mhurhangee/ep-ind-claims huggingface dataset:
A vehicle imaging station comprising a camera array including four cameras (106, 108, 110, 112) for imaging a vehicle as it passes through a vehicle imaging volume, the vehicle imaging station comprising: one or more support structures; first and second cameras attached to the one or more support structures and located on a first side of the vehicle imaging volume; and third and fourth cameras attached to the one or more support structures and located on a second side of the vehicle imaging volume, opposite to the first side, wherein that the first camera is located at a first height and is angled to capture one or more images of a front of a vehicle as it enters the vehicle imaging volume, and wherein the second camera is located at a second height, greater than the first height and is angled to capture one or more images of a rear of a vehicle as it exits the vehicle imaging volume, and the third camera is located at the first height and is angled to capture one or more images of the front of a vehicle as it enters the vehicle imaging volume and the fourth camera is located at the second height and is angled to capture one or more images of a rear of a vehicle as it exits the vehicle imaging volume. one or more support structures; first and second cameras attached to the one or more support structures and located on a first side of the vehicle imaging volume; and third and fourth cameras attached to the one or more support structures and located on a second side of the vehicle imaging volume, opposite to the first side, wherein that the first camera is located at a first height and is angled to capture one or more images of a front of a vehicle as it enters the vehicle imaging volume, and wherein the second camera is located at a second height, greater than the first height and is angled to capture one or more images of a rear of a vehicle as it exits the vehicle imaging volume, and the third camera is located at the first height and is angled to capture one or more images of the front of a vehicle as it enters the vehicle imaging volume and the fourth camera is located at the second height and is angled to capture one or more images of a rear of a vehicle as it exits the vehicle imaging volume.
A communication control device comprising: an obtaining unit configured to, in a radio communication system including a first base station to which a first terminal is connected, and a second base station to which a second terminal is connected by secondarily using a frequency channel which is shared with the first base station, obtain a first quality report containing a communication quality indicator measured by the first terminal and a second quality report containing a communication quality indicator measured by the second terminal; and an interference control unit configured to instruct the second base station to reduce transmission power, when it is determined that adverse interference is present in the radio communication system, based on the communication quality indicators contained in the quality reports obtained by the obtaining unit, wherein the first quality report and the second quality report contain a received power indicator for a reference signal, wherein the interference control unit is configured to estimate a distance between the first terminal and the first base station to which the first terminal is connected, from the received power indicator, and to determine that the adverse interference is present, if the communication quality indicator does not satisfy allowable quality depending on the estimated distance. an obtaining unit configured to, in a radio communication system including a first base station to which a first terminal is connected, and a second base station to which a second terminal is connected by secondarily using a frequency channel which is shared with the first base station, obtain a first quality report containing a communication quality indicator measured by the first terminal and a second quality report containing a communication quality indicator measured by the second terminal; and an interference control unit configured to instruct the second base station to reduce transmission power, when it is determined that adverse interference is present in the radio communication system, based on the communication quality indicators contained in the quality reports obtained by the obtaining unit, wherein the first quality report and the second quality report contain a received power indicator for a reference signal, wherein the interference control unit is configured to estimate a distance between the first terminal and the first base station to which the first terminal is connected, from the received power indicator, and to determine that the adverse interference is present, if the communication quality indicator does not satisfy allowable quality depending on the estimated distance.
A method of locating a secondary intracorporeal device after performing imaging with an intravascular or intracardiac imaging catheter, wherein the imaging catheter comprises an ultrasonic imaging device, and wherein the imaging catheter is configured for three-dimensional scanning, and wherein the secondary intracorporeal device comprises one or more ultrasonic beacon transducers having a combined broad angular response, the method comprising, after performing a scanning operation with the imaging catheter to scan a three-dimensional imaging volume and detect signals associated with received ultrasound imaging energy and communication signals emitted by one or more of the ultrasound beacon transducers: processing signals associated with the received ultrasonic imaging energy to generate an image; processing the signals to identify a communication signal that was received, when a given imaging A-scan vector was directed towards a given ultrasound beacon transducer on the secondary intracorporeal device; and processing the communication signal to locate the secondary intracorporeal device relative to the imaging catheter, based on the direction of the given imaging A-scan vector and a time delay associated with the communication signal. processing signals associated with the received ultrasonic imaging energy to generate an image; processing the signals to identify a communication signal that was received, when a given imaging A-scan vector was directed towards a given ultrasound beacon transducer on the secondary intracorporeal device; and processing the communication signal to locate the secondary intracorporeal device relative to the imaging catheter, based on the direction of the given imaging A-scan vector and a time delay associated with the communication signal.
An electronic apparatus manufacturing cell defining an electronic apparatus manufacturing cell envelope having a lower frame; an upper frame supported by the lower frame, the upper frame comprising a first side and a second opposing side, the first side and second opposing side of the upper frame together defining boundaries of the cell envelope; the electronic apparatus manufacturing cell comprising: an infeed conveyor supported on the lower frame and having a first end situated outside of the cell envelope beyond the first side of the upper frame, and a second end situated inside the cell envelope and proximal to the second opposing side of the upper frame, the infeed conveyor extending from a point outside of the electronic apparatus manufacturing cell envelope on the first side to a point inside of the envelope; a pass conveyor supported by the lower frame and situated parallel and adjacent to the infeed conveyor, the pass conveyor having a first end situated inside the cell envelope and proximal to the first side of the upper frame, and a second end situated outside of the cell envelope beyond the second opposing side of the upper frame; the pass conveyor extending from a point inside the electronic apparatus manufacturing cell envelope to a point outside of the electronic apparatus manufacturing cell envelope; and a processing station for processing an electronic apparatus within the manufacturing cell; means for transferring the electronic apparatus between the infeed conveyor, the processing station, and a reject conveyor, extending from a point inside the electronic apparatus manufacturing cell envelope to a point outside of the electronic apparatus manufacturing cell envelope. an infeed conveyor supported on the lower frame and having a first end situated outside of the cell envelope beyond the first side of the upper frame, and a second end situated inside the cell envelope and proximal to the second opposing side of the upper frame, the infeed conveyor extending from a point outside of the electronic apparatus manufacturing cell envelope on the first side to a point inside of the envelope; a pass conveyor supported by the lower frame and situated parallel and adjacent to the infeed conveyor, the pass conveyor having a first end situated inside the cell envelope and proximal to the first side of the upper frame, and a second end situated outside of the cell envelope beyond the second opposing side of the upper frame; the pass conveyor extending from a point inside the electronic apparatus manufacturing cell envelope to a point outside of the electronic apparatus manufacturing cell envelope; and a processing station for processing an electronic apparatus within the manufacturing cell; means for transferring the electronic apparatus between the infeed conveyor, the processing station, and a reject conveyor, extending from a point inside the electronic apparatus manufacturing cell envelope to a point outside of the electronic apparatus manufacturing cell envelope.
Particulate biomaterial formulated as a filler or substitute medium for bone tissue, CHARACTERIZED in that the biomaterial contains particles having non-prismatic, semi-spherical, geodesic shapes, wherein the particles bear a surface which is concave on one side and convex on the other.
Base element for securing a building element with mounting holes which are recessed in a metallic base body which is coated with an elastomer, characterised in that the mounting holes form at least two hole patterns (A; B) and at least one of the hole patterns (15A; 15B) is unusable because of the formation of the elastomer on the base body.
A processor-implemented liveness test method comprising: obtaining a colour image including an object and an infrared, "IR," image including the object using an integrated image sensor; performing a first liveness test, implemented using a neural network-based first liveness test model, using the colour image as an input and comprising determining whether the integrated image sensor obtained a colour image of a material IR image of the object; performing a second liveness test, implemented using a neural network-based second liveness test model, using the IR image as an input and comprising determining whether the integrated image sensor obtained an IR image of a material colour image of the object; and determining a liveness of the object based on a result of the first liveness test and a result of the second liveness test, wherein the integrated image sensor comprises a pixel array configured to obtain both a colour value and an IR value, wherein the obtaining comprises: separating the colour value and the IR value; and generating the colour image and the IR image based on a result of the separating. obtaining a colour image including an object and an infrared, "IR," image including the object using an integrated image sensor; performing a first liveness test, implemented using a neural network-based first liveness test model, using the colour image as an input and comprising determining whether the integrated image sensor obtained a colour image of a material IR image of the object; performing a second liveness test, implemented using a neural network-based second liveness test model, using the IR image as an input and comprising determining whether the integrated image sensor obtained an IR image of a material colour image of the object; and determining a liveness of the object based on a result of the first liveness test and a result of the second liveness test, wherein the integrated image sensor comprises a pixel array configured to obtain both a colour value and an IR value, wherein the obtaining comprises: separating the colour value and the IR value; and generating the colour image and the IR image based on a result of the separating. separating the colour value and the IR value; and generating the colour image and the IR image based on a result of the separating.
A use of a device, comprising a flash smelting furnace, comprising a waste heat boiler connected to the flash smelting furnace for discharging and cooling down waste gases from the flash smelting furnace for obtaining or for enrichment, respectively, of copper or nickel, wherein the flash smelting furnace has a reaction shaft, a vertical riser shaft and a hearth connecting the reaction shaft to the riser shaft for accommodating a copper-containing or nickel-containing melt, wherein the waste heat boiler has a first boiler section, which is connected to the riser shaft, is vertically oriented or is substantially vertically oriented, respectively, wherein the first vertical boiler section is designed with the proviso that the waste gas or process gas, respectively, is cooled down to a temperature of between 800 and 1000°C, wherein a second vertical boiler section is connected to the first vertical boiler section, and wherein the waste gas flows vertically downwards through the second vertical boiler section, wherein the second vertical boiler section is designed with the proviso that the waste gas is cooled down therein to a temperature of between 620 and 780°C.
A processor implemented method comprising: dividing, by one or more processors, each frame from an acquired plurality of frames of a streaming media into a plurality of segments having a maximum size limited by a maximum transmission unit, MTU, associated with an underlying network of transmission of the plurality of media frames; analyzing, by the one or more processors, the plurality of segments for one or more critical characteristics at a video consumer end and identifying one or more critical segments from the plurality of segments, wherein the characteristics include at least one of position, segment length and video format of the streaming media, wherein the one or more critical segments are transmitted by a confirmable, CON, message and the remaining segments from the plurality of segments are transmitted by a non-confirmable, NON, message using Constrained Application Protocol, CoAP, wherein the non-confirmable, NON, message is accompanied by a No-Response option; adapting transmission semantics, by the one or more processors, in real-time, by utilizing the characteristics of the identified one or more critical segments and transmitting, by one or more processors, the plurality of segments as REpresentational State Transfer, RESTful, requests and aborting transmission of the remaining segments from the plurality of segments associated with a frame, in the event that transmitting of the one or more critical segments by the CON message is unsuccessful. dividing, by one or more processors, each frame from an acquired plurality of frames of a streaming media into a plurality of segments having a maximum size limited by a maximum transmission unit, MTU, associated with an underlying network of transmission of the plurality of media frames; analyzing, by the one or more processors, the plurality of segments for one or more critical characteristics at a video consumer end and identifying one or more critical segments from the plurality of segments, wherein the characteristics include at least one of position, segment length and video format of the streaming media, wherein the one or more critical segments are transmitted by a confirmable, CON, message and the remaining segments from the plurality of segments are transmitted by a non-confirmable, NON, message using Constrained Application Protocol, CoAP, wherein the non-confirmable, NON, message is accompanied by a No-Response option; adapting transmission semantics, by the one or more processors, in real-time, by utilizing the characteristics of the identified one or more critical segments and transmitting, by one or more processors, the plurality of segments as REpresentational State Transfer, RESTful, requests and aborting transmission of the remaining segments from the plurality of segments associated with a frame, in the event that transmitting of the one or more critical segments by the CON message is unsuccessful.
A mobile terminal comprising: a display module; and a camera; and a short-range communication module configured to perform short-range communication, the mobile terminal characterized in that it comprises: a controller configured to: search for at least one electronic device available for short-range communication via the short-range communication module, acquire location information and identification information of the at least one searched electronic device from the at least one searched electronic device, display, on the display module, an image reflecting a real space, the image being an image received through the camera, and determine whether a first device among the at least one searched electronic device is within the displayed image, display, on the display module, the identification information corresponding to the first device on a location of the first device within the displayed image based on the acquired location information, wherein the identification information comprises at least one of a communication state, a communication speed and a remaining memory capacity of the first device. a display module; and a camera; and a short-range communication module configured to perform short-range communication, the mobile terminal characterized in that it comprises: a controller configured to: search for at least one electronic device available for short-range communication via the short-range communication module, acquire location information and identification information of the at least one searched electronic device from the at least one searched electronic device, display, on the display module, an image reflecting a real space, the image being an image received through the camera, and determine whether a first device among the at least one searched electronic device is within the displayed image, display, on the display module, the identification information corresponding to the first device on a location of the first device within the displayed image based on the acquired location information, wherein the identification information comprises at least one of a communication state, a communication speed and a remaining memory capacity of the first device. search for at least one electronic device available for short-range communication via the short-range communication module, acquire location information and identification information of the at least one searched electronic device from the at least one searched electronic device, display, on the display module, an image reflecting a real space, the image being an image received through the camera, and determine whether a first device among the at least one searched electronic device is within the displayed image, display, on the display module, the identification information corresponding to the first device on a location of the first device within the displayed image based on the acquired location information, wherein the identification information comprises at least one of a communication state, a communication speed and a remaining memory capacity of the first device.
A method for processing a Tandem Connection Monitoring, TCM, level, characterized by comprising: obtaining a route of a service which needs to be configured TCM, and obtaining TCM segments on the route of the service, wherein a TCM segment is a segment, including a start point and an end point, between two service nodes on the route of the service; and determining a TCM segment which needs to be configured from the obtained TCM segments, and allocating a TCM level for the TCM segment which needs to be configured according to a segment relationship between the TCM segment which needs to be configured and a configured TCM segment, wherein the configured TCM segment is a TCM segment to which a TCM level is configured and the TCM segment which needs to be configured is a TCM segment to which a TCM level is not configured. obtaining a route of a service which needs to be configured TCM, and obtaining TCM segments on the route of the service, wherein a TCM segment is a segment, including a start point and an end point, between two service nodes on the route of the service; and determining a TCM segment which needs to be configured from the obtained TCM segments, and allocating a TCM level for the TCM segment which needs to be configured according to a segment relationship between the TCM segment which needs to be configured and a configured TCM segment, wherein the configured TCM segment is a TCM segment to which a TCM level is configured and the TCM segment which needs to be configured is a TCM segment to which a TCM level is not configured.
A method for facilitating Machine Type Communication, MTC, in a wireless communications system, the method comprising: receiving, at an MTC device, a counter to indicate a system information configuration, wherein the counter comprises one or more bits reflecting the system information configuration; and determining, at the MTC device, the system information configuration from multiple system information configurations utilizing the received counter, based on a mapping of each counter value to one of said multiple system information configurations. receiving, at an MTC device, a counter to indicate a system information configuration, wherein the counter comprises one or more bits reflecting the system information configuration; and determining, at the MTC device, the system information configuration from multiple system information configurations utilizing the received counter, based on a mapping of each counter value to one of said multiple system information configurations.
Facility for distributing liquefied hydrogen comprising a source of gaseous hydrogen, a liquefier, at least one liquid hydrogen store, the liquefier comprising an inlet connected to the source and an outlet connected to an inlet of the store via a liquid circuit so as to store therein liquefied hydrogen produced by the liquefier, the facility comprising a liquid filling circuit provided with a first end connected to the store and a second end intended to be removably connected to a first end of a mobile liquid tank to be filled such as a semitrailer, the facility further comprising a gas recovery circuit provided with a first end intended to be removably connected to a second end of said tank and a second end connected to a receiving member of the facility, for example an inlet of the liquefier, the gas recovery circuit comprising a pressure and/or flow rate regulation member, such as a valve making it possible to lower the pressure in the mobile liquid tank to a determined filling pressure (Pr), the facility comprising an electronic control member comprising a microprocessor configured to control all or part of the facility, the electronic control member being configured to receive at least one signal requesting filling of a mobile liquid tank, the facility being characterized in that the pressure and/or flow rate regulation member is adjustable and in that the electronic control member is configured to control the latter so as to regulate the pressure level in a mobile liquid tank to a determined filling pressure (Pr) as a function of a filling request signal received.