mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a provider client device, a route for a provider of a service to travel to a destination; receiving, by the provider client device, a view of an environment as depicted from an image capture point (606, 608) at or near the destination of the route, wherein the view of the environment was previously captured by an imaging device at the image capture point, the view of the environment including a marker representing a meeting point selected by a user of the service as a point within the view where the user will be waiting for the provider; monitoring, by the provider client device, traversal of the route to the destination to determine a location of the provider client device; and responsive to determining that the provider client device is within a threshold distance of the image capture point based on the location of the provider client device, displaying, on the provider client device, the view of the environment including the marker representing the meeting point for the user. receiving, by a provider client device, a route for a provider of a service to travel to a destination; receiving, by the provider client device, a view of an environment as depicted from an image capture point (606, 608) at or near the destination of the route, wherein the view of the environment was previously captured by an imaging device at the image capture point, the view of the environment including a marker representing a meeting point selected by a user of the service as a point within the view where the user will be waiting for the provider; monitoring, by the provider client device, traversal of the route to the destination to determine a location of the provider client device; and responsive to determining that the provider client device is within a threshold distance of the image capture point based on the location of the provider client device, displaying, on the provider client device, the view of the environment including the marker representing the meeting point for the user.
A method of manufacturing an object, comprising: depositing a first plurality of layers of a construction material; selectively binding portions of each deposited layer of the first plurality of layers to form a green support body; depositing a second plurality of layers of a construction material; selectively binding portions of each deposited layer of the second plurality of layers to form a green object body supported by the green support body, the support body being separate from the object body; cleaning the green object body and the green support body;and sintering the green support body together with the green object body supported by the green support body, wherein the support body has a supporting surface for supporting the object body, the supporting surface providing an intermittent contact surface for contacting with the object body during the sintering. depositing a first plurality of layers of a construction material; selectively binding portions of each deposited layer of the first plurality of layers to form a green support body; depositing a second plurality of layers of a construction material; selectively binding portions of each deposited layer of the second plurality of layers to form a green object body supported by the green support body, the support body being separate from the object body; cleaning the green object body and the green support body;and sintering the green support body together with the green object body supported by the green support body, wherein the support body has a supporting surface for supporting the object body, the supporting surface providing an intermittent contact surface for contacting with the object body during the sintering.
Method for flushing a capsule housing of a brine-water heat pump, in which a counterclockwise thermodynamic cycle is conducted by means of a hazardous, propane-containing working fluid in a closed, hermetically sealed working fluid circuit, and which is suitable for installation in a building and further comprises - a heat pump housing, - at least one compressor for working fluid, - at least one expansion device for working fluid, - at least two heat exchangers (18, 19) for working fluid, each with at least two connections for heat transfer fluids, - a capsule housing in the heat pump housing, which encloses all devices and fittings through which the working fluid flows, - a device for forced ventilation (106, 114) to the capsule housing, - at least one gas sensor in the capsule housing, the alarm of which activates the forced ventilation of the capsule housing, - an external connection with an air duct for purge air which is connected to the inside of the capsule housing and leads to the environment outside the building, - an activated carbon adsorber with a conveying fan, the outlet of the activated carbon adsorber being fed through connecting lines into the capsule housing and into the installation site of the air/brine/water heat pump and to a connection leading out of the building characterised in that depending on the detected gas concentration in the working fluid, either the forced ventilation to the outside of the building through the air duct or the forced ventilation through the activated carbon adsorber is activated. - a heat pump housing, - at least one compressor for working fluid, - at least one expansion device for working fluid, - at least two heat exchangers (18, 19) for working fluid, each with at least two connections for heat transfer fluids, - a capsule housing in the heat pump housing, which encloses all devices and fittings through which the working fluid flows, - a device for forced ventilation (106, 114) to the capsule housing, - at least one gas sensor in the capsule housing, the alarm of which activates the forced ventilation of the capsule housing, - an external connection with an air duct for purge air which is connected to the inside of the capsule housing and leads to the environment outside the building, - an activated carbon adsorber with a conveying fan, the outlet of the activated carbon adsorber being fed through connecting lines into the capsule housing and into the installation site of the air/brine/water heat pump and to a connection leading out of the building
Inductive fault current limiter, comprising: - a normally conducting primary coil assembly with a multiplicity of turns, and - a superconducting, short-circuited secondary coil assembly, wherein the primary coil assembly and the secondary coil assembly are disposed at least substantially coaxially with respect to each other and at least partially interleaved in each other, the secondary coil assembly comprising a first coil section and a second coil section, characterized in that the first coil section of the secondary coil assembly is disposed radially inside the turns of the primary coil assembly, and that the second coil section of the secondary coil assembly is disposed radially outside the turns of the primary coil assembly. - a normally conducting primary coil assembly with a multiplicity of turns, and - a superconducting, short-circuited secondary coil assembly, wherein the primary coil assembly and the secondary coil assembly are disposed at least substantially coaxially with respect to each other and at least partially interleaved in each other,
A mobile radio communication terminal device comprising: a receiver configured to receive one or more wireless signals from one or more mobile radio cells (302, 304, 306); a first circuit configured to determine, for each of the one or more mobile radio cells (302, 304, 306), a reliability metric (s) that is a quantitate value indicating the quality of wireless communications between that mobile radio cell (302, 304, 306) and the mobile radio communication terminal device or is obtained from a signal-power based measurement of that mobile radio cell; a third circuit configured to determine a mobile radio cell detection occurrence count for each of the one or more mobile radio cells (302, 304, 306) by incrementing the mobile radio cell detection occurrence count each time the first circuit detects a received wireless signal from that mobile radio cell; and a second circuit configured to perform a partial mobile radio cell search for one or more mobile radio cells (302, 304, 306) having a reliability metric (s) or mobile radio cell detection occurrence count that satisfies a predefined criterion. a receiver configured to receive one or more wireless signals from one or more mobile radio cells (302, 304, 306); a first circuit configured to determine, for each of the one or more mobile radio cells (302, 304, 306), a reliability metric (s) that is a quantitate value indicating the quality of wireless communications between that mobile radio cell (302, 304, 306) and the mobile radio communication terminal device or is obtained from a signal-power based measurement of that mobile radio cell; a third circuit configured to determine a mobile radio cell detection occurrence count for each of the one or more mobile radio cells (302, 304, 306) by incrementing the mobile radio cell detection occurrence count each time the first circuit detects a received wireless signal from that mobile radio cell; and a second circuit configured to perform a partial mobile radio cell search for one or more mobile radio cells (302, 304, 306) having a reliability metric (s) or mobile radio cell detection occurrence count that satisfies a predefined criterion.
A base station apparatus in a communication system serving a cell, configured to communicate with a user terminal, the apparatus comprising: means for broadcasting information on one or more neighboring cells supporting preconfigured uplink resources and information on request types supported by the one or more neighboring cells; means for receiving from a user terminal a request to utilize dedicated preconfigured uplink resources, the request comprising Physical Cell Identity of the previous base station with which the user terminal utilized dedicated preconfigured uplink resources prior camping on the base station and the User Equipment Identification of the user terminal in the previous base station; means for transmitting to the previous base station a message requesting configuration data related to dedicated preconfigured uplink resources of the user terminal and an indication that the previous base station may release the resources; means for receiving from the previous base station the configuration data; and means for restoring dedicated preconfigured uplink resources for the user terminal. means for broadcasting information on one or more neighboring cells supporting preconfigured uplink resources and information on request types supported by the one or more neighboring cells; means for receiving from a user terminal a request to utilize dedicated preconfigured uplink resources, the request comprising Physical Cell Identity of the previous base station with which the user terminal utilized dedicated preconfigured uplink resources prior camping on the base station and the User Equipment Identification of the user terminal in the previous base station; means for transmitting to the previous base station a message requesting configuration data related to dedicated preconfigured uplink resources of the user terminal and an indication that the previous base station may release the resources; means for receiving from the previous base station the configuration data; and means for restoring dedicated preconfigured uplink resources for the user terminal.
A device for blasting wheel sets of rail vehicles comprising at least one hermetically closed chamber and at least one multi-axle articulated arm robot tiltable in the chamber and having an effector which is a high-pressure jet nozzle (12 b), characterized by - two rails arranged on the bottom of the chamber and forming a track piece, - lift and turn means arranged on the bottom of the chamber and provided with o two pairs of drive wheels arranged directly beside the rails and acting onto one of the running surfaces of the wheels of the wheel set to be blasted, respectively, and o means for lifting the pairs of drive wheels together with the wheel set supported by the same and for driving the wheel set for the rotation about its axle shaft, and - two robots the stationary feet of which being arranged in a spaced condition with respect to one another outside of the operation range of the effector of the robot arms on a fictitious axis of the chamber extending transversely with respect to the rails. - two rails arranged on the bottom of the chamber and forming a track piece, - lift and turn means arranged on the bottom of the chamber and provided with o two pairs of drive wheels arranged directly beside the rails and acting onto one of the running surfaces of the wheels of the wheel set to be blasted, respectively, and o means for lifting the pairs of drive wheels together with the wheel set supported by the same and for driving the wheel set for the rotation about its axle shaft, and o two pairs of drive wheels arranged directly beside the rails and acting onto one of the running surfaces of the wheels of the wheel set to be blasted, respectively, and o means for lifting the pairs of drive wheels together with the wheel set supported by the same and for driving the wheel set for the rotation about its axle shaft, and - two robots the stationary feet of which being arranged in a spaced condition with respect to one another outside of the operation range of the effector of the robot arms on a fictitious axis of the chamber extending transversely with respect to the rails.
Device comprising a an edge-emitting semiconductor laser diode and a waveguide stripe, the width of which allowing a multimode propagation of radiation along the longitudinal axis of the waveguide stripe, wherein the waveguide stripe has at least one corrugated edge section along its longitudinal axis, wherein said corrugations are configured to provide additional radiation losses of higher-order lateral modes compared to the fundamental lateral mode by scattering radiation into the lateral directions, said losses providing that the output radiation is single-mode and that the far field has a single-lobe with small divergence, characterized in that - the waveguide stripe is arranged between a high-reflection rear facet and a low-reflection output facet of the edge-emitting semiconductor laser diode, and - the waveguide stripe comprises triangular-shape corrugations provided with saw-tooth orientation with respect to the laser output facet and with the orientation of the wider triangular side towards the laser's output facet or towards the laser's rear facet, wherein the triangular-shape corrugations are symmetric with respect to the longitudinal axis. wherein said corrugations are configured to provide additional radiation losses of higher-order lateral modes compared to the fundamental lateral mode by scattering radiation into the lateral directions, said losses providing that the output radiation is single-mode and that the far field has a single-lobe with small divergence, characterized in that - the waveguide stripe is arranged between a high-reflection rear facet and a low-reflection output facet of the edge-emitting semiconductor laser diode, and - the waveguide stripe comprises triangular-shape corrugations provided with saw-tooth orientation with respect to the laser output facet and with the orientation of the wider triangular side towards the laser's output facet or towards the laser's rear facet, wherein the triangular-shape corrugations are symmetric with respect to the longitudinal axis. - the waveguide stripe is arranged between a high-reflection rear facet and a low-reflection output facet of the edge-emitting semiconductor laser diode, and - the waveguide stripe comprises triangular-shape corrugations provided with saw-tooth orientation with respect to the laser output facet and with the orientation of the wider triangular side towards the laser's output facet or towards the laser's rear facet, wherein the triangular-shape corrugations are symmetric with respect to the longitudinal axis.
A method for encoding comprising: - obtaining a prediction value of a source value of a current color component of a sample of a block of a picture; - determining a mapped residual value from the source value of said current color component and from the prediction value using a mapping function; - encoding the mapped residual value into a bitstream; and, - signaling the mapping function in the bitstream, wherein the mapping function is derived such that original samples, once mapped by the mapping function, are distributed evenly in an overall codewords range using a histogram equalization; and wherein determining the mapped residual value comprises: - mapping the prediction value with the mapping function to obtain a mapped prediction value; - mapping the source value with the mapping function to obtain a mapped source value; - determining a mapped residual value representative of a subtraction of the mapped prediction value from the mapped source value - obtaining a prediction value of a source value of a current color component of a sample of a block of a picture; - determining a mapped residual value from the source value of said current color component and from the prediction value using a mapping function; - encoding the mapped residual value into a bitstream; and, - signaling the mapping function in the bitstream, wherein the mapping function is derived such that original samples, once mapped by the mapping function, are distributed evenly in an overall codewords range using a histogram equalization; and - mapping the prediction value with the mapping function to obtain a mapped prediction value; - mapping the source value with the mapping function to obtain a mapped source value; - determining a mapped residual value representative of a subtraction of the mapped prediction value from the mapped source value
A hematology control composition comprising a red blood cell component and an isotonic suspension medium including a serum albumin component and a cholesterol component, wherein the composition has a free fatty acid concentration of less than 4 mmol/liter; and wherein the serum albumin component is present at a concentration of from 30 grams/liter to 50 grams/liter; and wherein the serum albumin component comprises a ratio of serum albumin monomer to serum albumin dimer lower than 6:1; and wherein the cholesterol component is present at a concentration of from 400 mg/liter to 1200 mg/liter.
A mobile computing device with telephonic functionality comprising: an accelerometer for capturing data describing movement of the mobile computing device along one or more axes of motion; a proximity sensor configured to determine a distance between the mobile computing device and a surface in an environment external to the mobile computing device and generate a control signal responsive to the distance equaling a threshold value; a processor coupled to the accelerometer and to the proximity sensor; a memory including instructions configured to be executed by the processor, wherein the instructions when executed by the processor cause the processor to: execute an application for exchanging audio data with a remote device; receive a destination identifier identifying the remote device; and responsive to receiving data from the accelerometer describing movement of the mobile computing device in an upward direction along a first axis of the one or more axes of motion and to receiving the control signal from the proximity sensor, initiate a communication channel with the remote device; and a transceiver coupled to the processor for transmitting audio data to the remote device via the communication channel and receiving audio data from the remote device via the communication channel. an accelerometer for capturing data describing movement of the mobile computing device along one or more axes of motion; a proximity sensor configured to determine a distance between the mobile computing device and a surface in an environment external to the mobile computing device and generate a control signal responsive to the distance equaling a threshold value; a processor coupled to the accelerometer and to the proximity sensor; a memory including instructions configured to be executed by the processor, execute an application for exchanging audio data with a remote device; receive a destination identifier identifying the remote device; and responsive to receiving data from the accelerometer describing movement of the mobile computing device in an upward direction along a first axis of the one or more axes of motion and to receiving the control signal from the proximity sensor, initiate a communication channel with the remote device; and a transceiver coupled to the processor for transmitting audio data to the remote device via the communication channel and receiving audio data from the remote device via the communication channel.
A furnace system for combusting fuel and oxygen comprising: An oxy-fuel combustion vessel that receives fuel and oxygen for combustion therein, having an outlet end and at least one aperture (120, 122), that opens into an interior area defined by said oxy-fuel combustion vessel; an oxygen source to supply a gas stream of oxygen to the oxy-fuel combustion vessel; a flue duct coupled to said outlet end and in fluid communication with said interior area; a heat exchanger disposed in said flue duct for cooling at least one fluid flowing through said flue duct; the recirculation duct comprising a second conduit and a manifold, the second conduit extending from said flue duct, at a position downstream of said heat exchanger, to said at least one aperture (120, 122), and providing fluid communication between said flue duct and said interior area to provide greater mass flow to the oxy-fuel combustion vessel; and a conveying means for causing flow of at least one fluid through said recirculation duct into said interior area (114, 214), characterized in, that an eductor is positioned in the second conduit for facilitating flow of one or more fluids into the interior area of the combustion vessel in response to commands issued from a controller, and in that the oxygen source supplies oxygen to the eductor via a suitable piping. An oxy-fuel combustion vessel that receives fuel and oxygen for combustion therein, having an outlet end and at least one aperture (120, 122), that opens into an interior area defined by said oxy-fuel combustion vessel; an oxygen source to supply a gas stream of oxygen to the oxy-fuel combustion vessel; a flue duct coupled to said outlet end and in fluid communication with said interior area; a heat exchanger disposed in said flue duct for cooling at least one fluid flowing through said flue duct; the recirculation duct comprising a second conduit and a manifold, the second conduit extending from said flue duct, at a position downstream of said heat exchanger, to said at least one aperture (120, 122), and providing fluid communication between said flue duct and said interior area to provide greater mass flow to the oxy-fuel combustion vessel; and a conveying means for causing flow of at least one fluid through said recirculation duct into said interior area (114, 214), characterized in, that an eductor is positioned in the second conduit for facilitating flow of one or more fluids into the interior area of the combustion vessel in response to commands issued from a controller, and in that the oxygen source supplies oxygen to the eductor via a suitable piping.