mhurhangee/ep-ind-claims huggingface dataset:
A door stop assembly arranged for damping the mechanical impact of a closing door, the door stop assembly comprising a. a plate having opposing major surfaces (15, 16) interconnected by a plate sidewall, the plate being provided with an elongated channel delimited by opposing channel sidewalls (19a, 19b) extending in an elongation direction up to a first opening (20a, 20b) in the sidewall of the plate, and wherein the channel forms a second opening in one of the major surfaces (15, 16) of the plate, the second opening extending in the elongation direction, and b. a bumper strip inserted in the channel through the first opening (20a, 20b) and protruding from the channel through the second opening, characterized in that the door stop assembly further comprises an occluding device (3a, 3b) for maintaining the bumper strip in the channel by hindering the passage of the bumper strip through the first opening (20a, 20b) back out of the channel, the occluding device (3a,3b) comprising an insertion part configured to be inserted into the channel through the first opening (20a, 20b) of the channel, wherein the insertion part comprises a main body extending in a length direction from a bumper end configured to lie adjacent to the bumper strip in the channel, up to a head end configured to lie adjacent to the first opening (20a, 20b) of the channel, and wherein the insertion part further comprises fixation means provided on the main body, wherein the fixation means are arranged to fixate the position of the occluding device (3a, 3b) in the channel after insertion of the occluding device (3a, 3b) in the channel. a. a plate having opposing major surfaces (15, 16) interconnected by a plate sidewall, the plate being provided with an elongated channel delimited by opposing channel sidewalls (19a, 19b) extending in an elongation direction up to a first opening (20a, 20b) in the sidewall of the plate, and wherein the channel forms a second opening in one of the major surfaces (15, 16) of the plate, the second opening extending in the elongation direction, and b. a bumper strip inserted in the channel through the first opening (20a, 20b) and protruding from the channel through the second opening,
A computer-implemented method comprising: identifying access metrics associated with each of a plurality of data elements invoked by a workload during execution on a platform having a first memory and a second memory, the second memory having a lower latency, coherency and/or higher bandwidth capability than the first memory, wherein the workload is associated with one or more programs of executable code; wherein identifying the access metrics comprises measuring a number of access attempts per unit of time associated with the plurality of data elements; the method further comprising: when the number of access attempts per unit of time is higher than a threshold, reallocating said first one of the plurality of data elements from the first memory to the second memory when the second memory has space for the first one of the plurality of data elements; and modifying said executable code to generate a new or modified binary utilizing the second memory during all or part of the execution of the workload. identifying access metrics associated with each of a plurality of data elements invoked by a workload during execution on a platform having a first memory and a second memory, the second memory having a lower latency, coherency and/or higher bandwidth capability than the first memory, wherein the workload is associated with one or more programs of executable code; wherein identifying the access metrics comprises measuring a number of access attempts per unit of time associated with the plurality of data elements; the method further comprising: when the number of access attempts per unit of time is higher than a threshold, reallocating said first one of the plurality of data elements from the first memory to the second memory when the second memory has space for the first one of the plurality of data elements; and modifying said executable code to generate a new or modified binary utilizing the second memory during all or part of the execution of the workload. when the number of access attempts per unit of time is higher than a threshold, reallocating said first one of the plurality of data elements from the first memory to the second memory when the second memory has space for the first one of the plurality of data elements; and modifying said executable code to generate a new or modified binary utilizing the second memory during all or part of the execution of the workload.
Heat exchanger (120, 120') for a refrigerant fluid loop, the heat exchanger (120, 120') comprising at least one inlet configured to allow a refrigerant fluid to enter in the heat exchanger (120, 120') and at least one outlet configured to allow the refrigerant fluid to exit the heat exchanger (120, 120'), the heat exchanger (120, 120') comprising at least one filter arranged at the outlet of the heat exchanger (120, 120'), wherein the filter is brazed to the outlet, and in that the filter is adapted to filter the refrigerant fluid that exits the heat exchanger (120, 120'), wherein the filter comprises at least one brazing ring which is brazed to the outlet of the heat exchanger (120, 120') and at least one meshed element configured to filter the refrigerant fluid, characterized in that the filter comprises at least one smooth band interposed between the brazing ring and the meshed element.
A solar energy collector system comprising: at least one base; and at least one parabolic trough collector carried by said at least one base for reflecting sunlight to a longitudinal focal line spaced away from said at least one parabolic trough collector, said at least one parabolic trough collector comprising: a center parabolic collecting section extending horizontally with respect to said at least one base, opposing end parabolic collecting sections (24, 26) coupled to said center parabolic collecting section, with each end parabolic collecting section angled downwards from the center parabolic collecting section, and a conduit positioned along the focal line to receive the sunlight reflected by the parabolic collector. at least one base; and at least one parabolic trough collector carried by said at least one base for reflecting sunlight to a longitudinal focal line spaced away from said at least one parabolic trough collector, said at least one parabolic trough collector comprising: a center parabolic collecting section extending horizontally with respect to said at least one base, opposing end parabolic collecting sections (24, 26) coupled to said center parabolic collecting section, with each end parabolic collecting section angled downwards from the center parabolic collecting section, and a conduit positioned along the focal line to receive the sunlight reflected by the parabolic collector. a center parabolic collecting section extending horizontally with respect to said at least one base, opposing end parabolic collecting sections (24, 26) coupled to said center parabolic collecting section, with each end parabolic collecting section angled downwards from the center parabolic collecting section, and a conduit positioned along the focal line to receive the sunlight reflected by the parabolic collector.
A method of generating video frames for a cloud-based video game, the method comprising: obtaining, via a communications network, a plurality of video frames of a video game rendered at a cloud device; obtaining a player input received at an input device, the input device being used to play the video game, the player input being received in response to displaying of at least one of the obtained video frames; inputting the player input and at least one of the obtained video frames to a prediction model; and synthesizing, by the prediction model, a subsequent video frame for output at a display, and outputting the video frame at the display, characterised in that the prediction model comprises a machine learning model trained to synthesize at least the subsequent video frame based on the obtained video frames and the player input, the machine learning model being trained with training data obtained from previously rendered video frames of video game sessions and corresponding player inputs received in response to the output of those frames to minimise a discrepancy between subsequent frames synthesised by the machine learning model and actual subsequent frames of the training data. obtaining, via a communications network, a plurality of video frames of a video game rendered at a cloud device; obtaining a player input received at an input device, the input device being used to play the video game, the player input being received in response to displaying of at least one of the obtained video frames; inputting the player input and at least one of the obtained video frames to a prediction model; and synthesizing, by the prediction model, a subsequent video frame for output at a display, and outputting the video frame at the display, characterised in that the prediction model comprises a machine learning model trained to synthesize at least the subsequent video frame based on the obtained video frames and the player input, the machine learning model being trained with training data obtained from previously rendered video frames of video game sessions and corresponding player inputs received in response to the output of those frames to minimise a discrepancy between subsequent frames synthesised by the machine learning model and actual subsequent frames of the training data.
A method comprising: receiving, by a database comprising a columnar data store storing data in a column-oriented structure, a query of spatial data; mapping, by at least one data processor, a spatial data set corresponding to the received query to physical storage in the database using a space-filling curve, wherein the space-filling curve comprises a Hilbert curve and wherein the mapping further comprises: - determining, by at least one data processor, a Hilbert order providing that each point in the spatial data set has a different Hilbert distance based on spatial proximity, - sorting, by at least one data processor, the points in the spatial data set according to their Hilbert distance and providing dictionaries (D x, D y) encoding coordinate values of the points to provide value IDs for the coordinates, and - generating, by at least one data processor, a data dictionary (D hd) in which the Hilbert distances are listed in an increasing order; compacting, by at least one data processor, the spatial data set by generating a bit compressed vector (I x, I y) for each axis of the spatial data set listing the value IDs of the points in the same order as in the data dictionary (D hd); and retrieving, by at least one data processor, data from the database responsive to the query using the compacted spatial data set. receiving, by a database comprising a columnar data store storing data in a column-oriented structure, a query of spatial data; mapping, by at least one data processor, a spatial data set corresponding to the received query to physical storage in the database using a space-filling curve, wherein the space-filling curve comprises a Hilbert curve and wherein the mapping further comprises: - determining, by at least one data processor, a Hilbert order providing that each point in the spatial data set has a different Hilbert distance based on spatial proximity, - sorting, by at least one data processor, the points in the spatial data set according to their Hilbert distance and providing dictionaries (D x, D y) encoding coordinate values of the points to provide value IDs for the coordinates, and - generating, by at least one data processor, a data dictionary (D hd) in which the Hilbert distances are listed in an increasing order; - determining, by at least one data processor, a Hilbert order providing that each point in the spatial data set has a different Hilbert distance based on spatial proximity, - sorting, by at least one data processor, the points in the spatial data set according to their Hilbert distance and providing dictionaries (D x, D y) encoding coordinate values of the points to provide value IDs for the coordinates, and - generating, by at least one data processor, a data dictionary (D hd) in which the Hilbert distances are listed in an increasing order; compacting, by at least one data processor, the spatial data set by generating a bit compressed vector (I x, I y) for each axis of the spatial data set listing the value IDs of the points in the same order as in the data dictionary (D hd); and retrieving, by at least one data processor, data from the database responsive to the query using the compacted spatial data set.
A packet transmission control device configured to control transmission of packets to a plurality of mobile stations, the device comprising: an average transmission rate obtaining unit configured to obtain an average transmission rate of the packets to be transmitted to each of the plurality of mobile stations; a minimum guaranteed transmission rate obtaining unit configured to obtain a minimum guaranteed transmission rate of the packets to be transmitted to each of the plurality of mobile stations; a scheduling frequency obtaining unit configured to obtain a scheduling frequency indicating a frequency in which the packets have been scheduled to each of the plurality of mobile stations; a capability information obtaining unit configured to obtain capability information on each of the plurality of mobile stations; and a scheduling unit configured to schedule the packets to each of the plurality of mobile stations, based on the average transmission rate, the minimum guaranteed transmission rate, the scheduling frequency and the capability information. an average transmission rate obtaining unit configured to obtain an average transmission rate of the packets to be transmitted to each of the plurality of mobile stations; a minimum guaranteed transmission rate obtaining unit configured to obtain a minimum guaranteed transmission rate of the packets to be transmitted to each of the plurality of mobile stations; a scheduling frequency obtaining unit configured to obtain a scheduling frequency indicating a frequency in which the packets have been scheduled to each of the plurality of mobile stations; a capability information obtaining unit configured to obtain capability information on each of the plurality of mobile stations; and a scheduling unit configured to schedule the packets to each of the plurality of mobile stations, based on the average transmission rate, the minimum guaranteed transmission rate, the scheduling frequency and the capability information.
A display device, comprising: a substrate; a driving circuit disposed on the substrate; a first conductive layer disposed on the driving circuit; at least one of light emitting units disposed on the first conductive layer and electrically connected to the driving circuit, wherein each of the light emitting units comprises a first electrode disposed on the first conductive layer, a first semiconductor layer disposed on the first electrode, a second semiconductor layer disposed on the first semiconductor layer, and a second electrode disposed on the second semiconductor layer; and a second conductive layer disposed on at least one of the light emitting units; wherein the second conductive layer has a first surface corresponding to at least one of the light emitting units and a second surface corresponding to a region outside of the first conductive layer; characterized in that a roughness of the first surface is greater than a roughness of at least a part of the second surface. a substrate; a driving circuit disposed on the substrate; a first conductive layer disposed on the driving circuit; at least one of light emitting units disposed on the first conductive layer and electrically connected to the driving circuit, wherein each of the light emitting units comprises a first electrode disposed on the first conductive layer, a first semiconductor layer disposed on the first electrode, a second semiconductor layer disposed on the first semiconductor layer, and a second electrode disposed on the second semiconductor layer; and a second conductive layer disposed on at least one of the light emitting units; wherein the second conductive layer has a first surface corresponding to at least one of the light emitting units and a second surface corresponding to a region outside of the first conductive layer; characterized in that a roughness of the first surface is greater than a roughness of at least a part of the second surface.
A formulation of extracellular vesicles for use in a method of preventing or treating cutaneous injury in a subject in need thereof, the method comprising administrating to the subject a therapeutically or prophylactically effective dose of extracellular vesicles, wherein said extracellular vesicles are obtained from cardiospheres, cardiosphere-derived cells (CDCs) or cardiac stem cells including cardiac progenitor cells.
A viral vector comprising at least one exogenous antigen encoding sequence of at least one pathogen infecting felines, wherein the at least one exogenous antigen encoding sequence is inserted in at least one insertion locus, wherein the at least one exogenous antigen encoding sequence is a hemagglutinin protein ("H") encoding sequence and the hemagglutinin protein ("H") encoding sequence comprises a nucleic acid sequence which is at least 90% identical to SEQ ID NO:4; or wherein the at least one exogenous antigen encoding sequence is a hemagglutinin protein ("H") encoding sequence and the hemagglutinin protein ("H") encoding sequence comprises a nucleic acid sequence encoding a polypeptide having an amino acid sequence which is at least 90% identical to SEQ ID NO:6, and wherein the at least one pathogen infecting felines is feline paramyxovirus. wherein the at least one exogenous antigen encoding sequence is inserted in at least one insertion locus, wherein the at least one exogenous antigen encoding sequence is a hemagglutinin protein ("H") encoding sequence and the hemagglutinin protein ("H") encoding sequence comprises a nucleic acid sequence which is at least 90% identical to SEQ ID NO:4; or wherein the at least one exogenous antigen encoding sequence is a hemagglutinin protein ("H") encoding sequence and the hemagglutinin protein ("H") encoding sequence comprises a nucleic acid sequence encoding a polypeptide having an amino acid sequence which is at least 90% identical to SEQ ID NO:6, and wherein the at least one pathogen infecting felines is feline paramyxovirus.
A soft-arm robot comprising: a support body; a plurality of soft arms fixed to one side of said body and extending from said side, each arm being elongated along a central axis and having an outer periphery; first arm actuating means (4a, 5a, 6) comprising for each arm at least one substantially inextensible first cable extending substantially parallel with said central axis, eccentrically displaced from the same axis towards said outer periphery, and first drive means (4a, 5a) for exerting a traction and release force on said cable, whereby in response to said actuation force by said first actuating means said arm bends itself in a substantially coil-like configuration or to resume a substantially straight arrangement; second arm actuating means (4b, 5b, 7) comprising for each arm a substantially inextensible second cable extending coaxially with said central axis, and second drive means (4b, 5b) for exerting a traction and release force on said second cable, whereby in response to said actuation force by said second actuating means said arm becomes shorter or longer; and control means for selectively controlling said first and second actuating means, whereby the arms selectively grip an entity by bending around it and make the robot locomote by synchronized lengthening and shortening of said arms.
Actuating device for actuating a mechanical adjustment element of an annuloplasty ring for repairing atrioventricular cardiac valves, said mechanical adjustment element allowing to modify a functional shape and/or a functional size of a surgical implant when actuated, said actuating device comprises: - transmission means linked with one end to mechanical adjustment element and able to move the mechanical adjustment element when said transmission means are actuated, - connecting means mounted on the other end of the transmission means and able to actuate the transmission means, said connecting means comprising coupling means, - and driving means comprising complementary shaped coupling means, said driving means being designed to be removable and fitted into the coupling means for moving the mechanical adjustment element by driving into movement a movable part of the connecting means, - characterized in that the transmission means comprise at least one cable linking the mechanical adjustment element to the connecting means, - and wherein the connecting means comprise a housing frame which includes a pulley for winding up and/or unwinding the cable and setting into movement the mechanical adjustment element when said pulley is driven into rotation. - transmission means linked with one end to mechanical adjustment element and able to move the mechanical adjustment element when said transmission means are actuated, - connecting means mounted on the other end of the transmission means and able to actuate the transmission means, said connecting means comprising coupling means, - and driving means comprising complementary shaped coupling means, said driving means being designed to be removable and fitted into the coupling means for moving the mechanical adjustment element by driving into movement a movable part of the connecting means, - characterized in that the transmission means comprise at least one cable linking the mechanical adjustment element to the connecting means, - and wherein the connecting means comprise a housing frame which includes a pulley for winding up and/or unwinding the cable and setting into movement the mechanical adjustment element when said pulley is driven into rotation.
A fluoropolymer comprising 39.5 - 57.0 mol% TFE, 42.0 - 57.5 mol% VDF and 1.0 - 3.0 mol% fluorinated ether, wherein the fluoropolymer is melt processable and has a melt viscosity at 100 s -1 as measured according to ASTM D-3835 at 260°C using a capillary rheometer at shear rates from 10 to 3000 s -1 of from 100 to 2000 Pa*s (1 to 20 kP).