mhurhangee/ep-ind-claims huggingface dataset:
Differential pull-out guide for pull-out furniture parts, having a carcass rail which can be attached to a furniture carcass, a pull-out rail which can be attached to a pull-out furniture part and a center rail arranged between the carcass rail and the pull-out rail, wherein the pull-out rail and the center rail can be pulled out from a closed position of the differential pull-out guide into an open position of the differential pull-out guide in a pull-out direction and the pull-out of the center rail from the carcass rail in the open position of the differential pull-out guide is effected by a stop element of the carcass rail, against which a stop surface of the center rail abuts, wherein an adjusting part on the center rail in the region of the rear end of the center rail can be tilted between a release position, in which the center rail can be tilted relative to the carcass rail about a horizontal axis lying at right angles to the pull-out direction of the center rail from a normal position into a tilted position, in which its rear end is lowered relative to the normal position and the stop surface of the center rail can be guided past the stop element of the carcass rail to remove the center rail from the carcass rail, and a blocking position, in which the middle rail is blocked against tilting from the normal position into the tilting position, and wherein a lateral guide roller is rotatably mounted on a base body of the adjusting part, which roller cooperates with a vertical web of the carcase rail, characterized in in that the center rail is shorter than the carcass rail and shorter than the pull-out rail and the rear end of the center rail, in the pushed-in state of the differential pull-out guide, is offset forwards with respect to the rear end of the carcass rail and with respect to the rear end of the pull-out rail, and in that the center rail is offset forwards with respect to the rear end of the carcass rail and with respect to the rear end of the pull-out rail. and that the lateral guide roller of the adjusting part on the side of the adjusting part opposite the vertical web of the carcass rail cooperates with a vertical web of the pull-out rail or that an additional lateral guide roller is additionally rotatable on the base body of the adjusting part.lateral guide roller is rotatably mounted on the base body of the adjusting part, which cooperates with the vertical web of the pull-out rail on the side of the adjusting part opposite the vertical web of the carcass rail.
A method of rendering a scene in a graphics system, the method comprising: identifying a first draw call within a current render; analysing at least a last shader in a series of shaders used by the first draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to a current fragment location (104, 106); and in response to determining that the last shader used by the first draw call does sample from the identified buffers using screen space coordinates that correspond to the current fragment location, adding the first draw call to both a merged control stream comprising draw calls from the previous render and a control stream for a current render; for a subsequent draw call in the current render, analysing at least a last shader in a series of shaders used by the subsequent draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to the current fragment location (104, 106); and in response to determining that the subsequent draw call does not sample from the identified buffers using screen space coordinates that correspond to the current fragment location, discarding the merged control stream. identifying a first draw call within a current render; analysing at least a last shader in a series of shaders used by the first draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to a current fragment location (104, 106); and in response to determining that the last shader used by the first draw call does sample from the identified buffers using screen space coordinates that correspond to the current fragment location, adding the first draw call to both a merged control stream comprising draw calls from the previous render and a control stream for a current render; for a subsequent draw call in the current render, analysing at least a last shader in a series of shaders used by the subsequent draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to the current fragment location (104, 106); and in response to determining that the subsequent draw call does not sample from the identified buffers using screen space coordinates that correspond to the current fragment location, discarding the merged control stream.
A method of reporting channel state information, CSI, by a terminal in a wireless communication system, the method comprising: obtaining a CSI measurement by measuring a CSI- Reference Signal, RS, that is transmitted through a plurality of panels, from a base station; and reporting, to the base station, the CSI that is generated based on the CSI measurement, wherein reporting the CSI comprises: reporting both (i) a first parameter for wideband, WB, for panel phase compensation, and (ii) a second parameter for subband, SB, for panel phase compensation, by applying a WB and SB panel phase compensation codebook, wherein the first parameter and the second parameter are used for phase compensation between the plurality of panels, wherein the first parameter is reported using 2 bits, and the second parameter is reported using 1 bit, and wherein the WB and SB panel phase compensation codebook indicates a differential in compensation value between a reference panel and a panel other than the reference panel. obtaining a CSI measurement by measuring a CSI- Reference Signal, RS, that is transmitted through a plurality of panels, from a base station; and reporting, to the base station, the CSI that is generated based on the CSI measurement, wherein reporting the CSI comprises: reporting both (i) a first parameter for wideband, WB, for panel phase compensation, and (ii) a second parameter for subband, SB, for panel phase compensation, by applying a WB and SB panel phase compensation codebook, wherein the first parameter and the second parameter are used for phase compensation between the plurality of panels, wherein the first parameter is reported using 2 bits, and the second parameter is reported using 1 bit, and wherein the WB and SB panel phase compensation codebook indicates a differential in compensation value between a reference panel and a panel other than the reference panel.
A radiation sensor element, comprising: - a read-out integrated circuit having an interconnection face, - a compound semiconductor layer opposite the interconnection face, and - a copper-pillar interconnection element extending from the interconnection face towards the compound semiconductor layer, wherein the copper-pillar interconnection element comprises a copper part and an oxidation barrier layer, comprising a noble metal and arranged between the copper part and the compound semiconductor layer. - a read-out integrated circuit having an interconnection face, - a compound semiconductor layer opposite the interconnection face, and - a copper-pillar interconnection element extending from the interconnection face towards the compound semiconductor layer,
A method for transmitting a gateway address, characterized in that, the method comprises: determining, by an eNB, an accessing device to be a stationary Relay Node, RN, or a mobile RN according to indication information received from the accessing device; upon determining the accessing device to be the mobile RN, determining, by the eNB, a gateway IP address of a mobility anchor which serves as a gateway of the mobile RN and transmitting the determined gateway IP address to a Mobility Management Entity, MME, serving for the mobile RN; and upon determining the accessing device to be the stationary RN, transmitting, by the eNB, an IP address of a serving Gateway/ Packet Date Network Gateway, SGW/PGW, function integrated in the eNB to the MME serving for the stationary RN. determining, by an eNB, an accessing device to be a stationary Relay Node, RN, or a mobile RN according to indication information received from the accessing device; upon determining the accessing device to be the mobile RN, determining, by the eNB, a gateway IP address of a mobility anchor which serves as a gateway of the mobile RN and transmitting the determined gateway IP address to a Mobility Management Entity, MME, serving for the mobile RN; and upon determining the accessing device to be the stationary RN, transmitting, by the eNB, an IP address of a serving Gateway/ Packet Date Network Gateway, SGW/PGW, function integrated in the eNB to the MME serving for the stationary RN.
An optical fiber cable (110, 210), comprising: an optical fiber sensor having a first end; a first metal tube containing the first end of the optical fiber sensor, the first metal tube (212, 330) having a first termination portion adjacent to the first end, the first termination portion including a first closed end of the first metal tube that includes a convex external shape; and an encapsulation layer surrounding the first metal tube. an optical fiber sensor having a first end; a first metal tube containing the first end of the optical fiber sensor, the first metal tube (212, 330) having a first termination portion adjacent to the first end, the first termination portion including a first closed end of the first metal tube that includes a convex external shape; and an encapsulation layer surrounding the first metal tube.
Method, comprising: ascertaining a value of a measure of a deviation of an amplitude distribution of a signal, amplified by a power amplifier (16, 16a, 16b) operated at least temporarily in a non-linear gain region, from a Gaussian distribution; and controlling at least part of a communication process, based on the signal, depending on the ascertained value, wherein the measure of the deviation of the amplitude distribution is based on cumulants whose order is greater than 2 and is even. ascertaining a value of a measure of a deviation of an amplitude distribution of a signal, amplified by a power amplifier (16, 16a, 16b) operated at least temporarily in a non-linear gain region, from a Gaussian distribution; and controlling at least part of a communication process, based on the signal, depending on the ascertained value, wherein the measure of the deviation of the amplitude distribution is based on cumulants whose order is greater than 2 and is even.
A system of posterior-stabilized knee prostheses for a knee arthroplasty, the system comprising: a tibial bearing component having a tibial articular surface with a medial compartment and a lateral compartment, wherein the tibial bearing component has a spine extending proximally from the tibial articular surface and positioned between the medial and lateral compartments, and wherein the medial compartment has a medial dwell point; a femoral prosthesis having a cam and medial and lateral condyles (18,16) spaced to either side of the cam, wherein the medial condyle is configured for articulation with the medial compartment and lateral condyle is configured for articulation with the lateral compartment, and wherein the femoral prosthesis is configured to articulate through a range of motion relative to the tibial bearing component, such range of motion includes a full extension that corresponds to zero degrees flexion of a knee joint and positive flexion that corresponds to greater than zero degrees flexion of the knee joint, wherein an area of contact between the medial condyle and the medial compartment includes the medial dwell point when the femoral prosthesis is in full extension, and wherein the spine and cam are both configured to make initial contact when the range of motion reaches substantially 100 degrees flexion. a tibial bearing component having a tibial articular surface with a medial compartment and a lateral compartment, wherein the tibial bearing component has a spine extending proximally from the tibial articular surface and positioned between the medial and lateral compartments, and wherein the medial compartment has a medial dwell point; a femoral prosthesis having a cam and medial and lateral condyles (18,16) spaced to either side of the cam, wherein the medial condyle is configured for articulation with the medial compartment and lateral condyle is configured for articulation with the lateral compartment, and wherein the femoral prosthesis is configured to articulate through a range of motion relative to the tibial bearing component, such range of motion includes a full extension that corresponds to zero degrees flexion of a knee joint and positive flexion that corresponds to greater than zero degrees flexion of the knee joint, wherein an area of contact between the medial condyle and the medial compartment includes the medial dwell point when the femoral prosthesis is in full extension, and wherein the spine and cam are both configured to make initial contact when the range of motion reaches substantially 100 degrees flexion.
A method for ship-to-ship transfer of hydrocarbon liquids comprising: - mooring a first tanker to a single-point mooring buoy, the buoy having a first port and a second port and a fluid conduit connecting the first and second ports, and the first tanker being a conventional tanker which does not include a dynamic positioning system for maintaining position at the buoy; - connecting a first hose string between the first port of the buoy and the first tanker; - positioning a second tanker near the buoy, the second tanker having a dynamic positioning system for holding position near the buoy; - connecting a second hose string between the second port of the buoy and the second tanker; and - pumping a hydrocarbon liquid between the first and second tankers (2, 4), via the first hose, the fluid conduit of the buoy, and the second hose, wherein the single-point mooring buoy is located between 8 km and 1000 km (5 miles and 700 miles) away from an FPSO unit. - mooring a first tanker to a single-point mooring buoy, the buoy having a first port and a second port and a fluid conduit connecting the first and second ports, and the first tanker being a conventional tanker which does not include a dynamic positioning system for maintaining position at the buoy; - connecting a first hose string between the first port of the buoy and the first tanker; - positioning a second tanker near the buoy, the second tanker having a dynamic positioning system for holding position near the buoy; - connecting a second hose string between the second port of the buoy and the second tanker; and - pumping a hydrocarbon liquid between the first and second tankers (2, 4), via the first hose, the fluid conduit of the buoy, and the second hose, wherein the single-point mooring buoy is located between 8 km and 1000 km (5 miles and 700 miles) away from an FPSO unit.
A distributed antenna system, comprising: a master unit configured to receive at least one set of multiple input multiple output, MIMO, channel signals at an original frequency from at least one signal source, the MIMO channel signals including at least a first MIMO channel signal and a second MIMO channel signal, the master unit being further configured to frequency convert at least one of the first and second MIMO channel signals to a different frequency from the original frequency, and combine the first MIMO channel signal and the second MIMO channel signal for transmission using at least one electrical-to-optical conversion circuit; an optical link operably coupled with the master unit; at least one remote unit in communication with the master unit via the optical link using at least one optical-to-electrical conversion circuit for transceiving the MIMO channel signals between the remote unit and the master unit, the remote unit including a plurality of ports (126a, 126b) for coupling with a plurality of antennas (44a, 44b) for transceiving signals with a device and including at least one extension port configured to transceive at least one of the MIMO channel signals; and an extension unit coupled to the at least one remote unit at the extension port, the extension unit being configured to receive at least one of the first and second MIMO channel signals and to frequency convert the at least one of the first and second MIMO channel signals from the different frequency back to the original frequency for transmission over one or more antennas (132a, 132b). a master unit configured to receive at least one set of multiple input multiple output, MIMO, channel signals at an original frequency from at least one signal source, the MIMO channel signals including at least a first MIMO channel signal and a second MIMO channel signal, the master unit being further configured to frequency convert at least one of the first and second MIMO channel signals to a different frequency from the original frequency, and combine the first MIMO channel signal and the second MIMO channel signal for transmission using at least one electrical-to-optical conversion circuit; an optical link operably coupled with the master unit; at least one remote unit in communication with the master unit via the optical link using at least one optical-to-electrical conversion circuit for transceiving the MIMO channel signals between the remote unit and the master unit, the remote unit including a plurality of ports (126a, 126b) for coupling with a plurality of antennas (44a, 44b) for transceiving signals with a device and including at least one extension port configured to transceive at least one of the MIMO channel signals; and an extension unit coupled to the at least one remote unit at the extension port, the extension unit being configured to receive at least one of the first and second MIMO channel signals and to frequency convert the at least one of the first and second MIMO channel signals from the different frequency back to the original frequency for transmission over one or more antennas (132a, 132b).
A hearing aid system comprising a hearing aid, an external device and a wireless communication link adapted to transmit data between the hearing aid and the external device; - wherein the hearing aid comprises an acoustical-electrical input transducer (104-A, 104-B), a digital signal processor and an electrical-acoustical output transducer, wherein the digital signal processor comprises settings configured to apply a frequency dependent gain that is adapted to at least one of suppressing noise, enhancing a target sound, customizing the sound to a user preference and alleviating a hearing deficit of an individual wearing the hearing aid system; - wherein the hearing aid comprises a fine tuning controller adapted to control at least some of the digital signal processor settings and the hearing aid performance verification in response to a received trigger signal, wherein the received trigger signal may be received from at least one of: - a user interaction means accommodated in the hearing aid or in the external device, and - a remote fitting computer or remote internet server using the internet and the external device as gateway; characterised in that the hearing aid system is adapted to only allow changes to at least some of the digital signal processor settings if a hearing aid performance verification is carried out with a successful result by not detecting any defects before any fine tuning is carried out; - wherein the hearing aid performance verification is carried out using at least one of: feedback test circuitry and wax congestion circuitry and microphone performance circuitry and receiver distortion circuitry and ear piece positioning test circuitry. - wherein the hearing aid comprises an acoustical-electrical input transducer (104-A, 104-B), a digital signal processor and an electrical-acoustical output transducer, wherein the digital signal processor comprises settings configured to apply a frequency dependent gain that is adapted to at least one of suppressing noise, enhancing a target sound, customizing the sound to a user preference and alleviating a hearing deficit of an individual wearing the hearing aid system; - wherein the hearing aid comprises a fine tuning controller adapted to control at least some of the digital signal processor settings and the hearing aid performance verification in response to a received trigger signal, - a user interaction means accommodated in the hearing aid or in the external device, and - a remote fitting computer or remote internet server using the internet and the external device as gateway; - wherein the hearing aid performance verification is carried out using at least one of: feedback test circuitry and wax congestion circuitry and microphone performance circuitry and receiver distortion circuitry and ear piece positioning test circuitry.