mhurhangee/patent-ind-claim-en huggingface dataset:
A method for electrophoretically staining biopolymers embedded in a matrix, the method comprising contacting a first side of the matrix containing the biopolymer with a non-cellulosic first matrix contact sheet or a first matrix contact sheet including a blend containing cellulosic material, the first matrix contact sheet having a matrix contact surface and a stain reagent, contacting a second side of the matrix containing the biopolymer with a second matrix contact sheet having a matrix contact surface and comprising a destain solution comprising an organic solvent, an acid, and water, and optionally comprising a buffering agent, the contacting of the first matrix contact sheet and the second matrix contact sheet with the matrix forming a multi-layered assembly having a thickness, and applying an electrical force across the thickness of the assembly sufficient to move the stain reagent into the matrix, thereby staining the biopolymer in the matrix, and to move excess free stain reagent out of the matrix, thereby destaining the matrix. contacting a first side of the matrix containing the biopolymer with a non-cellulosic first matrix contact sheet or a first matrix contact sheet including a blend containing cellulosic material, the first matrix contact sheet having a matrix contact surface and a stain reagent, contacting a second side of the matrix containing the biopolymer with a second matrix contact sheet having a matrix contact surface and comprising a destain solution comprising an organic solvent, an acid, and water, and optionally comprising a buffering agent, the contacting of the first matrix contact sheet and the second matrix contact sheet with the matrix forming a multi-layered assembly having a thickness, and applying an electrical force across the thickness of the assembly sufficient to move the stain reagent into the matrix, thereby staining the biopolymer in the matrix, and to move excess free stain reagent out of the matrix, thereby destaining the matrix.
A method for planning a field cultivation route for an agricultural working machine on an agricultural field by means of a control device , in particular a driver assistance system of the agricultural working machine , wherein the control device plans the field cultivation route , wherein the field cultivation route has paths, which in particular are contiguous, for cultivation one after the other, wherein the control device plans the field cultivation route in a manner such that the field cultivation route has a first section with at least one first path which runs in a straight line, in that the field cultivation route has a second section with at least one second path which has at least one bend and/or curve, and wherein the control device plans the field cultivation route in a manner such that the field cultivation route has a central section with a plurality of central paths which are positioned between the first and the second section , wherein in the central section of the field cultivation route , the paths gradually straighten out starting from the second path , and in this manner are adjusted to the first path , characterized in that the control device parameterizes the straightening of the central paths as a function of a user input. wherein the control device plans the field cultivation route in a manner such that the field cultivation route has a first section with at least one first path which runs in a straight line, in that the field cultivation route has a second section with at least one second path which has at least one bend and/or curve, and wherein the control device plans the field cultivation route in a manner such that the field cultivation route has a central section with a plurality of central paths which are positioned between the first and the second section , wherein in the central section of the field cultivation route , the paths gradually straighten out starting from the second path , and in this manner are adjusted to the first path , characterized in that the control device parameterizes the straightening of the central paths as a function of a user input.
Coating compositions for coating polyolefins, comprising an adhesion promoter, comprising a melt, film-forming dispersion or solution, characterized in that a polymer type A, a polyolefin or a polyolefin mixture, is present, a polymer type B, a (meth)acrylate homo- or/and copolymer comprising standard methacrylates and/or standard acrylates, is present, and a polymer type AB, a graft copolymer made of polymer type A and polymer type B, is present, and that the film-forming melt, dispersion or solution is halogen-free and acid-free, where acid-free describes at most 70 mmol of acid groups / 1 g of polymer and halogen-free describes at most 10 mmol of halogen atoms / 1 kg of polymer, and that the amount of polymer type A is from 5% by weight to 60% by weight, that the amount of polymer type B is from 5% by weight to 70% by weight, and that the amount of polymer type AB is from 5% by weight to 70% by weight, based on the entirety of polymer types A, B and AB.
Method for manufacturing a device with a secure integrated circuit chip, the device having an insulating substrate , electrically conductive surfaces on the insulating substrate connected or coupled to the electronic chip , the electrically conductive surfaces being produced by a step of depositing or transferring conductive material, the step of depositing or transferring conductive material being carried out by a technique of directly depositing polymer- or solvent-free metal microparticles onto the insulating substrate, the deposit being obtained by coalescence of the metal microparticles forming at least one or several uniform cohesive layer(s)that rest(s) directly in contact with the insulating substrate, characterized in that the method implements a continuous movement of a substrate ribbon receiving conductive material and a continuous masking ribbon (T) for masking the receiving substrate. surfaces on the insulating substrate connected or coupled to the electronic chip , the electrically conductive surfaces being produced by a step of depositing or transferring conductive material, the step of depositing or transferring conductive material being carried out by a technique of directly depositing polymer- or solvent-free metal microparticles onto the insulating substrate, the deposit being obtained by coalescence of the metal microparticles forming at least one or several uniform cohesive layer(s)that rest(s) directly in contact with the insulating substrate, characterized in that the method implements a continuous movement of a substrate ribbon receiving conductive material and a continuous masking ribbon (T) for masking the receiving substrate.
Transportation cabin of a motor vehicle for personnel and materials transport, including a cabin frame provided for a removable cabin shell and formed by longitudinal beams (6 - 10, 14 - 17) and crossbeams (3 - 5) and having cabin interior fittings including two seat rows arranged opposite one another in the traveling direction and laterally above a central vehicle floor, with seat bench plates (59 - 64) and backrests connected with one another via a first pivot axle , the seat bench plates (59 - 64) together with the backrests being pivotable inwardly about a second pivot axle (65 - 75) forming a loading space so that the transportation cabin converts to a cargo hold accessible from the side as well, characterized in that the seat bench plates (59 - 64) are provided with seat elements intended for a single person each, to each of which is assigned one backrest with safety belts and a headrest , wherein each backrest can be lowered toward the seat element by means of a lowering mechanism and is locked with lateral beams (14 - 17) detachably anchored in the cabin frame .
A method for automatically associating a module to a corresponding inverter of a plurality of inverters which are installed in a power generation system and adapted to generate measurements (M 1 , M 2 , M 3 ) related to their operation, said method being characterized in that it comprises the steps of : - installing the module for generating measurements (M 4 ) related to the operation of a corresponding inverter of said plurality of inverters ; - transmitting , by said plurality of inverters and said module , the measurements (M 1 , M 2 , M 3 , M 4 ) generated by the plurality of inverters and by said module to a control system operatively associated to said plurality of inverters and to said module ; - sniffing , by said processing means , said measurements (M 1 , M 2 , M 3 ) generated by the plurality of inverters and flowing to said control system ; - comparing , by processing means , the measurements (M 4 ) generated by the module to the measurements (M 1 , M 2 , M 3 ) generated by the plurality of inverters ; and - based on the comparison, determining , by the processing means , which of the plurality of inverters is said corresponding inverter and automatically associating it said corresponding inverter to the module . - installing the module for generating measurements (M 4 ) related to the operation of a corresponding inverter of said plurality of inverters ; - transmitting , by said plurality of inverters and said module , the measurements (M 1 , M 2 , M 3 , M 4 ) generated by the plurality of inverters and by said module to a control system operatively associated to said plurality of inverters and to said module ; - sniffing , by said processing means , said measurements (M 1 , M 2 , M 3 ) generated by the plurality of inverters and flowing to said control system ; - comparing , by processing means , the measurements (M 4 ) generated by the module to the measurements (M 1 , M 2 , M 3 ) generated by the plurality of inverters ; and - based on the comparison, determining , by the processing means , which of the plurality of inverters is said corresponding inverter and automatically associating it said corresponding inverter to the module .
Multifunctional display including a display panel and a sensing and emitting base , the display panel comprising a body forming a layer extending substantially between a viewing surface that an observer can see, or against which an object may be placed, and a base surface facing the sensing and emitting base , and a plurality of optical paths bounded by a light resistant material are formed within the body extending between a base orifice in the base surface and a viewing orifice in the viewing surface for the passage of light between base orifice and the viewing orifice, the sensing and emitting base comprising at least one multi-color light source positioned below or in the base orifice and at least one optical sensor positioned below or in the base orifice, characterized in that the display comprises a scanning function in which the sensing and emitting base is operable to emit light from the multi-color light source and simultaneously detect with the optical sensor the reflected light from a surface of an object placed on the viewing surface, and to compute with a microprocessor, an image of said surface based on the detected reflected light of a plurality of optical paths.
A computer implemented method of regulating access to a computer system, the method comprising: receiving from a user device a request for access to the computer system; receiving a moving image of a user's face captured with an image capture device of the user device, the moving image being captured as the user's face and the image capture device exhibit motion relative to each other; processing the moving image to determine an orientation of the user's face in each frame of the moving image ; receiving sensor data generated by a motion sensor coupled to the image capture device whilst capturing the moving image; measuring a correlation between detected changes in the orientation of the user's face and movement of the image capture device indicated by the sensor data; and determining whether to grant the request for access based on the measured correlation , wherein the request is granted only if the sensor data indicates the detected changes in the orientation of the face correspond to motion of the image capture device. receiving from a user device a request for access to the computer system; receiving a moving image of a user's face captured with an image capture device of the user device, the moving image being captured as the user's face and the image capture device exhibit motion relative to each other; processing the moving image to determine an orientation of the user's face in each frame of the moving image ; receiving sensor data generated by a motion sensor coupled to the image capture device whilst capturing the moving image; measuring a correlation between detected changes in the orientation of the user's face and movement of the image capture device indicated by the sensor data; and determining whether to grant the request for access based on the measured correlation , wherein the request is granted only if the sensor data indicates the detected changes in the orientation of the face correspond to motion of the image capture device.
A method, by a high-level Self-Organizing Network, SON, function in a hierarchical structure of SON functions in a network, of interaction with two or more lower-level SON functions within the hierarchical structure, the lower-level SON functions operating in different cells, comprising: receiving, from the two or more lower-level SON functions , information regarding network conditions or subscriber activity, the information including the identity of the two or more lower-level SON functions ; analyzing the information received from the two or more lower-level SON functions , including considering distributed load balancing actions made by the lower-level SON functions ; and performing one or more centralized load balancing actions to optimize the network in response to the information analysis, wherein the high-level SON function is situated at a Network Manager, NM, and operates to optimize the overall network, and the two or more lower-level SON functions are situated at each Network Element, NE, to locally optimize the NE under the control and direction of the high-level SON function . receiving, from the two or more lower-level SON functions , information regarding network conditions or subscriber activity, the information including the identity of the two or more lower-level SON functions ; analyzing the information received from the two or more lower-level SON functions , including considering distributed load balancing actions made by the lower-level SON functions ; and performing one or more centralized load balancing actions to optimize the network in response to the information analysis, wherein the high-level SON function is situated at a Network Manager, NM, and operates to optimize the overall network, and the two or more lower-level SON functions are situated at each Network Element, NE, to locally optimize the NE under the control and direction of the high-level SON function .
A local user equipment, UE, operable to perform video conferencing with a remote UE, the local UE having one or more processors configured to: receive, one or more step sizes, from the remote UE, that are used at the remote UE to process one or more pan, tilt, zoom and focus, PTZF, commands sent from the local UE, wherein the one or more step sizes are signaled as dedicated real-time transport protocol, RTP, header extension attributes; define, at the local UE, a region of interest, ROI, within a field of view of a camera of the remote UE; map the ROI to the one or more PTZF commands based on the one or more step sizes, wherein the one or more PTZF commands are in accordance with an International Telecommunication Union, ITU, H.281/H.224 protocol or a far end camera control, FECC, protocol; send the one or more PTZF commands from the local UE to the remote UE in a single packet, wherein the remote UE is configured to identify the ROI based on the one or more PTZF commands; and receive encoded video within the ROI from the remote UE, the encoded video including regions within the ROI and excluding regions outside the ROI, the encoded video including the regions within the ROI at an increased zoom level while substantially maintaining a defined quality level to enable the encoded video within the ROI to be rendered and displayed at the local UE. receive, one or more step sizes, from the remote UE, that are used at the remote UE to process one or more pan, tilt, zoom and focus, PTZF, commands sent from the local UE, wherein the one or more step sizes are signaled as dedicated real-time transport protocol, RTP, header extension attributes; define, at the local UE, a region of interest, ROI, within a field of view of a camera of the remote UE; map the ROI to the one or more PTZF commands based on the one or more step sizes, wherein the one or more PTZF commands are in accordance with an International Telecommunication Union, ITU, H.281/H.224 protocol or a far end camera control, FECC, protocol; send the one or more PTZF commands from the local UE to the remote UE in a single packet, wherein the remote UE is configured to identify the ROI based on the one or more PTZF commands; and receive encoded video within the ROI from the remote UE, the encoded video including regions within the ROI and excluding regions outside the ROI, the encoded video including the regions within the ROI at an increased zoom level while substantially maintaining a defined quality level to enable the encoded video within the ROI to be rendered and displayed at the local UE.
A transportation services method comprising: receiving, at a transportation services provider system, a request for transportation of a pod assembly having a current location and a destination; uploading a flight plan to a flight control system of a flying frame including an airframe having first and second wings with at least two pylons extending therebetween and a distributed propulsion system having a plurality of propulsion assemblies coupled to the airframe; dispatching the flying frame by air to the current location of the pod assembly; coupling the flying frame to the pod assembly at the current location of the pod assembly; transporting the pod assembly by air from the current location of the pod assembly to the destination of the pod assembly including transitioning the flying frame between a vertical takeoff and landing mode wherein the first wing is forward of the pod assembly and the second wing is aft of the pod assembly and a forward flight mode wherein the first wing is below the pod assembly and the second wing is above the pod assembly; and decoupling the pod assembly from the flying frame at the destination of the pod assembly. receiving, at a transportation services provider system, a request for transportation of a pod assembly having a current location and a destination; uploading a flight plan to a flight control system of a flying frame including an airframe having first and second wings with at least two pylons extending therebetween and a distributed propulsion system having a plurality of propulsion assemblies coupled to the airframe; dispatching the flying frame by air to the current location of the pod assembly; coupling the flying frame to the pod assembly at the current location of the pod assembly; transporting the pod assembly by air from the current location of the pod assembly to the destination of the pod assembly including transitioning the flying frame between a vertical takeoff and landing mode wherein the first wing is forward of the pod assembly and the second wing is aft of the pod assembly and a forward flight mode wherein the first wing is below the pod assembly and the second wing is above the pod assembly; and decoupling the pod assembly from the flying frame at the destination of the pod assembly.
A control unit for a microgrid connecting at least one distributed electricity generator , the microgrid comprising a first switch configured to, in an open position, disconnect the microgrid from a first network line at a first point of common coupling, PCC, and a second switch configured to, in a closed position, connect the microgrid to a second network line at a second PCC ; wherein the control unit is configured to obtain information relating to flow of electrical power (P, Q) passing over the second PCC , and wherein the control unit is further configured to, when the second switch is in its closed position and the first switch is in its open position: detect an islanding event at the second PCC , in response to the detected islanding event, act to close the first switch to bring it to its closed position, and act to open the second switch , to bring it to its open position, and calculate a power reference (P ref , Q ref ) for the flow over the first PCC based on the flow of electrical power (P, Q) passing over the second PCC before the detected islanding event, and use said power reference to control power flow over the first PCC when the first switch is in its closed position. detect an islanding event at the second PCC , in response to the detected islanding event, act to close the first switch to bring it to its closed position, and act to open the second switch , to bring it to its open position, and calculate a power reference (P ref , Q ref ) for the flow over the first PCC based on the flow of electrical power (P, Q) passing over the second PCC before the detected islanding event, and use said power reference to control power flow over the first PCC when the first switch is in its closed position.