mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing a remote network diagnostic on one or more mobile devices (110A-110N), the method being performed by a diagnostic platform and comprising: selecting one or more mobile devices (110A-110N) to perform a set of tests to evaluate performance of a wireless network; install, using remote command and control instructions from the diagnostic platform , a diagnostic application on the one or more mobile devices (110A-110N), wherein the diagnostic application, once installed on the one or more mobile devices (110A-110N), performs the set of tests to evaluate the network performance; and receive, at the diagnostic platform , messages from the diagnostic application that include captured data, wherein the captured data includes device specific information identifying hardware or software configurations of the one or more mobile devices (110A-110N), and wherein the captured data includes data about the network performance in response to the set of tests used by the diagnostic application to evaluate the network performance of each of the one or more mobile devices (110A-110N) moving about a geographic region; and generating analytics based on the captured data, wherein the analytics identify optimal hardware configurations, wherein the optimal hardware configurations include a best performance while optimizing one or more configurations for a mobile device's chipset in light of the network performance of the wireless network. selecting one or more mobile devices (110A-110N) to perform a set of tests to evaluate performance of a wireless network; install, using remote command and control instructions from the diagnostic platform , a diagnostic application on the one or more mobile devices (110A-110N), wherein the diagnostic application, once installed on the one or more mobile devices (110A-110N), performs the set of tests to evaluate the network performance; and receive, at the diagnostic platform , messages from the diagnostic application that include captured data, wherein the captured data includes device specific information identifying hardware or software configurations of the one or more mobile devices (110A-110N), and wherein the captured data includes data about the network performance in response to the set of tests used by the diagnostic application to evaluate the network performance of each of the one or more mobile devices (110A-110N) moving about a geographic region; and wherein the captured data includes device specific information identifying hardware or software configurations of the one or more mobile devices (110A-110N), and wherein the captured data includes data about the network performance in response to the set of tests used by the diagnostic application to evaluate the network performance of each of the one or more mobile devices (110A-110N) moving about a geographic region; and generating analytics based on the captured data, wherein the analytics identify optimal hardware configurations, wherein the optimal hardware configurations include a best performance while optimizing one or more configurations for a mobile device's chipset in light of the network performance of the wireless network.
A computer-implemented method for performing a sensitivity analysis of an engineering system in spatial temporal domain, the engineering system including a computer server or any other computing device that operates one or more process controllers in the engineering system based on one or more process parameters, the method comprising: receiving a set of process parameters, each process parameter being a configurable input of the engineering system; retrieving a multidimensional dataset containing historical values of the process parameters and corresponding output values of the engineering system; selecting a sampling algorithm to divide the multidimensional dataset into multiple subspaces, the sampling algorithm being selected from a predetermined list of algorithms in accordance with a type of distributions specified on the process parameters; selecting a plurality of samples (x i ) from the multidimensional dataset, the plurality of samples comprises one sample from each of the multiple subspaces; perturbing the plurality of samples; computing a first effect (EEi) of perturbing a sample (x i ) on an output value (y) of the engineering system; computing a second effect (SEE ii ) of perturbing a pair of samples (x i and x j ) on the output value (y) of the engineering system; and computing a sensitivity coefficient of the process parameters on the output of the engineering system using the second effect for the samples x i and x j , the first effect for the sample x i , and the first effect for the sample x j , wherein perturbing a first sample from the plurality of samples comprises changing the first sample from a first subspace to a second subspace, or changing the first sample by a percentage of a value of the first sample. receiving a set of process parameters, each process parameter being a configurable input of the engineering system; retrieving a multidimensional dataset containing historical values of the process parameters and corresponding output values of the engineering system; selecting a sampling algorithm to divide the multidimensional dataset into multiple subspaces, the sampling algorithm being selected from a predetermined list of algorithms in accordance with a type of distributions specified on the process parameters; selecting a plurality of samples (x i ) from the multidimensional dataset, the plurality of samples comprises one sample from each of the multiple subspaces; perturbing the plurality of samples; computing a first effect (EEi) of perturbing a sample (x i ) on an output value (y) of the engineering system; computing a second effect (SEE ii ) of perturbing a pair of samples (x i and x j ) on the output value (y) of the engineering system; and computing a sensitivity coefficient of the process parameters on the output of the engineering system using the second effect for the samples x i and x j , the first effect for the sample x i , and the first effect for the sample x j , wherein perturbing a first sample from the plurality of samples comprises changing the first sample from a first subspace to a second subspace, or changing the first sample by a percentage of a value of the first sample.
An aircraft for carrying a cargo assembly , the aircraft comprising: a spine structure including a first end, a second end, and mounts to structurally engage the cargo assembly in juxtaposition with the spine structure between the first and second ends; the aircraft characterized in a pre-load system comprising a first load transfer structure coupled to the first end, a second load transfer structure coupled to the second end, a linking structure coupled to the first and second load transfer structures, and a tensioning mechanism coupled to the linking structure; wherein the tensioning mechanism is configured to apply varying levels of tension to the linking structure. a spine structure including a first end, a second end, and mounts to structurally engage the cargo assembly in juxtaposition with the spine structure between the first and second ends; the aircraft characterized in a pre-load system comprising a first load transfer structure coupled to the first end, a second load transfer structure coupled to the second end, a linking structure coupled to the first and second load transfer structures, and a tensioning mechanism coupled to the linking structure; a first load transfer structure coupled to the first end, a second load transfer structure coupled to the second end, a linking structure coupled to the first and second load transfer structures, and a tensioning mechanism coupled to the linking structure; wherein the tensioning mechanism is configured to apply varying levels of tension to the linking structure.
Food packaging for a milk or cheese product , comprising two hollow shells , each shell extending over a predetermined depth (p12, p14) and a predetermined thickness (e), the packaging being configured so as to occupy two positions, a first position, called the rest position, in which the two shells are sealed together along a joining plane so as to form a single internal space receiving a portion of milk or cheese product occupying the whole of said internal space, and a second position, called the use position, in which the two shells are separated so as to allow access to said portion of product , each of the two shells has a plane of symmetry (S) orthogonal to said joining plane , each of the two shells has two plane faces, said two faces being located on either side of the plane of symmetry (S), said packaging being characterised by the fact that said two faces extend in a direction parallel to said plane of symmetry (S) and each shell has a depth (p12, p14), measured in said plane of symmetry (S), which is greater than its thickness (e), measured in said joining plane , the depth (p12, p14) being measured between said joining plane and the bottom of the shell , the thickness (e) being measured between said two plane faces.
Heater pad , comprising a circuit comprising at least one heating line and being connectable with a power source and/or a control unit, at least one recess into which a light module is to be inserted, and contacts for contacting a printed circuit board of the light module , characterised in that the circuit is electrically connectable to the printed circuit board of the light module , which has no power stripes, via the contacts , which are provided in an area overlapping and holding the light module .
A light emitting module comprising: a light-transmissive light guiding plate having a first main surface serving as a light emitting surface which emits light outside, and a second main surface opposite to the first main surface , the second main surface being provided with a recess ; a light adjustment portion ; and a light emitting element bonded to the light adjustment portion , wherein the light adjustment portion comprises a wavelength conversion portion and a light diffusion portion having a wavelength conversion portion side on which the wavelength conversion portion is bonded, the light diffusion portion is bonded to a bottom of the recess of the light guiding plate , the wavelength conversion portion is bonded to the light emitting element , the light adjustment portion is positioned in the recess of the light guiding plate and the light emitting element is positioned outside the recess of the light guiding plate such that the surface of the light adjustment portion is flush with the second main surface . a light-transmissive light guiding plate having a first main surface serving as a light emitting surface which emits light outside, and a second main surface opposite to the first main surface , the second main surface being provided with a recess ; a light adjustment portion ; and a light emitting element bonded to the light adjustment portion , wherein the light adjustment portion comprises a wavelength conversion portion and a light diffusion portion having a wavelength conversion portion side on which the wavelength conversion portion is bonded, a wavelength conversion portion and a light diffusion portion having a wavelength conversion portion side on which the wavelength conversion portion is bonded, the light diffusion portion is bonded to a bottom of the recess of the light guiding plate , the wavelength conversion portion is bonded to the light emitting element , the light adjustment portion is positioned in the recess of the light guiding plate and the light emitting element is positioned outside the recess of the light guiding plate such that the surface of the light adjustment portion is flush with the second main surface .
A broadcast receiver comprising: an extraction component configured to acquire a digital signal including first and second digital signals generated based on a broadcast signal received by a receiving antenna, and extract the first and second digital signals from the acquired digital signal; a first converter configured to convert the first digital signal into a first analog signal that is a broadcast signal of a specific wave polarization; a second converter configured to convert the second digital signal into a second analog signal that is a broadcast signal of a wave polarization different from the specific wave polarization; and a tuner configured to select at least one broadcast signal based on at least one of the first and second analog signals converted by the first and second converters; wherein the extraction component is configured to acquire the digital signal from a distribution system that is a community access television system or a community antenna television system. an extraction component configured to acquire a digital signal including first and second digital signals generated based on a broadcast signal received by a receiving antenna, and extract the first and second digital signals from the acquired digital signal; a first converter configured to convert the first digital signal into a first analog signal that is a broadcast signal of a specific wave polarization; a second converter configured to convert the second digital signal into a second analog signal that is a broadcast signal of a wave polarization different from the specific wave polarization; and a tuner configured to select at least one broadcast signal based on at least one of the first and second analog signals converted by the first and second converters; wherein the extraction component is configured to acquire the digital signal from a distribution system that is a community access television system or a community antenna television system.
Method for injection moulding of plastic moulded parts made of thermoplastic material, in which firstly a thermoplastic plastic melt is produced by rotating a screw around an axis (a) in a screw cylinder , which has an inner cylindrical surface , of a plasticizing unit , in which the thermoplastic polymer melt is then mixed with a fluid (G) by feeding the fluid (G) into the screw cylinder , and in which the mixture of thermoplastic polymer melt and fluid (G) is then injected into an injection mould , characterized in that a plasticizing unit is used, the screw of which has a barrage at at least one axial position, wherein the barrage being designed as a radially (r) projecting section of the screw , wherein a radial gap remains between the radially outer portion of the barrage and the inner cylindrical surface , wherein at least one conveying element in the form of a groove-shaped recess is worked into the radially outer portion of the barrage , which conveying element produces a conveying effect (F) for molten plastic material in the direction of the axis (a) when the screw rotates in the screw cylinder , wherein the conveying element comprises an inlet groove worked into the outer portion of the barrage , wherein the inlet groove extending from the beginning of a first axial end of the barrage towards the other, second axial end of the barrage without reaching the second axial end, wherein the conveying element comprises an outlet groove worked into the outer portion of the barrage , wherein the outlet groove extending from the beginning of the second axial end of the barrage towards the first axial end of the barrage without reaching the first axial end, wherein the fluid (G) is introduced into the melt in the material conveying direction (R) downstream of the barrage .
A method of applying discrete stretched film portions to a carrier web , the method comprising: conveying a continuous elastic film in a machine direction (MD); operating a cutting unit to cut the continuous elastic film into a series of discrete first film portions and discrete second film portions ; selectively adjusting a feed rate of the continuous elastic film upstream of the cutting unit ; transferring a first film portion of the series of discrete first film portions from a vacuum drum to a first pair of arms of a stretch unit ; transferring a second film portion of the series of discrete second film portions from the vacuum drum to a second pair of arms of the stretch unit ; stretching the first film portion in a cross-machine direction (CD) by separating the first pair of arms in the CD as the stretch unit rotates from a pickup position to a transfer position ; stretching the second film portion in the CD by separating the second pair of arms in the CD as the stretch unit rotates from the pickup position to the transfer position ; and transferring the stretched first and second film portions from the stretch unit to the carrier web . conveying a continuous elastic film in a machine direction (MD); operating a cutting unit to cut the continuous elastic film into a series of discrete first film portions and discrete second film portions ; selectively adjusting a feed rate of the continuous elastic film upstream of the cutting unit ; transferring a first film portion of the series of discrete first film portions from a vacuum drum to a first pair of arms of a stretch unit ; transferring a second film portion of the series of discrete second film portions from the vacuum drum to a second pair of arms of the stretch unit ; stretching the first film portion in a cross-machine direction (CD) by separating the first pair of arms in the CD as the stretch unit rotates from a pickup position to a transfer position ; stretching the second film portion in the CD by separating the second pair of arms in the CD as the stretch unit rotates from the pickup position to the transfer position ; and transferring the stretched first and second film portions from the stretch unit to the carrier web .
A method of thermally treating a material, the method comprising: applying a thermal transfer blanket to a surface of the material, the thermal transfer blanket comprising a thermal energy storage media having a first temperature, the material having a second temperature that is different than the first temperature; and transferring thermal energy between the thermal transfer blanket and the material, thereby modifying the temperature of the material; wherein the thermal energy storage media comprises one or more layers of tiles bonded together by an elastomeric polymer . applying a thermal transfer blanket to a surface of the material, the thermal transfer blanket comprising a thermal energy storage media having a first temperature, the material having a second temperature that is different than the first temperature; and transferring thermal energy between the thermal transfer blanket and the material, thereby modifying the temperature of the material; wherein the thermal energy storage media comprises one or more layers of tiles bonded together by an elastomeric polymer .
A method for use in a sensor data exchange node in a communication network, the method comprising: - receiving (A1) sensor data from a User Equipment, UE, , - tagging the sensor data with an ID, by a tagging unit of the sensor data exchange node , wherein the ID is created by the sensor data exchange node and wherein the ID is associated with the UE , - transmitting (A3) the tagged sensor data to a data processing node , - receiving (A4) a value assessment of the sensor data from the data processing node , - determining (A5) a reward, based on the received value assessment, by a reward unit , - storing (A6) the determination of the reward in a reward database . - receiving (A1) sensor data from a User Equipment, UE, , - tagging the sensor data with an ID, by a tagging unit of the sensor data exchange node , wherein the ID is created by the sensor data exchange node and wherein the ID is associated with the UE , - transmitting (A3) the tagged sensor data to a data processing node , - receiving (A4) a value assessment of the sensor data from the data processing node , - determining (A5) a reward, based on the received value assessment, by a reward unit , - storing (A6) the determination of the reward in a reward database .
A towpreg comprising a reinforcing fiber bundle aligned in one direction and impregnated with an epoxy resin composition in that the epoxy resin composition contains the following components [A] to [C]: [A] an epoxy resin which is solid at 23°C in an amount of 30 parts or more in 100 parts by mass of total epoxy resin components, [B] a polyfunctional amine type epoxy which is liquid at 23°C in an amount of 20 parts or more in 100 parts by mass of total epoxy resin components, and [C] a clay mineral. [A] an epoxy resin which is solid at 23°C in an amount of 30 parts or more in 100 parts by mass of total epoxy resin components, [B] a polyfunctional amine type epoxy which is liquid at 23°C in an amount of 20 parts or more in 100 parts by mass of total epoxy resin components, and [C] a clay mineral.
A flexible display apparatus, comprising: a cover glass element ; a driver integrated circuit ; a mandrel portion ; a shaft portion ; and a panel , positioned between the cover glass element and the driver integrated circuit, and comprising an inner panel layer wrapped around at least a portion of the mandrel portion to form a bending portion of the panel , the panel being attached on either side of the shaft portion ; characterised by further comprising: a conductive shielding layer positioned on the inner panel layer at the bending portion and configured to inhibit electromagnetic signals through the bending portion ; a coating layer , wherein the coating layer is positioned between the conductive shielding layer and the inner panel layer ; an insulation layer positioned over the conductive shielding layer and an opening formed in the insulation layer to expose a portion of the conductive shielding layer to connect the conductive shielding layer to a system ground for shielding. a cover glass element ; a driver integrated circuit ; a mandrel portion ; a shaft portion ; and a panel , positioned between the cover glass element and the driver integrated circuit, and comprising an inner panel layer wrapped around at least a portion of the mandrel portion to form a bending portion of the panel , the panel being attached on either side of the shaft portion ; characterised by further comprising: a conductive shielding layer positioned on the inner panel layer at the bending portion and configured to inhibit electromagnetic signals through the bending portion ; a coating layer , wherein the coating layer is positioned between the conductive shielding layer and the inner panel layer ; an insulation layer positioned over the conductive shielding layer and an opening formed in the insulation layer to expose a portion of the conductive shielding layer to connect the conductive shielding layer to a system ground for shielding. a conductive shielding layer positioned on the inner panel layer at the bending portion and configured to inhibit electromagnetic signals through the bending portion ; a coating layer , wherein the coating layer is positioned between the conductive shielding layer and the inner panel layer ; an insulation layer positioned over the conductive shielding layer and an opening formed in the insulation layer to expose a portion of the conductive shielding layer to connect the conductive shielding layer to a system ground for shielding.