mhurhangee/ep-ind-claims huggingface dataset:
A method, implemented by a base station, for implementing synchronization and sense between user equipments, comprising: triggering a first user equipment to perform synchronization with another user equipment; receiving quality information, reported by the first user equipment, of a channel between the first user equipment and the another synchronized user equipment; and determining, according to the quality information of the channel, a target user equipment that directly communicates with the first user equipment, and/or determining, according to the quality information of the channel, a radio resource which can be used by the first user equipment. triggering a first user equipment to perform synchronization with another user equipment; receiving quality information, reported by the first user equipment, of a channel between the first user equipment and the another synchronized user equipment; and determining, according to the quality information of the channel, a target user equipment that directly communicates with the first user equipment, and/or determining, according to the quality information of the channel, a radio resource which can be used by the first user equipment.
A system for classifying intensity image data, the system comprising: one or more processors and a non-transitory computer-readable medium having executable instructions encoded thereon such that when executed, the one or more processors perform operations of: identifying salient regions of an intensity image based on activation patterns of a convolutional neural network having a plurality of layers; generating multi-scale features for the salient regions by probing the activation patterns of the CNN at different layers; using an unsupervised clustering technique, clustering the multi-scale features to identify key attributes captured by the CNN; mapping from a histogram of the key attributes onto probabilities for a set of object categories; classifying at least one object or scene in the intensity image as belonging to an object category using the probabilities; and controlling a vehicle component based on the object category causing the vehicle component to perform an automated action. identifying salient regions of an intensity image based on activation patterns of a convolutional neural network having a plurality of layers; generating multi-scale features for the salient regions by probing the activation patterns of the CNN at different layers; using an unsupervised clustering technique, clustering the multi-scale features to identify key attributes captured by the CNN; mapping from a histogram of the key attributes onto probabilities for a set of object categories; classifying at least one object or scene in the intensity image as belonging to an object category using the probabilities; and controlling a vehicle component based on the object category causing the vehicle component to perform an automated action.
A bag comprising: a woven pocket organizer insert (110, 310) constructed from a multi-layered woven fabric, the multi-layered woven fabric having at least two layers, the layers forming a plurality of pockets (130, 330) defined by seaming woven regions (220, 450), and each pocket comprising an opening along a top side of each pocket, capable of receiving a storable object; and a bag compartment having walls defining an interior bag cavity, and at least one attachment point securing the woven pocket organizer insert (110, 310) to at least one of the walls defining the bag interior and wherein the pocket organizer insert (110, 310) is woven from a single set of continuous filaments.
An electrostatic chuck assembly, comprising: a body having chucking electrodes disposed therein, the body having an outer edge connecting a frontside surface and a backside surface; and a wafer spacing mask formed on the frontside surface, the wafer spacing mask having a plurality of mesas, the mesas comprising elongated features having long axes, the elongated features being arranged in concentric rows emanating from a center, wherein the long axes of the elongated features in each concentric row are radially aligned from the center to the outer edge, the wafer spacing mask having a plurality of radially aligned gas passages defined between the elongated features; and wherein at least one round feature is radially aligned with at least two of the elongated features. a body having chucking electrodes disposed therein, the body having an outer edge connecting a frontside surface and a backside surface; and a wafer spacing mask formed on the frontside surface, the wafer spacing mask having a plurality of mesas, the mesas comprising elongated features having long axes, the elongated features being arranged in concentric rows emanating from a center, wherein the long axes of the elongated features in each concentric row are radially aligned from the center to the outer edge, the wafer spacing mask having a plurality of radially aligned gas passages defined between the elongated features; and wherein at least one round feature is radially aligned with at least two of the elongated features.
A mobile terminal for providing a content push service, the mobile terminal comprising: a memory for storing applications for receiving various push contents and an application operation module for executing the applications; and a controller for receiving an activation request of the application operation module, which is to be connected to a server through a user datagram protocol, UDP, port, from the server, for activating the application operation module that is stored in the memory for executing an application stored in the memory for receiving push contents provided by the server through the UDP port; wherein, the controller is adapted to set the UDP port between the mobile terminal and the server and activate the application operation module, and the mobile terminal is adapted to execute the push contents through the executed application. a memory for storing applications for receiving various push contents and an application operation module for executing the applications; and a controller for receiving an activation request of the application operation module, which is to be connected to a server through a user datagram protocol, UDP, port, from the server, for activating the application operation module that is stored in the memory for executing an application stored in the memory for receiving push contents provided by the server through the UDP port; wherein, the controller is adapted to set the UDP port between the mobile terminal and the server and activate the application operation module, and the mobile terminal is adapted to execute the push contents through the executed application.
Connection assembly for connecting cables, comprising a first connection subassembly comprising a first connection shell capable of surrounding the end of at least one first bundle of cables arriving in a direction of attachment ( x), and a second connection subassembly comprising a second connection shell capable of surrounding the end of at least one second bundle of cables, the second shell being able to be assembled in an orifice of a support plate independently of the first shell, the first shell being able to be brought towards the second shell and the second bundle of cables immobilized in an orifice of a support plate until it comes to bear upon the second shell so as to be facing the first and the second bundles of cables, the first and the second connection subassemblies respectively comprising at least one first and one second locking elements complementing one another, and comprising guiding means capable of guiding the two locking elements relative to one another so as to bring them from a non-locked position to a locked position of the connection assembly, in which the assembly comprises a ramp device, comprising a slide, the slide being able to slide relative to the second shell and relative to the first shell, in a locking direction ( y) substantially at right angles to the attachment direction ( x), and capable of transmitting, in such a movement, a locking force making it possible to bring together the two shells (1, 2) in the axial direction (x) until their axial distance corresponds to the locked position of the connection assembly, characterized in that the slide comprises a guiding portion, which, at the time of the locking operation, slides by pressing axially on a shoulder of the first shell oriented outwards from the first shell, and comprises an attachment portion passing axially through the first shell from the guiding portion.
A method for separating a water from a liquid mixture, wherein the liquid mixture comprises the water and a polymer solution, the polymer solution comprises a polymer and a non-aqueous organic solvent, the polymer solution has a viscosity of 300 mPa·s or more and 100,000 mPa·s or less, the method for separating the water from a liquid mixture comprises a step of introducing the liquid mixture in a liquid cyclone-type separation device to separate the water from the liquid mixture, the liquid cyclone-type separation device comprises a hollow cylindrical part and a hollow conical part at a lower side of the cylindrical part, the cylindrical part comprises a carry-in passage, introducing the liquid mixture in the liquid cyclone-type separation device, and a collection opening, characterized by collecting the polymer solution separated from the liquid mixture, and the conical part comprises a discharge opening, discharging the water separated from the liquid mixture, provided at the lower tip of a reduced diameter.
An apparatus to display (704, 900) a plurality of resolutions, comprising: a display (704, 900) to present video; at least one panel communicatively coupled to the display (704, 900), comprising: a background buffer to store a background plane (706, 920) at a first resolution; a plane of interest (708, 922) buffer to store a plane of interest at a second resolution; and a compositor to composite the plane of interest (708, 922) on top of the background plane (706, 920), the apparatus further comprises a motion biased foveated renderer to identify a future focus area based on focus information and motion information of a user and to rotate an area of focus based on the motion information, wherein the foveated renderer produces separate plane surfaces for the field of view covered by the user's fovea and for the background, wherein the focus information includes one or more of a focal point, a focus area, an eye position, eye motion, pupil size, pupil dilation, depth of focus, DOF, a content focal point, a content focus object, and a content focus area, and the motion information is used to adjust performance parameters of the graphics system based on at least one of the user moving their body, where an application wants the user to turn their head, eyes, and/or body, and/or where the user is predicted to turn their head, eyes, and/or body in the future. a display (704, 900) to present video; at least one panel communicatively coupled to the display (704, 900), comprising: a background buffer to store a background plane (706, 920) at a first resolution; a plane of interest (708, 922) buffer to store a plane of interest at a second resolution; and a compositor to composite the plane of interest (708, 922) on top of the background plane (706, 920), a background buffer to store a background plane (706, 920) at a first resolution; a plane of interest (708, 922) buffer to store a plane of interest at a second resolution; and a compositor to composite the plane of interest (708, 922) on top of the background plane (706, 920), the apparatus further comprises a motion biased foveated renderer to identify a future focus area based on focus information and motion information of a user and to rotate an area of focus based on the motion information, wherein the foveated renderer produces separate plane surfaces for the field of view covered by the user's fovea and for the background, wherein the focus information includes one or more of a focal point, a focus area, an eye position, eye motion, pupil size, pupil dilation, depth of focus, DOF, a content focal point, a content focus object, and a content focus area, and the motion information is used to adjust performance parameters of the graphics system based on at least one of the user moving their body, where an application wants the user to turn their head, eyes, and/or body, and/or where the user is predicted to turn their head, eyes, and/or body in the future. the user moving their body, where an application wants the user to turn their head, eyes, and/or body, and/or where the user is predicted to turn their head, eyes, and/or body in the future.
A control method, comprising: receiving, by a router, data sent by a first device to a second device, wherein the data carries an identifier of an I/O device, and wherein the first device is a CPU and the second device is the I/O device, or the first device is the I/O device and the second device is the CPU; determining, by the router, according to the identifier of the I/O device and correspondences between I/O devices and controllers, a controller corresponding to the identifier of the I/O device; sending, by the router, the data to the controller corresponding to the identifier of the I/O device, so that the controller processes the data according to firmware code stored in the controller; receiving, by the router, the processed data sent by the controller; and sending, by the router, the processed data to the second device; before the determining of the controller corresponding to the identifier of the I/O device according to the identifier of the I/O device and correspondences between I/O devices and controllers, modifying the firmware code of the controller according to a functional requirement of the I/O device when changing the functional requirement of the I/O device. receiving, by a router, data sent by a first device to a second device, wherein the data carries an identifier of an I/O device, and wherein the first device is a CPU and the second device is the I/O device, or the first device is the I/O device and the second device is the CPU; determining, by the router, according to the identifier of the I/O device and correspondences between I/O devices and controllers, a controller corresponding to the identifier of the I/O device; sending, by the router, the data to the controller corresponding to the identifier of the I/O device, so that the controller processes the data according to firmware code stored in the controller; receiving, by the router, the processed data sent by the controller; and sending, by the router, the processed data to the second device; before the determining of the controller corresponding to the identifier of the I/O device according to the identifier of the I/O device and correspondences between I/O devices and controllers, modifying the firmware code of the controller according to a functional requirement of the I/O device when changing the functional requirement of the I/O device.
A burner for a combustor of a gas turbine, the burner comprises a body having a surface and an axis, a fuel lance, an igniter and a main air flow passage or passages, the fuel lance has an axis and comprises a fuel lance body defining a fuel flow passage and a liquid fuel tip attached to the fuel lance body, the liquid fuel tip comprises a fuel outlet and an array of air passages having outlets arranged about the fuel outlet, wherein fuel flows through the fuel flow passage and liquid fuel tip and issues from the fuel outlet and wherein the outlets are arranged outside a blank sector of a circumference around the fuel outlet, the blank sector is defined by an angle between and including 30° and 160° about the axis, the air from the outlets immediately impinges on the liquid fuel issuing from the fuel outlet and creates an asymmetric pilot vortex of fuel and air, wherein the outlets and the fuel outlet are located at or near to the surface, the igniter is at least partly housed within the body and has an end face, the end face is located at or near to the surface, characterised in that the main air flow passage is arranged to direct at least a part of a main air flow over the fuel lance and then over the igniter, the blank sector has a centre-line and the centre-line is angled between +120° and -120° from a radial line from the axis and passing through the fuel lance.
A method of preparing a carrier web having printed images spaced at a first repeat distance with impressed images in registration with the printed images comprising: providing a carrier web with printed images spaced at a first repeat distance and corresponding registration marks; providing a master web with impressing images at a second repeat distance and corresponding registration marks where the second repeat distance is less than the first repeat distance; applying an energy curable resin coating over the printing on the carrier web; stretching the master web to align the registration marks (6, 37) of the carrier web and the master web; nipping the master web to the coated carrier web at a nip location point; applying curing energy; and separating the master from the carrier web to leave an impressed image on the carrier web in registration with the printed images on the carrier web. providing a carrier web with printed images spaced at a first repeat distance and corresponding registration marks; providing a master web with impressing images at a second repeat distance and corresponding registration marks where the second repeat distance is less than the first repeat distance; applying an energy curable resin coating over the printing on the carrier web; stretching the master web to align the registration marks (6, 37) of the carrier web and the master web; nipping the master web to the coated carrier web at a nip location point; applying curing energy; and separating the master from the carrier web to leave an impressed image on the carrier web in registration with the printed images on the carrier web.
A distributed computer system that includes a plurality of worker nodes that are coupled together via a data communication network to exchange data therebetween, wherein the worker nodes are configured to process data therein, wherein operation of the distributed computer system is coordinated by employing a distributed ledger arrangement, wherein the distributed computer system is configured to execute at least one smart contract via use of the distributed ledger arrangement, wherein the distributed computer system further comprises a scheme for mapping cryptographic keys to a specific shard in the distributed ledger arrangement such that the scheme can be modified by a user worker node and/or an operator worker node of the distributed ledger arrangement; a pricing mechanism, for specifying a transaction cost, such that it maximises system throughput by incentivising user worker nodes to submit transactions that are restricted to a single shard, algorithms for specifying internal logic for wallet software that accesses shards such that the transaction cost is minimised; and wherein the distributed computer system is configured to execute procedures for reorganizing state databases when shards are duplicated or merged, such that subsequent transactions are maximally executed in parallel, characterized in that for each shard, the scheme for mapping cryptographic keys is configured to employ an index that maps a public key to a specific shard and to employ an account index that allows a single public key to map to different addresses within a same shard. a scheme for mapping cryptographic keys to a specific shard in the distributed ledger arrangement such that the scheme can be modified by a user worker node and/or an operator worker node of the distributed ledger arrangement; a pricing mechanism, for specifying a transaction cost, such that it maximises system throughput by incentivising user worker nodes to submit transactions that are restricted to a single shard, algorithms for specifying internal logic for wallet software that accesses shards such that the transaction cost is minimised; and wherein the distributed computer system is configured to execute procedures for reorganizing state databases when shards are duplicated or merged, such that subsequent transactions are maximally executed in parallel, characterized in that for each shard, the scheme for mapping cryptographic keys is configured to employ an index that maps a public key to a specific shard and to employ an account index that allows a single public key to map to different addresses within a same shard.
A system for determining cardiovascular information for a patient, the system comprising: at least one computer system comprising means adapted for: retrieving data for each of a plurality of patients of a first population, the data including an invasively obtained measurement of blood flow characteristic; and a blood flow characteristic computed based at least in part on a respective boundary condition of a three-dimensional anatomical model; and determining boundary-conditions-tuning-characteristics for said patient by: receiving initial boundary-conditions-tuning-characteristics, iteratively comparing the computed blood flow characteristics to the invasively-measured blood flow characteristics of each of the patients of said first population, adjusting the initial boundary-conditions-tuning-characteristics and recomputing the computed blood flow characteristics based on the adjusted boundary-condition-tuning-characteristics, to determine boundary-conditions-tuning-characteristics that tune the respective boundary conditions to reduce a difference between the computed blood flow characteristics and the invasively-measured blood flow characteristics of each of the patients of said first population; generating a patient-specific boundary conditions model for said patient; using the determined boundary-conditions-tuning-characteristics to tune the patient-specific boundary conditions model; and using the tuned patient-specific boundary conditions model to computationally analyze blood flow characteristics of the patient. the data including an invasively obtained measurement of blood flow characteristic; and a blood flow characteristic computed based at least in part on a respective boundary condition of a three-dimensional anatomical model; and receiving initial boundary-conditions-tuning-characteristics, iteratively comparing the computed blood flow characteristics to the invasively-measured blood flow characteristics of each of the patients of said first population, adjusting the initial boundary-conditions-tuning-characteristics and recomputing the computed blood flow characteristics based on the adjusted boundary-condition-tuning-characteristics, to determine boundary-conditions-tuning-characteristics that tune the respective boundary conditions to reduce a difference between the computed blood flow characteristics and the invasively-measured blood flow characteristics of each of the patients of said first population;
An in vitro method for diagnosing a breast cancer in a subject, comprising the steps of: a) determining from a biological fluid sample of a subject the protein expression level of at least two biomarkers selected from the group consisting of Olfactomedin-4, Neudesin and Desmoplakin, wherein said at least two biomarkers are Olfactomedin-4 and Neudesin; and b) comparing said expression level with a reference expression level of said biomarker. a) determining from a biological fluid sample of a subject the protein expression level of at least two biomarkers selected from the group consisting of Olfactomedin-4, Neudesin and Desmoplakin, wherein said at least two biomarkers are Olfactomedin-4 and Neudesin; and b) comparing said expression level with a reference expression level of said biomarker.