mhurhangee/ep-ind-claims huggingface dataset:
A method of video decoding, the method comprising: determining a disparity vector for a current block in a current picture in a current view; determining a first reference block in a reference picture in a reference view based on a location in the reference picture to which the disparity vector refers based on the disparity vector starting from a bottom-right pixel in a center 2x2 sub-block within the current block; if the first reference block includes motion information, inter-prediction decoding the current block using the motion information for the first reference block; and, if the first reference block does not include motion information, determining a second reference block in the reference picture in the reference view based on a location in the reference picture to which the disparity vector refers based on the disparity vector starting from a top-left pixel in the center 2x2 sub-block within the current block, and if the second reference block includes motion information, inter-prediction decoding the current block using the motion information for the second reference block. determining a disparity vector for a current block in a current picture in a current view; determining a first reference block in a reference picture in a reference view based on a location in the reference picture to which the disparity vector refers based on the disparity vector starting from a bottom-right pixel in a center 2x2 sub-block within the current block; if the first reference block includes motion information, inter-prediction decoding the current block using the motion information for the first reference block; and, if the first reference block does not include motion information, determining a second reference block in the reference picture in the reference view based on a location in the reference picture to which the disparity vector refers based on the disparity vector starting from a top-left pixel in the center 2x2 sub-block within the current block, and if the second reference block includes motion information, inter-prediction decoding the current block using the motion information for the second reference block.
A system for enabling display of an image, the system comprising: a display comprising a transmissive portion (110, 310) and a reflective portion (130, 315), wherein the reflective portion presents at least one icon in an active mode and at least one notification in a sleep mode, wherein the at least one icon is used for manipulating content presented on the transmissive portion, and wherein the reflective portion is configured to recognize a gesture on a surface of the reflective portion, and to execute a function associated with the gesture, characterised in that the display includes: a first polarizing layer; a cover glass layer comprised of color filter-less glass disposed below the first polarizing layer; a thin film transistor glass layer disposed below and in direct contact with the cover glass layer; a second polarizing layer disposed below the TFT glass layer and not extending to the reflective portion (130, 315); and a backlight layer disposed below the second polarizing layer and not extending to the reflective portion (130, 315). a display comprising a transmissive portion (110, 310) and a reflective portion (130, 315), wherein the reflective portion presents at least one icon in an active mode and at least one notification in a sleep mode, wherein the at least one icon is used for manipulating content presented on the transmissive portion, and wherein the reflective portion is configured to recognize a gesture on a surface of the reflective portion, and to execute a function associated with the gesture, characterised in that the display includes: a first polarizing layer; a cover glass layer comprised of color filter-less glass disposed below the first polarizing layer; a thin film transistor glass layer disposed below and in direct contact with the cover glass layer; a second polarizing layer disposed below the TFT glass layer and not extending to the reflective portion (130, 315); and a backlight layer disposed below the second polarizing layer and not extending to the reflective portion (130, 315). a first polarizing layer; a cover glass layer comprised of color filter-less glass disposed below the first polarizing layer; a thin film transistor glass layer disposed below and in direct contact with the cover glass layer; a second polarizing layer disposed below the TFT glass layer and not extending to the reflective portion (130, 315); and a backlight layer disposed below the second polarizing layer and not extending to the reflective portion (130, 315).
A fish feed product comprising probiotic bacterial strain, wherein bacterial strain is Lactobacillus plantarum I-UL4 strain and deposited under the accession number 36838 at BIOTEC Culture Collection, for use in reducing faecal A. hydrophila count in fish.
A transmission device for a microelectromechanical system, said transmission device being able to transmit a movement and a force between a first zone and a second zone sealingly insulated from each other, said transmission device comprising a support extending in a plane, a transmission element (8, 408) rotatably movable with respect to the support by means of a pivot hinge with an axis of rotation parallel to the support plane, an aperture in the support characterised in that said aperture is passed through by the transmission element (8, 408) and at which the pivot hinge is disposed, the transmission element comprising at least one first transmission arm (20.1, 420.1) on one side of the support plane in one of the first and second zones and a second transmission arm (20.2, 420.2) on the other side of the support plane in the other of said first and second zones, and sealed insulation means disposed in the aperture, such that they sealingly insulate the first zone from the second zone and they allow the rotational movement of the transmission element (8, 408).
A method implemented by a workflow engine comprising: obtaining data from a plurality of distributed probes and network functions, NF, in one or more datacenters (12, 14) associated with a 5G core, 5GC, network, wherein the data relates to lifecycle management in the 5GC network and includes telecom data from the distributed probes and computing data from the NF; responsive to analyzing and correlating the telecom data and the computing data to detect anomalies that impact the lifecycle management, generating an alarm based on the analyzing based on detection of an anomaly that impacts the lifecycle management; and creating a workflow based on the alarm and pushing the workflow to the 5GC network via an orchestrator, wherein the workflow includes instantiating at least one distributed probe as a virtual network function, VNF, during operation of the 5GC network and responsive to the analyzing and correlating the telecom data, for obtaining specific sets of data, and wherein the at least one distributed probe is located in any of a user plane, a control plane, a radio access network and a fiber network. obtaining data from a plurality of distributed probes and network functions, NF, in one or more datacenters (12, 14) associated with a 5G core, 5GC, network, wherein the data relates to lifecycle management in the 5GC network and includes telecom data from the distributed probes and computing data from the NF; responsive to analyzing and correlating the telecom data and the computing data to detect anomalies that impact the lifecycle management, generating an alarm based on the analyzing based on detection of an anomaly that impacts the lifecycle management; and creating a workflow based on the alarm and pushing the workflow to the 5GC network via an orchestrator, wherein the workflow includes instantiating at least one distributed probe as a virtual network function, VNF, during operation of the 5GC network and responsive to the analyzing and correlating the telecom data, for obtaining specific sets of data, and wherein the at least one distributed probe is located in any of a user plane, a control plane, a radio access network and a fiber network.
A method of a network node of a cellular communication system for configuring a first cell of the cellular communication system in relation to a second cell of the cellular communication system, wherein a coverage area of the first cell and a coverage area of the second cell at least partly overlap, wherein the first cell is to be provided by a first base station (120, 110) of the cellular communication system and has a first bandwidth, and wherein the second cell is provided by a second base station of the cellular communication system and has a second bandwidth which is larger than the first bandwidth, characterized by comprising: selecting an offset between a first carrier frequency of the first cell and a second carrier frequency of the second cell, wherein a first spectrum range defined by the first carrier frequency and the first bandwidth is comprised within a second spectrum range defined by the second carrier frequency and the second bandwidth, and wherein the offset is selected such that placement of resource elements of control signaling of the second cell is coordinated with placement of resource elements of control signaling of the first cell to reduce collision between the control signaling of the first cell and the control signaling of the second cell; and configuring the first base station to provide the first cell based on the first carrier frequency. selecting an offset between a first carrier frequency of the first cell and a second carrier frequency of the second cell, wherein a first spectrum range defined by the first carrier frequency and the first bandwidth is comprised within a second spectrum range defined by the second carrier frequency and the second bandwidth, and wherein the offset is selected such that placement of resource elements of control signaling of the second cell is coordinated with placement of resource elements of control signaling of the first cell to reduce collision between the control signaling of the first cell and the control signaling of the second cell; and configuring the first base station to provide the first cell based on the first carrier frequency.
Apparatus for expanding plastics material parisons into plastics material containers by means of a liquid medium, with at least one transforming station which fills and expands the plastics material parisons with the liquid medium, with at least one common delivery device which delivers the liquid medium to the at least one transforming station, wherein the at least one transforming station has a filling device which fills the liquid medium into the plastics material parisons, wherein the at least one transforming station and/or the filling device has a throttle device which is suitable and intended for changing the volume flow of the liquid entering the plastics material parisons and characterised in that the apparatus has a first sensor device which detects a measured value which is characteristic for the through flow of the liquid through the filling device, wherein the characteristic measured value is a measured value which is characteristic for a flow cross-section and/or a flow rate.
A composition for ligating at least two oligonucleotides to produce a ligated oligonucleotide and amplifying the ligated oligonucleotide in a single reaction mixture comprising: a. at least a first and second probe, each probe being specifically bound to a target protein or analyte, and being adjoined to at least one type of oligonucleotide; b. a small footprint ligase; c. a ligation buffer; d. a splint oligonucleotide, wherein said splint oligonucleotide consists of a 3' end of four to nine bases in length and a 5' end of four to nine bases in length; and e. standard real-time PCR components. a. at least a first and second probe, each probe being specifically bound to a target protein or analyte, and being adjoined to at least one type of oligonucleotide; b. a small footprint ligase; c. a ligation buffer; d. a splint oligonucleotide, wherein said splint oligonucleotide consists of a 3' end of four to nine bases in length and a 5' end of four to nine bases in length; and e. standard real-time PCR components.
A method for a universal casting service, comprising: receiving, over a communication protocol, a casting request from a first client computing device (210, 220); initiating a first casting session to a first casting device; establishing a first queue for the first casting device in response to receiving a first media item from the first client computing device; during the first casting session, receiving, at the first casting device and over the communication protocol, a second casting request from a second client computing device (220,210) the second casting request including a second media item; adding the second client device to the first casting session, such that the first client device and the second client device are associated with the session; in response to receiving the second media item from the second client computing device, adding the second media item to the first queue such that the first casting device receives content from two different computing devices during a single casting session. receiving, over a communication protocol, a casting request from a first client computing device (210, 220); initiating a first casting session to a first casting device; establishing a first queue for the first casting device in response to receiving a first media item from the first client computing device; during the first casting session, receiving, at the first casting device and over the communication protocol, a second casting request from a second client computing device (220,210) the second casting request including a second media item; adding the second client device to the first casting session, such that the first client device and the second client device are associated with the session; in response to receiving the second media item from the second client computing device, adding the second media item to the first queue such that the first casting device receives content from two different computing devices during a single casting session.
A pivotable canopy roof of an air passenger stair or an air passenger bridge, the canopy roof comprising a flexible frame at its free front end, which is connected to a portal frame on the air passenger stair or air passenger bridge by way of two articulated arms (30, 30a) disposed next to each other in a spaced-apart relationship, wherein a bellows is disposed between the flexible frame and the portal frame, the first and second articulated arm (30, 30a) including an upper arm (31, 31 a) articulately disposed on the portal frame and a lower arm (35, 35a) articulately connected to the upper arm (31, 31 a), wherein the lower arm (35, 35a) comprises an end member (36, 36a), wherein the canopy roof comprises an actuation device for pivoting the canopy roof, wherein the actuation device comprises at least one traction means, wherein at least one roll (41, 47) is provided in the area of the portal frame for the at least one traction means, characterized in that the end member of the at least one first articulated arm is laterally pivotable by way of a pivot joint, the traction means being laterally articulated on the end member of the first articulated arm in such a manner that the end member is pulled straight when retracting the first articulated arm.
A method, with a short message service center operating in a wireless communication system comprising a plurality of wireless devices, for transmitting at least one short messaging service message to at least one wireless device, the method comprising: receiving, by the short message service center, at least one short message service message request associated with a short message service message destined for reception by a wireless device; locally maintaining, by the short message service center, prior to receiving the request, registration information indicating whether the wireless device is registered with a registrar associated with a session initiation protocol network for communicating over a packet data network; determining, by the short message service center, based on the locally maintained information, whether the wireless device is registered with the registrar; and transmitting, by the short message service center, in response to the request and with the determination that the wireless device is registered with the registrar, the short message service message to the wireless device through the session initiation protocol network communicating over the packet data network; determining, by the short message service center, if the transmission through the packet data network was successful; and transmitting, by the short message service center, in response to the transmission being unsuccessful, the short message service message to the wireless device through a circuit services network. receiving, by the short message service center, at least one short message service message request associated with a short message service message destined for reception by a wireless device; locally maintaining, by the short message service center, prior to receiving the request, registration information indicating whether the wireless device is registered with a registrar associated with a session initiation protocol network for communicating over a packet data network; determining, by the short message service center, based on the locally maintained information, whether the wireless device is registered with the registrar; and transmitting, by the short message service center, in response to the request and with the determination that the wireless device is registered with the registrar, the short message service message to the wireless device through the session initiation protocol network communicating over the packet data network; determining, by the short message service center, if the transmission through the packet data network was successful; and transmitting, by the short message service center, in response to the transmission being unsuccessful, the short message service message to the wireless device through a circuit services network.
An imaging device comprising: an imaging element that includes a plurality of pixels wherein said imaging element is arranged to receive incident light without passing through either a pinhole or an imaging lens that causes incident light entering from the same direction to be incident on a plurality of pixels adjacent to each other, wherein each pixel comprises a light shielding film arranged to cover a portion of said pixel, so that incident light on said pixel is optically modulated according to an incident angle, wherein the light shielding film covers different ranges in at least two pixels thereby providing incident angle directivities different from each other in said at least two pixels, and wherein each pixel is configured to output a detection signal indicating an output pixel value according to the incident light received by the pixel; a readout control unit that controls reading out of the detection signals from the plurality of pixels of the imaging element to select a part of the plurality of pixels from which the detection signals are read out for a detection image, wherein the readout control unit is configured to switch the part of the plurality of pixels regularly or irregularly on the basis of time information; and an output processing unit that outputs the detection image formed by the detection signals obtained by the readout control unit from the part of the plurality of pixels. an imaging element that includes a plurality of pixels wherein said imaging element is arranged to receive incident light without passing through either a pinhole or an imaging lens that causes incident light entering from the same direction to be incident on a plurality of pixels adjacent to each other, wherein each pixel comprises a light shielding film arranged to cover a portion of said pixel, so that incident light on said pixel is optically modulated according to an incident angle, wherein the light shielding film covers different ranges in at least two pixels thereby providing incident angle directivities different from each other in said at least two pixels, and wherein each pixel is configured to output a detection signal indicating an output pixel value according to the incident light received by the pixel; a readout control unit that controls reading out of the detection signals from the plurality of pixels of the imaging element to select a part of the plurality of pixels from which the detection signals are read out for a detection image, wherein the readout control unit is configured to switch the part of the plurality of pixels regularly or irregularly on the basis of time information; and an output processing unit that outputs the detection image formed by the detection signals obtained by the readout control unit from the part of the plurality of pixels.
A method of manufacturing a temperature sensor assembly comprising: a preliminary preparation of thermocouple wires (1a, 1b) by cutting and removing insulation material; putting an insulator between the two thermocouple wires (1a, 1b); joining by a bushing the ends of the two thermocouple wires (1a, 1b) into a point of the thermocouple, wherein the two thermocouple wires (1a, 1b) are passing along two opposite sites of the insulator; putting an electric insulation tube with a thermo-conductive paste inside on the lower part of the insulator; putting a metal tubular housing with a laser welded cover on the electric insulation tube; mounting a housing of the thermocouple on a threaded bushing of said metal tubular housing and on the head of the insulator, wherein said housing consists of two halves (81, 82), which are only partially clamped together; placing the sensor assembly in an injection mould where the housing of the thermocouple is fully clamped; producing an hexagonal body with vertical brackets around said housing of the thermocouple sensor assembly by injection moulding. a preliminary preparation of thermocouple wires (1a, 1b) by cutting and removing insulation material; putting an insulator between the two thermocouple wires (1a, 1b); joining by a bushing the ends of the two thermocouple wires (1a, 1b) into a point of the thermocouple, wherein the two thermocouple wires (1a, 1b) are passing along two opposite sites of the insulator; putting an electric insulation tube with a thermo-conductive paste inside on the lower part of the insulator; putting a metal tubular housing with a laser welded cover on the electric insulation tube; mounting a housing of the thermocouple on a threaded bushing of said metal tubular housing and on the head of the insulator, wherein said housing consists of two halves (81, 82), which are only partially clamped together; placing the sensor assembly in an injection mould where the housing of the thermocouple is fully clamped; producing an hexagonal body with vertical brackets around said housing of the thermocouple sensor assembly by injection moulding.