mhurhangee/ep-ind-claims huggingface dataset:
A network server system for optimizing a resource to be downloaded by a client device via a network, the network server system being operable to: - collect a plurality of data records, wherein each data record relates to an object downloaded to the client device; - generate a time series of the data records collected; - apply a filter on the time series to identify a resource download event, wherein the resource download event corresponds to downloading the resource; - determine a resource key performance indicator, KPI, for the resource download event; and - determine a correlation value for the resource KPI and a predetermined network performance metric, wherein determining the correlation value comprises determining all objects of each resource being downloaded to the client device and decomposing, for each resource, the objects of the resource into corresponding object types; wherein the determined correlation value is utilizable to perform an optimization of the resource, wherein based on the determined correlation value, a provider of a web site is able to determine whether the resource to be downloaded can be optimized. - collect a plurality of data records, wherein each data record relates to an object downloaded to the client device; - generate a time series of the data records collected; - apply a filter on the time series to identify a resource download event, wherein the resource download event corresponds to downloading the resource; - determine a resource key performance indicator, KPI, for the resource download event; and - determine a correlation value for the resource KPI and a predetermined network performance metric, wherein determining the correlation value comprises determining all objects of each resource being downloaded to the client device and decomposing, for each resource, the objects of the resource into corresponding object types;
An optical system for displaying enhanced imaging of a scene to a user when worn by the user characterized by an active optical component, wherein the active optical component includes a first plurality of light directing apertures, a second plurality of light directing apertures, and a stacked component between the first plurality of light directing apertures and the second plurality of light directing apertures, wherein the stacked component includes an optical detector having a thickness in the range from 2 to 20 microns, a processor having a thickness in the range from 2 to 20 microns, and a display having a thickness in the range from 10 to 30 microns, wherein the processor stacked between and bonded to the optical detector and the display, wherein the first plurality of light directing apertures is positioned to provide an optical input to the optical detector, wherein the optical detector is positioned to receive the optical input and convert the optical input to an electrical signal corresponding to intensity and location data, wherein the processor is connected to receive the data from the optical detector and process the data for the display, wherein the second plurality of light directing apertures is positioned to provide an optical output from the display to an eye of the user, and wherein the active optical component is sized and configured to fit within a lens frame of eyeglasses.
A propeller comprising: a hub; a first blade group having a plurality of first propeller blades, each of the first propeller blades of the first blade group being substantially identical; a second blade group having a plurality of second propeller blades, each of the second propeller blades of the second blade group being substantially identical; and a third blade group having a plurality of third propeller blades, each of the third propeller blades of the third blade group being substantially identical, the propeller blades (40a, 40b) of each group (50a, 50b, 50c) being mounted to and equidistantly spaced about the hub, wherein the first propeller blades of the first blade group have at least one geometric characteristic different from the second propeller blades of the second blade group, wherein the geometric characteristic is one of chord and twist, and the propeller blades (40a, 40b) of each group (50a, 50b, 50c) have a first end mounted to the hub, and extend radially outward from the hub such that a second end of each blade is arranged within a plane orientated perpendicularly to an axis of rotation of the hub; wherein at least one geometric characteristic of the first propeller blades of the first blade group is different from the third propeller blades of the third blade group; and characterised in that at least one geometric characteristic of the second propeller blades of the second blade group is different from the third propeller blades of the third blade group. a hub; a first blade group having a plurality of first propeller blades, each of the first propeller blades of the first blade group being substantially identical; a second blade group having a plurality of second propeller blades, each of the second propeller blades of the second blade group being substantially identical; and a third blade group having a plurality of third propeller blades, each of the third propeller blades of the third blade group being substantially identical, the propeller blades (40a, 40b) of each group (50a, 50b, 50c) being mounted to and equidistantly spaced about the hub, wherein the first propeller blades of the first blade group have at least one geometric characteristic different from the second propeller blades of the second blade group, wherein the geometric characteristic is one of chord and twist, and the propeller blades (40a, 40b) of each group (50a, 50b, 50c) have a first end mounted to the hub, and extend radially outward from the hub such that a second end of each blade is arranged within a plane orientated perpendicularly to an axis of rotation of the hub; wherein at least one geometric characteristic of the first propeller blades of the first blade group is different from the third propeller blades of the third blade group; and characterised in that at least one geometric characteristic of the second propeller blades of the second blade group is different from the third propeller blades of the third blade group.
A display method of a multimedia apparatus (100; 300), the display method comprising: acquiring exercise information of a user which includes an exercise speed; transmitting the exercise information to a server; in response to transmitting the exercise information, receiving from the server a transport stream comprising video data in which a screen is changed at a rate; and displaying the video data by processing the transport stream, wherein, if the exercise speed is in a preset range of a recommended exercise criterion which is determined based on physical information of the user, the rate is in proportion to the exercise speed, wherein, if the exercise speed is outside the preset range of the recommended exercise criterion, the rate corresponds to the recommended exercise criterion, and wherein the displaying comprises, if the exercise speed is outside the preset range of the recommended exercise criterion, displaying a guidance message for the recommended exercise criterion. acquiring exercise information of a user which includes an exercise speed; transmitting the exercise information to a server; in response to transmitting the exercise information, receiving from the server a transport stream comprising video data in which a screen is changed at a rate; and displaying the video data by processing the transport stream, wherein, if the exercise speed is in a preset range of a recommended exercise criterion which is determined based on physical information of the user, the rate is in proportion to the exercise speed, wherein, if the exercise speed is outside the preset range of the recommended exercise criterion, the rate corresponds to the recommended exercise criterion, and wherein the displaying comprises, if the exercise speed is outside the preset range of the recommended exercise criterion, displaying a guidance message for the recommended exercise criterion.
Method for transferring a superficial layer from a detachable structure comprising the following steps: a) supplying the detachable structure comprising: • a support substrate, • a detachable layer arranged on the support substrate along a main plane (x, y) and comprising a plurality of walls that are separated from one another, • a superficial layer arranged on the detachable layer along the main plane (x, y), b) applying a mechanical stress in order to detach the superficial layer from the support substrate; the transfer method being characterized in that: - step a) comprises transferring the superficial layer onto the detachable layer by assembling a donor substrate on the detachable layer and by thinning said donor substrate in order to form the superficial layer, - each wall of the detachable layer has at least one flank perpendicular to the main plane (x, y), - the mechanical stress is designed to cause the walls to bend in a direction intersecting said flank, until said walls mechanically break. a) supplying the detachable structure comprising: • a support substrate, • a detachable layer arranged on the support substrate along a main plane (x, y) and comprising a plurality of walls that are separated from one another, • a superficial layer arranged on the detachable layer along the main plane (x, y), • a support substrate, • a detachable layer arranged on the support substrate along a main plane (x, y) and comprising a plurality of walls that are separated from one another, • a superficial layer arranged on the detachable layer along the main plane (x, y), b) applying a mechanical stress in order to detach the superficial layer from the support substrate; the transfer method being characterized in that: - step a) comprises transferring the superficial layer onto the detachable layer by assembling a donor substrate on the detachable layer and by thinning said donor substrate in order to form the superficial layer, - each wall of the detachable layer has at least one flank perpendicular to the main plane (x, y), - the mechanical stress is designed to cause the walls to bend in a direction intersecting said flank, until said walls mechanically break. - step a) comprises transferring the superficial layer onto the detachable layer by assembling a donor substrate on the detachable layer and by thinning said donor substrate in order to form the superficial layer, - each wall of the detachable layer has at least one flank perpendicular to the main plane (x, y), - the mechanical stress is designed to cause the walls to bend in a direction intersecting said flank, until said walls mechanically break.
A drinks preparation machine for the preparation of a drink from a portion capsule, comprising - a housing which comprises a capsule insert opening, through which the portion capsule can be inserted; - a brewing module comprising a first brewing module part and a second brewing module part which is movable relative to the first brewing module part, wherein a brewing chamber can be formed by the first and the second brewing module part, wherein said brewing chamber, during a brewing procedure, at least partly surrounds the portion capsule located in a brewing position, and wherein the brewing module is configured to brew a brewed drink by introducing a brewing fluid into the portion capsule and to discharge the brewed drink from the portion capsule; and further comprising an electrical drive for a movement of the second brewing module part relative to the first brewing module part, as well as a control for controlling the electrical drive; characterised in that the control is configured to determine an always current position of the second brewing module part relative to the first brewing module part. - a housing which comprises a capsule insert opening, through which the portion capsule can be inserted; - a brewing module comprising a first brewing module part and a second brewing module part which is movable relative to the first brewing module part, wherein a brewing chamber can be formed by the first and the second brewing module part, wherein said brewing chamber, during a brewing procedure, at least partly surrounds the portion capsule located in a brewing position, and wherein the brewing module is configured to brew a brewed drink by introducing a brewing fluid into the portion capsule and to discharge the brewed drink from the portion capsule;
An uncured epoxy resin comprising: 15-26 wt. % of at least one epoxy resin base reactive constituent, wherein the at least one epoxy resin base reactive constituent comprises bisphenol F epoxy resin; 2-5 wt. % of diluent, wherein the diluent comprises butyl glycidyl ether; 0.5-1.5 wt. % of at least one color pigment, wherein the at least one color pigment comprises epoxy carbon black dispersion; 40-60 wt. % of at least one thermally conductive filler, wherein the at least one thermally conductive filler comprises aluminum oxide; 2.5-4.0 wt. % of at least one reactive constituent, wherein the at least one reactive constituent comprises phosphorous salt; 8.5-16 wt. % of at least one flame retardant, wherein the at least one flame retardant comprises 7-12% alumina trihydrate and 1.5-4% ammonium poly phosphate; 5-10 wt. % of at least one reactive agent, wherein the at least one reactive agent comprises polyglycol diamine; and 1-3 wt. % catalyst, wherein the at least one catalyst comprises polyamine blend. 15-26 wt. % of at least one epoxy resin base reactive constituent, wherein the at least one epoxy resin base reactive constituent comprises bisphenol F epoxy resin; 2-5 wt. % of diluent, wherein the diluent comprises butyl glycidyl ether; 0.5-1.5 wt. % of at least one color pigment, wherein the at least one color pigment comprises epoxy carbon black dispersion; 40-60 wt. % of at least one thermally conductive filler, wherein the at least one thermally conductive filler comprises aluminum oxide; 2.5-4.0 wt. % of at least one reactive constituent, wherein the at least one reactive constituent comprises phosphorous salt; 8.5-16 wt. % of at least one flame retardant, wherein the at least one flame retardant comprises 7-12% alumina trihydrate and 1.5-4% ammonium poly phosphate; 5-10 wt. % of at least one reactive agent, wherein the at least one reactive agent comprises polyglycol diamine; and 1-3 wt. % catalyst, wherein the at least one catalyst comprises polyamine blend.
A method for scalable real-time location determination of at least one object by sub-networks of interrelated neural networks comprising the steps of: defining said sub-networks of interrelated neural networks a priori; collecting training data by sampling; training said sub-networks of interrelated neural networks on said training data; testing said sub networks of interrelated neural networks on said training data; characterized in comprising the further steps of: operating said sub-networks of interrelated neural networks, engaging only one of said sub-networks to output a location of said at least one object; adaptively monitoring and tracking errors; wherein computation of each of said sub-network's outputs comprises: centering and normalizing input data; calculating a network response; and calculating a sub-network output tag position from a network output vector. defining said sub-networks of interrelated neural networks a priori; collecting training data by sampling; training said sub-networks of interrelated neural networks on said training data; testing said sub networks of interrelated neural networks on said training data; operating said sub-networks of interrelated neural networks, engaging only one of said sub-networks to output a location of said at least one object; adaptively monitoring and tracking errors; wherein computation of each of said sub-network's outputs comprises: centering and normalizing input data; calculating a network response; and calculating a sub-network output tag position from a network output vector. centering and normalizing input data; calculating a network response; and calculating a sub-network output tag position from a network output vector.
A method performed by one or more data processing apparatus, the method comprising: receiving, from a remote user device, interaction data specifying that user interaction with a content item occurred; characterised by identifying, based on the interaction data, multiple different tracking servers that are tracking interaction with the content item and that are remote to the data processing apparatus; and transmitting, based on said identifying, without requiring the user device to be redirected through each of the multiple different tracking servers, reporting data specifying the occurrence of the user interaction with the content item to at least some of the multiple different tracking servers. receiving, from a remote user device, interaction data specifying that user interaction with a content item occurred; characterised by identifying, based on the interaction data, multiple different tracking servers that are tracking interaction with the content item and that are remote to the data processing apparatus; and transmitting, based on said identifying, without requiring the user device to be redirected through each of the multiple different tracking servers, reporting data specifying the occurrence of the user interaction with the content item to at least some of the multiple different tracking servers.
Hydraulic valve, having a valve seat with a closing element which is loaded in the closing direction by a spring, which in the position raised from the valve seat releases a flow path via which pressure medium flows from the side of the spring into the valve seat or vice versa, wherein between the spring and the closing element there is arranged an abutment for the spring which centres the closing element on the valve seat and whose outer diameter (d) guided in the directions of movement of the closing element in a sliding guide is greater than the valve seat diameter, at least one passage for pressure medium, which bypasses the guide region of the spring abutment in the sliding guide, being provided in the abutment within the outer diameter (d), wherein the passage on the spring side in the abutment has a first opening which lies at least partially outside a contact region between the spring and the abutment, the passage having a second opening on the abutment and/or on the closing element on the side of the closing element, the passage passing through only the abutment or the abutment and the closing element, and the passage being a bore with an axis parallel to the direction of movement of the closing element or inclined relative thereto, characterized in that the preload of the spring can be varied via a rotary handle.
A propulsion system which uses at least one fluid reactant comprising a reaction chamber suitable for a chemical reaction to take place, a nozzle, at least one reservoir for storage of said at least one fluid reactant, and a feeding system comprising piping, wherein: - the reservoir is separated from the reaction chamber and nozzle; the system being further characterised in that - the piping comprises a piping subsystem which in turn consists of a heat exchanger, suitable for the fluid reactant to flow through and which is so arranged that: ∘ it is adjacent to the reaction chamber and nozzle, being so arranged that it cools said reaction chamber and nozzle while being heated; ∘ the fluid reactant exits it going back to the reservoir; - the reservoir is so arranged that it feeds the reaction chamber with fluid reactant in gaseous form; - the reaction chamber is suitable for being fed with fluid reactant in gaseous form and - the reservoir further comprises a separation element suitable for the separation between the gaseous and liquid phases of reactant in said reservoir. - the reservoir is separated from the reaction chamber and nozzle; the system being further characterised in that - the piping comprises a piping subsystem which in turn consists of a heat exchanger, suitable for the fluid reactant to flow through and which is so arranged that: ∘ it is adjacent to the reaction chamber and nozzle, being so arranged that it cools said reaction chamber and nozzle while being heated; ∘ the fluid reactant exits it going back to the reservoir; ∘ it is adjacent to the reaction chamber and nozzle, being so arranged that it cools said reaction chamber and nozzle while being heated; ∘ the fluid reactant exits it going back to the reservoir; - the reservoir is so arranged that it feeds the reaction chamber with fluid reactant in gaseous form; - the reaction chamber is suitable for being fed with fluid reactant in gaseous form and - the reservoir further comprises a separation element suitable for the separation between the gaseous and liquid phases of reactant in said reservoir.
An anti-VIM-type carbapenemase antibody, wherein the anti-VIM-type carbapenemase antibody is: an antibody 1AF6 comprising a light chain variable region and a heavy chain variable region, wherein the light chain variable region comprises complementary-determining region 1 shown in SEQ ID NO: 1, CDR2 shown in SEQ ID NO: 2, and CDR3 shown in SEQ ID NO: 3; the heavy chain variable region comprises CDR1 shown in SEQ ID NO: 4, CDR2 shown in SEQ ID NO: 5, and CDR3 shown in SEQ ID NO: 6; the light chain variable region has an amino acid sequence shown in SEQ ID NO: 7, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 9; or, an antibody 1EF3 comprising a light chain variable region and a heavy chain variable region, wherein the light chain variable region comprises CDR1 shown in SEQ ID NO: 11, CDR2 shown in SEQ ID NO: 12, and CDR3 shown in SEQ ID NO: 13; the heavy chain variable region comprises CDR1 shown in SEQ ID NO: 14, CDR2 shown in SEQ ID NO: 15, and CDR3 shown in SEQ ID NO: 16, the light chain variable region has an amino acid sequence shown in SEQ ID NO: 17, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 19.
A fuel cell stack comprising a plurality of fuel cells, wherein the fuel cell comprises a membrane-electrode assembly having an anode electrode and a cathode electrode; gas diffusion layers each disposed on both sides of the membrane-electrode assembly; a first separating plate having a first surface facing the anode electrode side so as to be in contact with the gas diffusion layer and a second surface opposite to the first surface; and a second separating plate having a first surface facing the cathode electrode side so as to be in contact with the gas diffusion layer and a second surface opposite to the first surface, and at least one of the second surface of the first separating plate and the second surface of the second separating plate is provided with one or more protrusions protruding to the outside, wherein two adjacent fuel cells are stacked so that the second surface of the first separating plate of any one fuel cell and the second surface of the second separating plate of the remaining fuel cell are opposed to each other, and the second surface of the first separating plate and the second surface of the second separating plate are spaced apart from each other by the protrusions, where the cooling water is supplied to the space therebetween, wherein the first separating plate is provided with one or more first protrusions protruding outwardly on the second surface, and the second separating plate is provided with one or more second protrusions protruding outwardly on the second surface so as to be in contact with the first protrusions, wherein the first separating plate has a reaction zone comprising a plurality of first channels, through which a fuel gas flows, on the first surface and comprises a second channel provided between two adjacent first channels on the second surface such that the cooling water flows, wherein the plurality of first protrusions are provided at the edge of the first separating plate so as not to be located in the reaction zone, and wherein upon stacking the fuel cells, the first projections and the second projections are provided to be in contact with each other in a 1:1 corresponding structure.