mhurhangee/ep-ind-claims huggingface dataset:
Arrangement consisting of a system designed as a power supply module, in particular an H-bridge, and consumers which can be supplied therefrom and which are likewise designed as modules, wherein the power supply module comprises a capacitor which can be charged via at least one rectifier, in particular a DC link capacitor, wherein the rectifier can be supplied from an AC mains, wherein at least one means is provided for pre-charging the capacitor from a supply voltage, which is a direct voltage that is derived within the arrangement and not from the mains alternating voltage, wherein the rectifier designed as an output stage comprises three half-bridges which each consist of a series connection of two electronic power switches, in particular IGBTs or MOSFETs, that are each assigned a diode, wherein the electronic power switches of the output stage together with a mains adjustment choke form a step-up converter and are designed such that the voltage applied to the capacitor, that is to say the DC link voltage, can be regulated to a value that is unachievable by mere rectification of the mains voltage, wherein signal electronics are supplied from the supply voltage, said signal electronics including means for generating pulse-width-modulated actuation signals for the electronic power switches, wherein the consumers are designed as inverters which are switched off during the pre-charging time and otherwise are supplied from the voltage applied to the capacitor, that is to say the DC link voltage, the inverters having an output stage from which in each case a three-phase motor is supplied.
A compound of formula I: or a pharmaceutically acceptable salt or solvate thereof, wherein, R is selected from a C 1-6 -alkylsulfinyl,or a C 1-6 -alkylsulfinyl substituted with one or more halogens.
A method for sharing content with an external device, the method comprising: displaying content on a display of a user device and sharing the displayed content with the external device by using a screen sharing service; setting the user device to have control authority of the screen sharing service based on a user input; transmitting control authority setup information indicating that the user device has the control authority of the screen sharing service, to the external device; transmitting a control command to the external device for controlling the shared content at the external device according to the control authority of the screen sharing service; and characterised by periodically transmitting to the external device control authority maintaining information indicating that the user device continues to be set as having the control authority of the screen sharing service. displaying content on a display of a user device and sharing the displayed content with the external device by using a screen sharing service; setting the user device to have control authority of the screen sharing service based on a user input; transmitting control authority setup information indicating that the user device has the control authority of the screen sharing service, to the external device; transmitting a control command to the external device for controlling the shared content at the external device according to the control authority of the screen sharing service; and characterised by periodically transmitting to the external device control authority maintaining information indicating that the user device continues to be set as having the control authority of the screen sharing service.
A method for simultaneous isolation of genomic DNA, RNA and proteins from a single sample, which method comprising: a) generating an aqueous solution containing said cellular components by lysing cells with a lysis solution; b) contacting said aqueous solution with an anion exchanger column under conditions such that genomic DNA and RNA bind to the anion exchanger column; c) collecting the flow-through which contains unbound proteins; d) eluting RNA from said anion exchanger with an RNA elution solution; and e) eluting DNA from said anion exchanger with an DNA elution solution; wherein said RNA elution solution has a lower salt concentration than said DNA elution solution, and said RNA elution solution has a higher salt concentration than said lysis solution; further wherein for the purification of any two of the cellular components, one of steps c) through e) is modified such that: for the purification of genomic DNA and RNA alone, the flow-through collected in step c) is discarded; for the purification of genomic DNA and proteins alone, RNA eluted from step d) is not collected; and for the purification of RNA and proteins alone, step e) is omitted. a) generating an aqueous solution containing said cellular components by lysing cells with a lysis solution; b) contacting said aqueous solution with an anion exchanger column under conditions such that genomic DNA and RNA bind to the anion exchanger column; c) collecting the flow-through which contains unbound proteins; d) eluting RNA from said anion exchanger with an RNA elution solution; and e) eluting DNA from said anion exchanger with an DNA elution solution; for the purification of genomic DNA and RNA alone, the flow-through collected in step c) is discarded; for the purification of genomic DNA and proteins alone, RNA eluted from step d) is not collected; and for the purification of RNA and proteins alone, step e) is omitted.
Measuring device with - a housing -- which has a first section, --- on which is provided a unit designed for securing the housing at a measuring location, -- which has a second section, --- which adjoins the first section, and -- which has a third section, --- which adjoins the second section and --- in which electronic components are located, - wherein the second section is designed in such a way that the second section protects the third section from heating up in the event of a difference in temperature between an environment of the first section and an environment of the third section caused by heating of the first section, characterized in that several circumferential grooves (59, 61) are provided in the wall of the second section, said grooves reducing the cross-sectional area available for thermal conduction parallel to the longitudinal axis of the housing, wherein the grooves (59, 61) are arranged alternately on an inner side of the wall and an outer side of the wall. - a housing -- which has a first section, --- on which is provided a unit designed for securing the housing at a measuring location, -- which has a second section, --- which adjoins the first section, and -- which has a third section, --- which adjoins the second section and --- in which electronic components are located, -- which has a first section, --- on which is provided a unit designed for securing the housing at a measuring location, --- on which is provided a unit designed for securing the housing at a measuring location, -- which has a second section, --- which adjoins the first section, and --- which adjoins the first section, and -- which has a third section, --- which adjoins the second section and --- in which electronic components are located, --- which adjoins the second section and --- in which electronic components are located, - wherein the second section is designed in such a way that the second section protects the third section from heating up in the event of a difference in temperature between an environment of the first section and an environment of the third section caused by heating of the first section,
A process control method for measuring and controlling diacid-diamine balance of a polyamide precursor solution comprising: a) creating a predictive model of Raman spectra for diacid-diamine balance by: i) acquiring Raman spectra for a series of polyamide precursor solutions having different known molar ratios of diacid:diamine; ii) modeling the relationship between the known molar ratios and the acquired Raman spectra; b) applying the model of (a)(ii) to an observed Raman spectrum for a polyamide precursor solution in which the diacid:diamine balance is unknown; and c) determining the diacid:diamine balance of the solution (b). a) creating a predictive model of Raman spectra for diacid-diamine balance by: i) acquiring Raman spectra for a series of polyamide precursor solutions having different known molar ratios of diacid:diamine; ii) modeling the relationship between the known molar ratios and the acquired Raman spectra; i) acquiring Raman spectra for a series of polyamide precursor solutions having different known molar ratios of diacid:diamine; ii) modeling the relationship between the known molar ratios and the acquired Raman spectra; b) applying the model of (a)(ii) to an observed Raman spectrum for a polyamide precursor solution in which the diacid:diamine balance is unknown; and c) determining the diacid:diamine balance of the solution (b).
Domestic appliance, in particular a baking oven, comprising a housing and at least one baking muffle and a door which closes the baking muffle opening, the domestic appliance comprising at least one sealing device which is provided between the housing and the door for sealing the baking muffle opening, the sealing device comprising a tubular sealing unit made of a flexible material and having an internal support device, the support device comprising a tension spring formed as a spiral spring and made of spring steel wire, characterised in that the support device is prestressed in such a way that a closed spiral spring is provided as the support device, the circumference of which spring is smaller than that of the region surrounding the baking muffle opening.
An assembly including: a cylinder housing, at least one bearing cap, and a crankshaft guide bearing housed between the bearing cap and the cylinder housing, characterized in that the guide bearing comprises a one-piece guide ring having at least one guide track having a symmetry of revolution about a reference axis, the one-piece guide ring having one or more first bore(s) aligned with one or more corresponding first hole(s) in the cylinder housing and one or more second bore(s) aligned with one or more corresponding second hole(s) of the bearing cap, the assembly further comprising one or more first attachment rod(s) extending through the first bores and penetrating into the corresponding first hole(s) and one or more second attachment rod(s) extending through the second bores and penetrating into the corresponding second holes.
A method, in a wireless terminal in multiple connectivity with multiple cells, for a handover of a sub-set of bearers associated with the wireless terminal from a first cell of the multiple cells to a second cell of the multiple cells, the first cell being associated to a source base station and the second cell being associated to a target base station, said sub-set of bearers being less than all bearers associated with the wireless terminal, the method comprising: receiving, from the source or the target base station, a message, said message indicating that a handover procedure will take place for an identified sub-set of bearers; and characterised by: handing over the identified sub-set of bearers to the target base station, wherein at least one bearer associated with the wireless terminal, which is not part of the identified sub-set of bearers, remains connected to the source base station.
A computer-implemented method comprising: receiving a request for a vehicle (200, 300, 400) to navigate within a target area; determining a navigation path for the vehicle to traverse a first segment of the target area using an artificial neural network, ANN, trained based on a plurality of prior navigation paths previously determined for traversal of segments similar to the first segment of the target area, the computer-implemented method being characterised in that: the ANN comprises an input node configured to receive as input visual and/or depth sensor data representing the first segment of the target area from a sensor on the vehicle; determining a confidence level associated with the navigation path, wherein the confidence level represents a likelihood that the determined navigation path will allow the vehicle to successfully autonomously traverse the first segment; based on the determined confidence level, selecting a navigation mode for the vehicle from a plurality of navigation modes each involving a different one of a plurality of levels of remote assistance to navigate the first segment; and causing the vehicle to traverse the first segment of the target area using a level of remote assistance corresponding to the selected navigation mode for the vehicle. receiving a request for a vehicle (200, 300, 400) to navigate within a target area; determining a navigation path for the vehicle to traverse a first segment of the target area using an artificial neural network, ANN, trained based on a plurality of prior navigation paths previously determined for traversal of segments similar to the first segment of the target area, the computer-implemented method being characterised in that: the ANN comprises an input node configured to receive as input visual and/or depth sensor data representing the first segment of the target area from a sensor on the vehicle; determining a confidence level associated with the navigation path, wherein the confidence level represents a likelihood that the determined navigation path will allow the vehicle to successfully autonomously traverse the first segment; based on the determined confidence level, selecting a navigation mode for the vehicle from a plurality of navigation modes each involving a different one of a plurality of levels of remote assistance to navigate the first segment; and causing the vehicle to traverse the first segment of the target area using a level of remote assistance corresponding to the selected navigation mode for the vehicle.
A computer-implemented method, comprising: displaying graphics on a touch screen display; displaying an insertion marker in the graphics at a first location; detecting a first contact on the touch screen display, the first contact detected at a location independent of the first location; detecting movement of the first contact on the touch screen display; determining whether the detected movement of the first contact has a larger horizontal component or a larger vertical component; in response to a determination that the detected movement of the first contact has a larger horizontal component, initiating an insertion marker control mode; in response to a determination that the detected movement of the first contact has a larger vertical component, initiating a scrolling mode; if the insertion marker control mode is initiated, moving the insertion marker within the displayed graphics in accordance with the detected movement of the first contact; and if the scrolling mode is initiated, scrolling the displayed graphics in accordance with the detected movement of the first contact. displaying graphics on a touch screen display; displaying an insertion marker in the graphics at a first location; detecting a first contact on the touch screen display, the first contact detected at a location independent of the first location; detecting movement of the first contact on the touch screen display; determining whether the detected movement of the first contact has a larger horizontal component or a larger vertical component; in response to a determination that the detected movement of the first contact has a larger horizontal component, initiating an insertion marker control mode; in response to a determination that the detected movement of the first contact has a larger vertical component, initiating a scrolling mode; if the insertion marker control mode is initiated, moving the insertion marker within the displayed graphics in accordance with the detected movement of the first contact; and if the scrolling mode is initiated, scrolling the displayed graphics in accordance with the detected movement of the first contact.
Method for applying spatial division multiplexing "SDM" on the optical signals transmitted from an optical line terminal "OLT" to the optical network units "ONUs" of a passive optical network "PON" through at least one few mode fiber "FMF" linked to a SDM demultiplexer comprising a plurality of outputs associated respectively to a spatial mode, a selected output of the SDM demultiplexer being linked to at least one ONU wherein the method comprises the following steps: - transmitting configuration signals from ONUs connected to the selected outputs of the SDM demultiplexer toward the OLT, - receiving and detecting the transmitted configuration signals at the OLT, - determining, within the OLT, the channel transfer function of the modes associated with the configuration signals received from the ONUs, - computing the inverse of the determined channel transfer function, - modulating the data optical field using the computed inverse transfer function to produce the optical signals associated with the different modes, - multiplexing spatially the modulated optical signals, - transmitting the multiplexed optical signals to the at least one FMF toward the ONUs. - transmitting configuration signals from ONUs connected to the selected outputs of the SDM demultiplexer toward the OLT, - receiving and detecting the transmitted configuration signals at the OLT, - determining, within the OLT, the channel transfer function of the modes associated with the configuration signals received from the ONUs, - computing the inverse of the determined channel transfer function, - modulating the data optical field using the computed inverse transfer function to produce the optical signals associated with the different modes, - multiplexing spatially the modulated optical signals, - transmitting the multiplexed optical signals to the at least one FMF toward the ONUs.
A method of decoding video data, the method comprising: receiving residual data corresponding to a block of video data, wherein the block of video data is encoded using asymmetric motion partitioning, is uni-directionally predicted using backward view synthesis prediction, BVSP, and has a size of 16x12, 12x16, 16x4 or 4x16, and wherein the block of video data is a prediction unit of a coding unit; partitioning the block of video data into sub-blocks, each sub-block having a size of 8x4 or 4x8; deriving a respective disparity motion vector for each of the sub-blocks from a corresponding depth block in a depth picture corresponding to a reference picture; synthesizing a respective reference block for each of the sub-blocks using the respective derived disparity motion vectors; and decoding the block of video data by performing motion compensation on each of the sub-blocks using the residual data and the synthesized respective reference blocks. receiving residual data corresponding to a block of video data, wherein the block of video data is encoded using asymmetric motion partitioning, is uni-directionally predicted using backward view synthesis prediction, BVSP, and has a size of 16x12, 12x16, 16x4 or 4x16, and wherein the block of video data is a prediction unit of a coding unit; partitioning the block of video data into sub-blocks, each sub-block having a size of 8x4 or 4x8; deriving a respective disparity motion vector for each of the sub-blocks from a corresponding depth block in a depth picture corresponding to a reference picture; synthesizing a respective reference block for each of the sub-blocks using the respective derived disparity motion vectors; and decoding the block of video data by performing motion compensation on each of the sub-blocks using the residual data and the synthesized respective reference blocks.
A method for preparing an oligomer, the method comprising: supplying a feed stream including a monomer to a reactor and performing an oligomerization reaction; supplying a first discharge stream from the reactor to a first separation device and supplying a second discharge stream from the reactor to a second separation device; recovering the monomer in the second separation device as an upper discharge stream; supplying the upper discharge stream including the monomer from the second separation device to a monomer dissolution device to dissolve the upper discharge stream in a solvent supplied to the monomer dissolution device; supplying a discharge stream from the monomer dissolution device to the reactor, wherein the discharge stream from the monomer dissolution device is a liquid stream including the monomer dissolved in the solvent, and wherein the monomer is ethylene and the oligomer is an alpha-olefin. supplying a feed stream including a monomer to a reactor and performing an oligomerization reaction; supplying a first discharge stream from the reactor to a first separation device and supplying a second discharge stream from the reactor to a second separation device; recovering the monomer in the second separation device as an upper discharge stream; supplying the upper discharge stream including the monomer from the second separation device to a monomer dissolution device to dissolve the upper discharge stream in a solvent supplied to the monomer dissolution device; supplying a discharge stream from the monomer dissolution device to the reactor, wherein the discharge stream from the monomer dissolution device is a liquid stream including the monomer dissolved in the solvent, and wherein the monomer is ethylene and the oligomer is an alpha-olefin.
An image restoration method comprising: obtaining input data comprising a respective input image for each of a plurality of viewpoints; estimating a respective global transformation parameter of each of the plurality of viewpoints based on the obtained input data; estimating respective disparity of each of the plurality of viewpoints based on the obtained input data; generating respective warped image for each of the plurality of viewpoints by warping the respective input image using the respective global transformation parameter and the respective disparity; and generating, using an image restoration model, an output image from the generated respective warped image for each of the plurality of viewpoints, wherein the estimating the respective global transformation parameter comprises performing a global pooling operation for removing a spatial dimension component from the input data, and obtaining the respective global transformation parameter based on the input data having removed the spatial dimension component. obtaining input data comprising a respective input image for each of a plurality of viewpoints; estimating a respective global transformation parameter of each of the plurality of viewpoints based on the obtained input data; estimating respective disparity of each of the plurality of viewpoints based on the obtained input data; generating respective warped image for each of the plurality of viewpoints by warping the respective input image using the respective global transformation parameter and the respective disparity; and generating, using an image restoration model, an output image from the generated respective warped image for each of the plurality of viewpoints, wherein the estimating the respective global transformation parameter comprises performing a global pooling operation for removing a spatial dimension component from the input data, and obtaining the respective global transformation parameter based on the input data having removed the spatial dimension component.