mhurhangee/ep-ind-claims huggingface dataset:
A photonic integrated circuit package, comprising: a photonic integrated circuit chip, comprising: a traveling wave active optical element; multiple electrodes (406a-406c) configured to receive an electrical signal, wherein at least one characteristics of a segment of the traveling wave active optical element is changed based on the electrical signal received by a corresponding electrode of the multiple electrodes; a ground electrode; and multiple bond contacts (409a-409c); and an interposer having a first surface bonded to at least a portion of the photonic integrated circuit chip, the interposer comprising: a conductive trace formed on the first surface of the interposer, the conductive trace electrically coupled to a source of the electrical signal; a ground trace; and multiple conductive vias (454a-454b,) electrically coupled to the conductive trace, wherein each conductive via of the multiple conductive vias is bonded with a respective bond contact of the multiple bond contacts (409a-409c) of the photonic integrated circuit chip; a bridge chip bonded to a second surface of the interposer opposite the first surface, the bridge chip having first conductive pond pads (464, 465) connected to the multiple conductive vias (454a-454b,) of the interposer and second conductive pond pads (466, 467); and an ASIC chip having a ground contact and a bond contact connected to the second conductive pond pads (466, 467) of the bridge chip. a traveling wave active optical element; multiple electrodes (406a-406c) configured to receive an electrical signal, wherein at least one characteristics of a segment of the traveling wave active optical element is changed based on the electrical signal received by a corresponding electrode of the multiple electrodes; a ground electrode; and multiple bond contacts (409a-409c); and an interposer having a first surface bonded to at least a portion of the photonic integrated circuit chip, the interposer comprising: a conductive trace formed on the first surface of the interposer, the conductive trace electrically coupled to a source of the electrical signal; a ground trace; and multiple conductive vias (454a-454b,) electrically coupled to the conductive trace, wherein each conductive via of the multiple conductive vias is bonded with a respective bond contact of the multiple bond contacts (409a-409c) of the photonic integrated circuit chip; a bridge chip bonded to a second surface of the interposer opposite the first surface, the bridge chip having first conductive pond pads (464, 465) connected to the multiple conductive vias (454a-454b,) of the interposer and second conductive pond pads (466, 467); and an ASIC chip having a ground contact and a bond contact connected to the second conductive pond pads (466, 467) of the bridge chip.
Filter layer for the filtration of fluids, for use in a layer filter, characterized in that the filter layer has, on at least one side, at least two cutouts for placing and orienting the filter layer on guide elements of a filter device.
A report data obtaining method, the method comprising: performing abstraction processing on a data table in a database, and creating an Abstract Data Record model; creating a complicated report template according to the ADR model, and storing the report template; and calling the created report template, executing a report query operation, and obtaining and displaying report data by querying; wherein the created ADR model includes one or more ADRs, each ADR contains two types of basic elements: a basic dimension and a basic index; the basic dimension contains a time dimension and an object dimension; and each ADR contains a data source name; data of one or more data tables associated with the ADR are stored in the database corresponding to the data source name; each basic dimension and basic index contained in the ADR separately corresponds to a specific field of one or more data tables associated with the ADR; and one or more data tables associated with the ADR contain a fact table and an aggregation table; and the aggregation table is obtained by aggregating the fact table. performing abstraction processing on a data table in a database, and creating an Abstract Data Record model; creating a complicated report template according to the ADR model, and storing the report template; and calling the created report template, executing a report query operation, and obtaining and displaying report data by querying; wherein the created ADR model includes one or more ADRs, each ADR contains two types of basic elements: a basic dimension and a basic index; the basic dimension contains a time dimension and an object dimension; and each ADR contains a data source name; data of one or more data tables associated with the ADR are stored in the database corresponding to the data source name; each basic dimension and basic index contained in the ADR separately corresponds to a specific field of one or more data tables associated with the ADR; and one or more data tables associated with the ADR contain a fact table and an aggregation table; and the aggregation table is obtained by aggregating the fact table.
A method of performing path rendering, the method comprising: acquiring information of vertexes in an object to be rendered in a frame; and for each individual pixel in the frame: calculating a winding number of the pixel, based on a direction in which a path, connecting the vertexes, is rendered at points of the path that are positioned along an imaginary half line extending from the pixel; and determining whether to assign a color to the pixel, based on the winding number, characterized in that the calculating a winding number of the pixel is performed in parallel to a calculating of a winding number for another pixel in the frame. acquiring information of vertexes in an object to be rendered in a frame; and for each individual pixel in the frame: calculating a winding number of the pixel, based on a direction in which a path, connecting the vertexes, is rendered at points of the path that are positioned along an imaginary half line extending from the pixel; and determining whether to assign a color to the pixel, based on the winding number, characterized in that the calculating a winding number of the pixel is performed in parallel to a calculating of a winding number for another pixel in the frame. calculating a winding number of the pixel, based on a direction in which a path, connecting the vertexes, is rendered at points of the path that are positioned along an imaginary half line extending from the pixel; and determining whether to assign a color to the pixel, based on the winding number, characterized in that the calculating a winding number of the pixel is performed in parallel to a calculating of a winding number for another pixel in the frame.
A process for the production of microfibrillated cellulose which process comprises: - providing a slurry comprising cellulosic fibers, - treating the slurry with an enzyme, - mechanically treating the slurry so that the fibers are disintegrated characterized In that the mechanical treatment and the treatment with the enzyme is performed simultaneously in a single treatment step for a period of 15 minutes - 25 hours. - providing a slurry comprising cellulosic fibers, - treating the slurry with an enzyme, - mechanically treating the slurry so that the fibers are disintegrated characterized In that the mechanical treatment and the treatment with the enzyme is performed simultaneously in a single treatment step for a period of 15 minutes - 25 hours.
A supply item (200, 1500) for an image forming device prepared by a process comprising the steps of: obtaining a body (410, 1505); obtaining a helical auger having a spiral flight (210, 1510) having magnetized particles (810, 812) generating a magnetic field above the flight (210, 1510) having a varying intensity; obtaining a non-volatile memory device; attaching the non-volatile memory device to the body (410, 1505); rotatably attaching the helical auger to the body (410, 1505); creating an array of measurements by measuring the intensity of the magnetic field along a section of the spiral flight (210, 1510); generating a digital signature from the array of measurements; and storing the array of measurements and the digital signature in the non-volatile memory device. obtaining a body (410, 1505); obtaining a helical auger having a spiral flight (210, 1510) having magnetized particles (810, 812) generating a magnetic field above the flight (210, 1510) having a varying intensity; obtaining a non-volatile memory device; attaching the non-volatile memory device to the body (410, 1505); rotatably attaching the helical auger to the body (410, 1505); creating an array of measurements by measuring the intensity of the magnetic field along a section of the spiral flight (210, 1510); generating a digital signature from the array of measurements; and storing the array of measurements and the digital signature in the non-volatile memory device.
A computer-implemented method for revoking user sessions using signaling, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: receiving, at an identity platform, an indication indicating that a user's login account has been compromised, the user's login account having an associated login session and corresponding session artifact that is valid for a specified amount of time; generating a signal indicating that the login session is no longer trusted and that the user is to be re-directed to the identity platform to re-authenticate and renew the session artifact; and providing the generated signal to a plurality of relying parties including at least one relying party that is hosting the login session for the user; wherein the indication indicating that the user's login account has been compromised is generated upon detecting, through heuristics, that a user's account has been compromised, wherein detecting comprises detecting a suspicious login activity; wherein the generated signal is used to notify the relying parties that the user's account has been compromised and that their sessions are to be revoked, regardless of how long the session artifact indicates validity; wherein the generated signal is provided to the plurality of relying parties using a regularly transferred synchronization signal that is part of an existing synchronization contract that provides authentication and user management. receiving, at an identity platform, an indication indicating that a user's login account has been compromised, the user's login account having an associated login session and corresponding session artifact that is valid for a specified amount of time; generating a signal indicating that the login session is no longer trusted and that the user is to be re-directed to the identity platform to re-authenticate and renew the session artifact; and providing the generated signal to a plurality of relying parties including at least one relying party that is hosting the login session for the user; wherein the indication indicating that the user's login account has been compromised is generated upon detecting, through heuristics, that a user's account has been compromised, wherein detecting comprises detecting a suspicious login activity; wherein the generated signal is used to notify the relying parties that the user's account has been compromised and that their sessions are to be revoked, regardless of how long the session artifact indicates validity; wherein the generated signal is provided to the plurality of relying parties using a regularly transferred synchronization signal that is part of an existing synchronization contract that provides authentication and user management.
A recombinant strain of a succinic acid producing microorganism, said microorganism having been transformed with at least one polynucleotide that encodes a zwf enzyme and that is operably linked to a promoter sequence, wherein a 16S rRNA sequence of the microorganism has at least about 90% sequence identity to the 16S rRNA sequence of Actinobacillus succinogenes.
A method of manufacturing a lighting module, comprising the steps of: providing a heat sink material in a fluid state; providing a light-source assembly comprising a plurality of light sources being electrically connected to an electrically conductive carrier, each of said light sources having a light-emitting surface; embedding said light-source assembly into said heat sink material such that said electrically conductive carrier and apart of each of said light sources are covered by said heat sink material while said light-emitting surface of each of said light sources is uncovered by said heat sink material; and solidifying said heat sink material, characterized in that said heat sink material comprises at least one ceramic material. providing a heat sink material in a fluid state; providing a light-source assembly comprising a plurality of light sources being electrically connected to an electrically conductive carrier, each of said light sources having a light-emitting surface; embedding said light-source assembly into said heat sink material such that said electrically conductive carrier and apart of each of said light sources are covered by said heat sink material while said light-emitting surface of each of said light sources is uncovered by said heat sink material; and solidifying said heat sink material,
A solar-thermal power plant with direct evaporation of a heat transfer medium, comprising parabolic trough collectors (4a, 4b), each consisting of a plurality of parabolic trough segments, wherein thermal energy of the sunlight can be supplied to the heat transfer medium via the parabolic trough collectors (4a, 4b), and comprising at least one steam turbine which can be driven by the evaporated heat transfer medium, wherein a first number of parabolic trough collectors form a evaporator and a second number of parabolic trough collectors form a superheater, wherein the parabolic trough collectors of the evaporator are connected in parallel via a common supply line and a common manifold, and wherein the parabolic trough collectors of the superheater are connected in parallel via a common supply line and a common manifold, wherein the parabolic trough collectors of the evaporator are arranged in a plurality of loops, and wherein the parabolic trough collectors of the superheater are arranged in a plurality of loops, characterized in that the common supply line and the common manifold of the evaporator are led, from one side, to the loops of the parabolic trough collectors of the evaporator, and the common supply line and the common manifold of the superheater are led, from one side, to the loops of the parabolic trough collectors of the superheater.
A method for managing failures performed at a policy and charging rules node, PCRN, the method comprising: receiving, at the PCRN, a request from a requesting node for an establishment of a first service data flow, SDF; generating a first rule set for implementing the first SDF in response to the received request; transmitting a first rule of the generated first rule set to a first node for installation of the first rule; waiting for a period of time for a response from the first node; determining from the response from the first node whether the installation of the first rule at the first node failed or succeeded; and if the installation of the first rule succeeded, transmitting a second rule of the generated first rule set to a second node for installation of the second rule. receiving, at the PCRN, a request from a requesting node for an establishment of a first service data flow, SDF; generating a first rule set for implementing the first SDF in response to the received request; transmitting a first rule of the generated first rule set to a first node for installation of the first rule; waiting for a period of time for a response from the first node; determining from the response from the first node whether the installation of the first rule at the first node failed or succeeded; and if the installation of the first rule succeeded, transmitting a second rule of the generated first rule set to a second node for installation of the second rule.
A method for defect analysis of a wire connection between a substrate and a semiconductor component (15, 16) of a product, comprising an inspection system, the inspection system comprising a first projection device, a line scan camera and a processing device, the first projection device having at least one slit projection means, the slit projection means projecting a light slit onto a wire (21, 22) of the wire connection, light of the light slit reflected by the wire in a detection plane of the line scan camera extending transversely, preferably orthogonally, to a substrate surface being detected by means of the line scan camera, analysis image information of the product being derived from a plurality of line scan image information of the line scan camera by means of the processing device, the light slit being projected onto the product so as to extend within the detection plane, the slit projection means being arranged laterally transversely in relation to the line scan camera in such a manner that, the light slit is projected onto the wire (21, 22), the inspection system comprising a second projection device, the second projection device having at least one illuminating means, the illuminating means projecting diffuse light onto the product, light of the diffuse light reflected by the product in the detection plane being detected by means of the line scan camera characterized in that the semiconductor component (15, 16) is unlit by the light slit.
An aerosolisable formulation comprising (i) one or more aerosol-forming agents; and (ii) nicotine; wherein the nicotine comprises -nicotine in an amount of from about 1% to about 4.5% by weight of the total nicotine. (i) one or more aerosol-forming agents; and (ii) nicotine;
A mobile terminal (201, 400) for accessing a WiFi wireless network in a WiFi roaming environment, the mobile terminal (201, 400) being pre-provided with credentials to access the WiFi wireless network, the mobile terminal (201, 400) further being provided with an application (206, 411), said application (206, 411) includes a service part (206B, 411B) and an application part (206A, 411A), the mobile terminal (201, 400) comprising a processor and a memory, said memory containing instructions executable by the processor wherein the mobile terminal (201, 400) is operative to: - send, via an access point, a request to a Extensible Authentication Protocol, EAP, server, the request including the credentials of the mobile terminal (201, 400); - connect the service part (206B, 411B) of the application (206, 411) to an access control server which adds an EAP account for the mobile terminal (201, 400) for a predetermined time period; the access control server being connected to said EAP server; and - access the WiFi wireless network when the EAP server validly authenticates the credentials of the mobile terminal (201, 400); and - receive a query from an active access control server being an integral part of the access control server, querying the service part (206B, 411B) of the application (206, 411) whether the service part (206B, 411B) is active or not. - send, via an access point, a request to a Extensible Authentication Protocol, EAP, server, the request including the credentials of the mobile terminal (201, 400); - connect the service part (206B, 411B) of the application (206, 411) to an access control server which adds an EAP account for the mobile terminal (201, 400) for a predetermined time period; the access control server being connected to said EAP server; and - access the WiFi wireless network when the EAP server validly authenticates the credentials of the mobile terminal (201, 400); and - receive a query from an active access control server being an integral part of the access control server, querying the service part (206B, 411B) of the application (206, 411) whether the service part (206B, 411B) is active or not.
A method for monitoring and controlling flare operations of an industrial plant using a machine deep learning-based self-adaptive industrial automation system comprising: (a) obtaining, from at least one camera, a sequence of real time images of the flare operation and obtaining data from a network of the industrial plant as to at least one flare parameter; (b) applying, an optical flow using an optical flow algorithm, on the sequence of real time images to gather motion information, wherein the optical flow algorithm separates the background information to generate the motion information; (c) inputting the real time images and the motion information_to a machine deep learning configurable system module; (d) analyzing the data by the machine deep learning configurable system module using machine learning models and algorithms to assign pixels of the images to categories selected from smoke, flame, and steam; (e) displaying the results of the analyzing data by the machine deep learning configurable system module; and (f) issuing a notice when the percentage of pixels in a specific category falls outside a predetermined range. (a) obtaining, from at least one camera, a sequence of real time images of the flare operation and obtaining data from a network of the industrial plant as to at least one flare parameter; (b) applying, an optical flow using an optical flow algorithm, on the sequence of real time images to gather motion information, wherein the optical flow algorithm separates the background information to generate the motion information; (c) inputting the real time images and the motion information_to a machine deep learning configurable system module; (d) analyzing the data by the machine deep learning configurable system module using machine learning models and algorithms to assign pixels of the images to categories selected from smoke, flame, and steam; (e) displaying the results of the analyzing data by the machine deep learning configurable system module; and (f) issuing a notice when the percentage of pixels in a specific category falls outside a predetermined range.
A mobile surgical tracking system comprising a mobile surgical tracking device (1, 25) mountable on an anatomical structure of a patient, an imaging device and a display device, the mobile surgical tracking device (1, 25) comprising an integrated fiducial marker and an integrated optical tracking system comprising a shadow imaging device comprising an image sensor and a shadow mask, wherein the imaging device is configured to generate an image of the patient's anatomical structure and the integrated fiducial marker, whereby the mobile surgical tracking system comprises a mobile tracking system coordinate frame, wherein the integrated fiducial marker has a position which has a known relation to the mobile tracking system coordinate frame for a direct registration of the image to the coordinate system of the mobile surgical tracking device (1, 25), wherein the system further comprises an instrument comprising an optical marker of at least 3 LEDs, wherein the instrument is trackable by the shadow imaging device and can be visualized by a visualization element in an image space, once the relation from the image to the coordinate frame of the mobile surgical tracking system is known, wherein the image is integrated into the mobile surgical tracking system coordinate frame, whereby the position of the mobile surgical tracking device with respect to the anatomical structure both virtually, thus in an anatomical structure model generated by the imaging device, and physically, thus in the patient's anatomical structure, is simultaneously defined.