mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for reducing latency in providing a computing service, the method comprising: receiving, from a mobile computing device, first location data for the mobile computing device at a first time; receiving, from the mobile computing device, second location data for the mobile computing device at a second time; based on the first location data and the second location data, determining a direction vector for the mobile computing device; receiving mapping data for the mobile computing device; determining, based on the mapping data, that the mobile computing device is traveling along a constrained transportation feature, wherein the constrained transportation feature is a roadway, waterway or railway; modifying the direction vector based on the constrained transportation feature; based on the modified direction vector: identifying an edge node from a plurality of edge nodes corresponding to a predicted location of the mobile computing device, wherein the predicted location is a location along the constrained transportation feature in the direction of the modified direction vector; and prior to the mobile computing device being in the predicted location, allocating computing resources for the computing service on the identified edge node. receiving, from a mobile computing device, first location data for the mobile computing device at a first time; receiving, from the mobile computing device, second location data for the mobile computing device at a second time; based on the first location data and the second location data, determining a direction vector for the mobile computing device; receiving mapping data for the mobile computing device; determining, based on the mapping data, that the mobile computing device is traveling along a constrained transportation feature, wherein the constrained transportation feature is a roadway, waterway or railway; modifying the direction vector based on the constrained transportation feature; based on the modified direction vector: identifying an edge node from a plurality of edge nodes corresponding to a predicted location of the mobile computing device, wherein the predicted location is a location along the constrained transportation feature in the direction of the modified direction vector; and prior to the mobile computing device being in the predicted location, allocating computing resources for the computing service on the identified edge node. identifying an edge node from a plurality of edge nodes corresponding to a predicted location of the mobile computing device, wherein the predicted location is a location along the constrained transportation feature in the direction of the modified direction vector; and prior to the mobile computing device being in the predicted location, allocating computing resources for the computing service on the identified edge node.
A secure startup method, wherein the method is performed by a target controller and comprises: sending startup information to an auxiliary controller, wherein the auxiliary controller comprises a secure storage unit that stores first public key information, the secure storage unit has a tamper resistance function, the first public key information is used to authenticate the target controller, and the startup information is used to trigger the auxiliary controller to authenticate a first program of the target controller; receiving challenge information sent by the auxiliary controller, and obtaining response information based on the challenge information, wherein the response information comprises first information and second information, wherein the first information is a hash value of an image of a boot code control program and/or a hash value of an image of a system control program, and the second information is a signature value of the first information; sending the response information to the auxiliary controller; receiving running information sent by the auxiliary controller, wherein the running information is used to notify the target controller whether the second information is verified; and running the first program when the second information is verified, wherein the first program comprises the boot code control program and/or the system control program. sending startup information to an auxiliary controller, wherein the auxiliary controller comprises a secure storage unit that stores first public key information, the secure storage unit has a tamper resistance function, the first public key information is used to authenticate the target controller, and the startup information is used to trigger the auxiliary controller to authenticate a first program of the target controller; receiving challenge information sent by the auxiliary controller, and obtaining response information based on the challenge information, wherein the response information comprises first information and second information, wherein the first information is a hash value of an image of a boot code control program and/or a hash value of an image of a system control program, and the second information is a signature value of the first information; sending the response information to the auxiliary controller; receiving running information sent by the auxiliary controller, wherein the running information is used to notify the target controller whether the second information is verified; and running the first program when the second information is verified, wherein the first program comprises the boot code control program and/or the system control program.
Primary optics assembly for use in a lighting device of a motor vehicle, the primary optics assembly comprising a plurality of primary optics elements arranged in matrix form next to and/or above one another, which each have a light entry surface at an end of a primary optical element which is proximal from the point of view of a light source, and a light exit surface at an end of the primary optical element which is distal from the point of view of the light source, and a cross-section which increases from the end which is proximal from the point of view of the light source to the end which is distal from the point of view of the light source, wherein along a longitudinal extension of the primary optical elements the cross-section is smaller than a distance between the entry surface and the exit surface, wherein the primary optical elements are made of a dimensionally stable but elastically deformable transparent material and are positioned and fastened by means of a holder to a light source or a light source carrier of the lighting device, the holder having holding elements for positioning the primary optical elements in the region of their proximal ends, the primary optical elements being formed in one piece with directly adjacent primary optical elements in the region of their distal ends, the outer primary optical elements of a plurality of primary optical elements arranged next to and above one another in a matrix-like manner having edge sections projecting radially outwards in the region of their distal ends, and wherein the holder has a circumferential bearing surface for the edge portions of the primary optical elements completely inserted into the holder, characterized in that the holder has a tension spring element, which fixes the primary optical elements relative to the holder when the primary optical elements are fully inserted into the holder, and the edge sections are clamped between the tension spring element and the bearing surface.
A method for displaying an image in an image album application on a display, wherein the method comprises the steps of: providing a captured burst of images, comprising at least three images including a defined main image, and one or more defined pre-images captured before said main image in the burst of images; displaying, responsive to detecting user selection of the main image in the album application, the defined pre-images and the selected main image in sequence on the display, wherein the pre-images are played back as a frame-by-frame animation until stopping at the main image, and maintaining display of the main image until user input is detected to change to another image or another view. providing a captured burst of images, comprising at least three images including a defined main image, and one or more defined pre-images captured before said main image in the burst of images; a defined main image, and one or more defined pre-images captured before said main image in the burst of images; displaying, responsive to detecting user selection of the main image in the album application, the defined pre-images and the selected main image in sequence on the display, wherein the pre-images are played back as a frame-by-frame animation until stopping at the main image, and maintaining display of the main image until user input is detected to change to another image or another view.
A method of installing an application to a device comprising: receiving, at the device, application files associated with the application, the application files including computer readable instruction files and resource files, the resource files configured to be referenced by the computer readable instructions; in response to receiving the application files: separating the computer readable instruction files from the resource files; determining whether a split installation is required; if a split installation is required, installing, by an installation manager, the computer readable instruction files to a first memory component associated with the device and installing the resource files on a second memory component associated with the device; or if a split installation is not required, installing the application to the first memory component, wherein the second memory component and the first memory component are physically separate memory components. receiving, at the device, application files associated with the application, the application files including computer readable instruction files and resource files, the resource files configured to be referenced by the computer readable instructions; in response to receiving the application files: separating the computer readable instruction files from the resource files; determining whether a split installation is required; if a split installation is required, installing, by an installation manager, the computer readable instruction files to a first memory component associated with the device and installing the resource files on a second memory component associated with the device; or if a split installation is not required, installing the application to the first memory component, separating the computer readable instruction files from the resource files; determining whether a split installation is required; if a split installation is required, installing, by an installation manager, the computer readable instruction files to a first memory component associated with the device and installing the resource files on a second memory component associated with the device; or if a split installation is not required, installing the application to the first memory component, if a split installation is required, installing, by an installation manager, the computer readable instruction files to a first memory component associated with the device and installing the resource files on a second memory component associated with the device; or if a split installation is not required, installing the application to the first memory component, wherein the second memory component and the first memory component are physically separate memory components.
An aircraft component, comprising: a plurality of layers; a conductive layer disposed co-planar and proximate to the plurality of layers, the conductive layer forming an electrical disconnect region defined by a gap between adjacent conductive sheets (208A, 208B, 208C, 208D, 208E) of the conductive layer; and an interconnect (210A, 210B) comprising a conductive material that creates an ohmic connection between the adjacent conductive sheets (208A, 208B, 208C, 208D, 208E) of the conductive layer to bridge the gap in the electrical disconnect region; wherein the adjacent conductive sheets comprise expanded metal foil sections and the interconnect comprises a metal deposited using plasma deposition. a plurality of layers; a conductive layer disposed co-planar and proximate to the plurality of layers, the conductive layer forming an electrical disconnect region defined by a gap between adjacent conductive sheets (208A, 208B, 208C, 208D, 208E) of the conductive layer; and an interconnect (210A, 210B) comprising a conductive material that creates an ohmic connection between the adjacent conductive sheets (208A, 208B, 208C, 208D, 208E) of the conductive layer to bridge the gap in the electrical disconnect region; wherein the adjacent conductive sheets comprise expanded metal foil sections and the interconnect comprises a metal deposited using plasma deposition.
A method for bonding substrates, comprising: providing a first substrate in film form, which substrate has a thermoplastic surface; guiding the first substrate around a drivable cooling roller with which the first substrate is in contact, wherein the cooling roller rotates in the feed direction; providing a second substrate, on the surface of which an adhesive is applied; and, joining the first and the second substrate under pressure, wherein the thermoplastic surface of the first substrate is in a softened state during the joining process, wherein the surface of the first substrate opposite the softened surface is cooled by means of a rotating cooling roller; and, wherein the thermoplastic surface of the first substrate is converted into a softened state by heating, wherein the heating is carried out by means of at least one heating element which is arranged opposite the cooling roller, and wherein the distance between the at least one heating element and the cooling roller is variable. providing a first substrate in film form, which substrate has a thermoplastic surface; guiding the first substrate around a drivable cooling roller with which the first substrate is in contact, wherein the cooling roller rotates in the feed direction; providing a second substrate, on the surface of which an adhesive is applied; and, joining the first and the second substrate under pressure, wherein the thermoplastic surface of the first substrate is in a softened state during the joining process, wherein the surface of the first substrate opposite the softened surface is cooled by means of a rotating cooling roller; and, wherein the thermoplastic surface of the first substrate is converted into a softened state by heating, wherein the heating is carried out by means of at least one heating element which is arranged opposite the cooling roller, and wherein the distance between the at least one heating element and the cooling roller is variable.
A method of testing a non-volatile memory cell having a floating gate for data retention for the storage of charges thereon, wherein said method for testing the memory cell in the event the memory cell has a leakage current from the floating gate which is dependent upon the absolute value of the voltage of the floating gate, wherein said cell is operated by a first erase voltage, a first programming voltage and a first read voltage, applied during normal operation, and a first read current of an erased memory cell, detected during normal operation, wherein said method comprises: applying a voltage greater than the first erase voltage to over erase the floating gate; subjecting the memory cell including the floating gate to a single high temperature bake; and thereafter testing the data retention of the floating gate by applying a read voltage lower than the first read voltage. applying a voltage greater than the first erase voltage to over erase the floating gate; subjecting the memory cell including the floating gate to a single high temperature bake; and thereafter testing the data retention of the floating gate by applying a read voltage lower than the first read voltage.
An assembly for cathodic arc deposition of a material onto an article, the assembly comprising: a chamber for receiving an article to be coated, the chamber being evacuated to a pressure below atmospheric pressure; a rotatable target disposed within the chamber, the rotatable target having a surface from which a plasma material is ejected and a rotational axis; an anode ring disposed in the chamber and positioned a first distance from the surface of the rotatable target, the anode ring having an opening extending through the anode ring, a central axis of the opening positioned parallel to the rotational axi of the rotatable target; and a spark device disposed in the chamber for generating an arc on the surface of the rotatable target, wherein the assembly is configured to direct a stream of charged particles ejected from the surface of the rotatable target through the opening of the anode ring to the article to be coated, characterized in that the central axis of the opening is offset a second distance (d 0) from the rotational axis of the rotatable target. a chamber for receiving an article to be coated, the chamber being evacuated to a pressure below atmospheric pressure; a rotatable target disposed within the chamber, the rotatable target having a surface from which a plasma material is ejected and a rotational axis; an anode ring disposed in the chamber and positioned a first distance from the surface of the rotatable target, the anode ring having an opening extending through the anode ring, a central axis of the opening positioned parallel to the rotational axi of the rotatable target; and a spark device disposed in the chamber for generating an arc on the surface of the rotatable target, wherein the assembly is configured to direct a stream of charged particles ejected from the surface of the rotatable target through the opening of the anode ring to the article to be coated, characterized in that the central axis of the opening is offset a second distance (d 0) from the rotational axis of the rotatable target.
A computer-implemented method for the qualitative evaluation of real-time PCR data, wherein a real-time PCR amplification curve of an associated sample is classified as a negative curve or as a positive curve, comprising - providing the real-time PCR amplification curve to be classified of the associated sample, - determining a quality metric, which indicates a similarity of the real-time PCR amplification curve to be classified to a straight line, as a quality metric of a linear regression with respect to the real-time PCR amplification curve to be classified, - determining a first criterion by checking whether the quality metric of the linear regression falls below the first predefined value, - determining a value sequence (MK1'), which indicates a slope of the real-time PCR amplification curve to be classified, and determining a second criterion as to whether the value sequence (MK1') exceeds a second predefined value, - classifying the real-time PCR amplification curve of the associated sample as a positive curve in the case that all criteria are met. - providing the real-time PCR amplification curve to be classified of the associated sample, - determining a quality metric, which indicates a similarity of the real-time PCR amplification curve to be classified to a straight line, as a quality metric of a linear regression with respect to the real-time PCR amplification curve to be classified, - determining a first criterion by checking whether the quality metric of the linear regression falls below the first predefined value, - determining a value sequence (MK1'), which indicates a slope of the real-time PCR amplification curve to be classified, and determining a second criterion as to whether the value sequence (MK1') exceeds a second predefined value, - classifying the real-time PCR amplification curve of the associated sample as a positive curve in the case that all criteria are met.
A method for modeling a subterranean formation, comprising: measuring or receiving cross-well electromagnetic data representing a subterranean formation; producing a resistivity profile of the subterranean formation based at least partially upon the cross-well electromagnetic data; determining a static model of the subterranean formation based at least partially upon the resistivity profile, wherein the static model comprises a static geo-cellular model and wherein determining the static model comprises calibrating a porosity in the static model, by reducing an error between the porosity in the static geo-cellular model and a porosity derived from the cross-well electromagnetic data; determining a dynamic model of the subterranean formation based at least partially upon the static model; determining whether to waterflood or gasflood the subterranean formation based at least partially upon the static model and/or the dynamic model; and building or updating a three-dimensional reservoir model of the subterranean formation for use in operations to waterflood the subterranean formation. measuring or receiving cross-well electromagnetic data representing a subterranean formation; producing a resistivity profile of the subterranean formation based at least partially upon the cross-well electromagnetic data; determining a static model of the subterranean formation based at least partially upon the resistivity profile, wherein the static model comprises a static geo-cellular model and determining a dynamic model of the subterranean formation based at least partially upon the static model; determining whether to waterflood or gasflood the subterranean formation based at least partially upon the static model and/or the dynamic model; and building or updating a three-dimensional reservoir model of the subterranean formation for use in operations to waterflood the subterranean formation.