regions being broader than the at least one narrow bridging region in a vertical dimension; wherein each narrow bridging region has a top surface and a bottom surface, each having an inward facing concave shape. a plurality of light pipes, the light pipes having a lower vertical body portion, an upper horizontal body portion, and a central body portion between the lower vertical body portion and the upper horizontal body portion; and a bracket that connects and supports the light pipes, the bracket being planar and having broad support regions that connect to a back portion of the light pipes, the bracket including at least one narrow bridging region between the broad support regions, the broad support regions being broader than the at least one narrow bridging region in a vertical dimension; wherein each narrow bridging region has a top surface and a bottom surface, each having an inward facing concave shape.
A headphone, comprising a gyroscope (140, 240, 340, 440) and a transmission assembly (130, 230, 330, 430), wherein the gyroscope (140, 240, 340, 440) is configured to sense a bone conduction vibration and provide a quadrature error signal for reflecting the bone conduction vibration; the transmission assembly (130, 230, 330, 430) is configured to act directly or indirectly on the gyroscope (140, 240, 340, 440) or an inertial measurement unit comprising the gyroscope (140, 240, 340, 440), the transmission assembly (130, 230, 330, 430) has at least one end fixed to a shell (110, 210, 310, 410) of the headphone (100, 200, 300, 400) and at least one end connected to, abutting against, or spaced a certain distance from the gyroscope (140, 240, 340, 440) or the IMU comprising the gyroscope (140, 240, 340, 440), the transmission assembly (130, 230, 330, 430) is further configured to transmit the bone conduction vibration to the gyroscope (140, 240, 340, 440) to make the gyroscope (140, 240, 340, 440) strain, thereby causing the quadrature error signal of the gyroscope (140, 240, 340, 440) to change; and wherein the transmission assembly includes transmission bars, the connection of the transmission bars to the shell (110, 210, 310, 410) defining sensing positions; wherein when the headphone (100, 200, 300, 400) is worn, the sensing positions are located within the wearer's ear canal in contact with the wall of the ear canal, and the sensing positions are adapted to receive bone conduction vibrations generated by the wearer's speech.
Roller suitable for wiping a sponge board over a washing bucket, with an axle or axle stubs, which is designed in such a way that it can be rotatably mounted in bearings at or on the edge of a washing bucket and then spans the clear width of the washing bucket, wherein the roller is formed as a hollow body of half-shells with press or snap-in connections and has a profiled outer circumference with a plurality of openings, the openings are situated at least partially offset from one another and in that the openings are at least partially enclosed by raised webs, characterized in that in that the roller can be telescoped via an internal telescoping device and a separating area wherein the half-shells of the roller can be pulled apart variably at length over a first length and a second length at the separating area and can be latched in a desired extended state with the inner telescoping device, wherein the inner telescoping device also has a profiled outer circumference with a plurality of openings.
A method of wireless communication at a user equipment, UE,, comprising: receiving, from a base station, on a physical downlink control channel, PDCCH, during a first PDCCH monitoring occasion, a first downlink control information, DCI, that schedules a physical downlink shared channel, PDSCH, for each of at least two component carriers, wherein the first DCI includes a counter downlink assignment index, DAI, that indicates a number of scheduled PDSCHs across the at least two component carriers up to a point that the first DCI was received, and a total DAI indicating a number of scheduled PDSCHs across the at least two component carriers; updating, with reference to rules configured in a codebook, bundled feedback information, based on the counter DAI and the total DAI in the received first DCI, and in response to receipt of the scheduled PDSCHs by the UE; and transmitting, to the base station, the bundled feedback information included in a physical uplink control channel, PUCCH, wherein the bundled feedback information is configured to include a position for hybrid automatic repeat request, HARQ,-Acknowledgement, ACK, bits corresponding to the PDSCH for each of the at least two component carriers. receiving, from a base station, on a physical downlink control channel, PDCCH, during a first PDCCH monitoring occasion, a first downlink control information, DCI, that schedules a physical downlink shared channel, PDSCH, for each of at least two component carriers, wherein the first DCI includes a counter downlink assignment index, DAI, that indicates a number of scheduled PDSCHs across the at least two component carriers up to a point that the first DCI was received, and a total DAI indicating a number of scheduled PDSCHs across the at least two component carriers; updating, with reference to rules configured in a codebook, bundled feedback information, based on the counter DAI and the total DAI in the received first DCI, and in response to receipt of the scheduled PDSCHs by the UE; and transmitting, to the base station, the bundled feedback information included in a physical uplink control channel, PUCCH, wherein the bundled feedback information is configured to include a position for hybrid automatic repeat request, HARQ,-Acknowledgement, ACK, bits corresponding to the PDSCH for each of the at least two component carriers.
A thermal printer comprising: first printing means having a first thermal print head as a first one and a first platen roller as a second one of two members; second printing means having a second thermal print head as a first one and a second platen roller as a second one of two members; a printer frame on which one member of the first printing means (11, 21) and one member of the second printing means (12, 22) are mounted; a first arm on which the other member of the first printing means (11, 21) is mounted and which is arranged to move between a first closed position where the first platen roller is pressed to the first thermal print head, and a first open position where the first platen roller is separated from the first thermal print head; and a second arm on which the other member of the second printing means (12, 22) is mounted and which is arranged to move between a second closed position where the second thermal print head is pressed to the second platen roller and a second open position where the second thermal print head is separated from the second platen roller characterized in that the second arm is linked to the first arm such as to move from the second open position to the second closed position when the first arm moves from the first open position to the first closed position, and to move from the second closed position to the second open position when the first arm moves from the first closed position to the first open position. first printing means having a first thermal print head as a first one and a first platen roller as a second one of two members; second printing means having a second thermal print head as a first one and a second platen roller as a second one of two members; a printer frame on which one member of the first printing means (11, 21) and one member of the second printing means (12, 22) are mounted; a first arm on which the other member of the first printing means (11, 21) is mounted and which is arranged to move between a first closed position where the first platen roller is pressed to the first thermal print head, and a first open position where the first platen roller is separated from the first thermal print head; and a second arm on which the other member of the second printing means (12, 22) is mounted and which is arranged to move between a second closed position where the second thermal print head is pressed to the second platen roller and a second open position where the second thermal print head is separated from the second platen roller characterized in that the second arm is linked to the first arm such as to move from the second open position to the second closed position when the first arm moves from the first open position to the first closed position, and to move from the second closed position to the second open position when the first arm moves from the first closed position to the first open position.
A positioning system for aligning first and second coupling elements (102, 104) of adjacent sections (106, 108, 136) of a gas turbine, the gas turbine having an axial direction, the system comprising: a base; a pair of lifting jacks supported by the base for adjusting a vertical position of the first coupling element relative to the second coupling element; a coupling element support for supporting the first coupling element and supported by the pair of lifting jacks on the base; characterised in that an adjusting element configured to adjust a position of the first coupling element relative to the second coupling element in the axial direction and a lateral direction substantially perpendicular to the axial direction is positioned between each lifting jack and the coupling element support, wherein each adjusting element includes: a first slide member coupled to the coupling element support; a second slide member coupled to a respective lifting jack and in sliding engagement with the first slide member; a movement restricting member coupled to the first sliding member and limiting movement of the first and second sliding members (160, 162) relative to one another in the axial direction and the lateral direction; and an adjustable positioning member interacting with the movement restricting member to position the first sliding member relative to the second sliding member to adjust a position of the first coupling element relative to the second coupling element in at least one of the axial direction and the lateral direction. a base; a pair of lifting jacks supported by the base for adjusting a vertical position of the first coupling element relative to the second coupling element; a coupling element support for supporting the first coupling element and supported by the pair of lifting jacks on the base; characterised in that an adjusting element configured to adjust a position of the first coupling element relative to the second coupling element in the axial direction and a lateral direction substantially perpendicular to the axial direction is positioned between each lifting jack and the coupling element support, a first slide member coupled to the coupling element support; a second slide member coupled to a respective lifting jack and in sliding engagement with the first slide member; a movement restricting member coupled to the first sliding member and limiting movement of the first and second sliding members (160, 162) relative to one another in the axial direction and the lateral direction; and an adjustable positioning member interacting with the movement restricting member to position the first sliding member relative to the second sliding member to adjust a position of the first coupling element relative to the second coupling element in at least one of the axial direction and the lateral direction.
A method for in vitro maturation of at least one immature dendritic cell, comprising stimulating said immature dendritic cell with TNFα, IL-1β, IFNγ, a TLR7/8 agonist and prostaglandin E2.
Filter for the filtration of a liquid, comprising or composed of a support element made of a porous ceramic material, said element having a tubular or parallelepiped shape defined by an external surface and comprising, in its internal portion, a set of adjacent channels having axes parallel to one another and separated from one another by walls of said porous inorganic material, wherein: - at least some of said channels are covered on their internal surface with a porous separating membrane layer and/or - at least a portion of said outer surface is covered with a porous separating membrane layer; said filter being characterized in that: - said layer is made of a material essentially composed of sintered grains of silicon carbide (SiC), the SiC representing more than 97% of the weight of the material constituting said layer, - the weight content of elemental oxygen of the separating membrane layer, determined by inert gas fusion, is less than 0.5%, - the porosity and the median pore diameter of the separating membrane layer, measured by analyzing negatives obtained by scanning electron microscope, are respectively between 30 and 70% and between 10 nanometers and 5 micrometers. - at least some of said channels are covered on their internal surface with a porous separating membrane layer and/or - at least a portion of said outer surface is covered with a porous separating membrane layer; - said layer is made of a material essentially composed of sintered grains of silicon carbide (SiC), the SiC representing more than 97% of the weight of the material constituting said layer, - the weight content of elemental oxygen of the separating membrane layer, determined by inert gas fusion, is less than 0.5%, - the porosity and the median pore diameter of the separating membrane layer, measured by analyzing negatives obtained by scanning electron microscope, are respectively between 30 and 70% and between 10 nanometers and 5 micrometers.
Self-watering system for a potted plant comprising a liquid container and an insert with an in use position against the potted plant pointing upper part, which extends at least partially through an opening in the pot bottom, wherein: - the self-watering system includes at least one to the upper part of the insert attached wick for transporting fluid from the liquid container; - the upper part insert is tapered; - the wick extends along the exterior wall of the insert's upper part and lower part; characterized in that the insert is hollow, and in that the insert is either integrated with the liquid container or stands on the bottom of the liquid container, so that when the insert stands on the bottom of the liquid container 2, the diameter of the bottom of the insert is approximately equal to the inner diameter of the liquid container; or when the insert is integrated with the liquid container, the lower part of the insert is adapted to the liquid container so that the insert is centered therein. - the self-watering system includes at least one to the upper part of the insert attached wick for transporting fluid from the liquid container; - the upper part insert is tapered; - the wick extends along the exterior wall of the insert's upper part and lower part;
A roll cutter with a circular fixed or rotating knife comprising a device for removing material residues, in particular tissue and the like, from cores in order to make possible reuse thereof in the same manner as new and unused cores a number of times, such as the carriers of material webs, in particular tissue, wherein cores with material residues in the form of a number of material turns are processed using means for lifting and tearing of the material residues for subsequent simple removal thereof, characterised in that said means for lifting and tearing of the material residues are in the form of a hook disposed on both sides of the knife, wherein the hook may be lifted or lowered with the knife and is also moveable independently of the knife, wherein the hook is pivotally mounted about its opposite end in relation to its tip, wherein the hook may be urged towards the material residues in a position slightly inside an end of the core and displaced axially along the core from said position out towards and past the opposite end of the core, wherein the hook is urged against the material residues for penetration down into them towards the casing surface of the core under lifting and tearing of the material residues on the core during displacement.
A method for diagnosing Non-Small Cell Lung Cancer from a sample comprising serum and/or plasma extracted from a subject, comprising the steps, performed in vitro, of: (i) testing the sample for the presence of a panel of biomarkers specific for Non-Small Cell Lung Cancer; (ii) determining whether the subject has Non-Small Cell Lung Cancer based on the detection of said biomarkers; characterised in that the panel of biomarkers consists of the autoantibodies to antigens XAGE1D, LRRFIP2, MAGEA10, GAGE2C, STAT1, ZNRD1 and RAD23B. (i) testing the sample for the presence of a panel of biomarkers specific for Non-Small Cell Lung Cancer; (ii) determining whether the subject has Non-Small Cell Lung Cancer based on the detection of said biomarkers;