mhurhangee/patent-ind-claim-en huggingface dataset:
An anchor node of a radio access network, RAN, the anchor node comprising a memory and at least one processor configured to: receive , from a second network node, a context retrieval request comprising an identifier of a user equipment, UE, operating in an inactive mode and a first message, the first message being protected with a first cryptographic key; validate the first message using a stored cryptographic key associated with a UE context indicated by the identifier of the UE; and send a context retrieval response to the second network node, the context retrieval response containing a relocation indication of whether the UE context is to be relocated to the second network node; wherein the context retrieval response comprises a second message protected with a second cryptographic key, and the second message comprises: an identifier to be used by the UE for further operations in the inactive mode; an indication of a RAN notification area, RNA, where the UE can receive service while operating in the inactive mode; and a maximum time between location notifications initiated by the UE. receive , from a second network node, a context retrieval request comprising an identifier of a user equipment, UE, operating in an inactive mode and a first message, the first message being protected with a first cryptographic key; validate the first message using a stored cryptographic key associated with a UE context indicated by the identifier of the UE; and send a context retrieval response to the second network node, the context retrieval response containing a relocation indication of whether the UE context is to be relocated to the second network node; an identifier to be used by the UE for further operations in the inactive mode; an indication of a RAN notification area, RNA, where the UE can receive service while operating in the inactive mode; and a maximum time between location notifications initiated by the UE.
A catheter, comprising: an elongate shaft including a proximal end and a distal end , the elongate shaft defining a shaft longitudinal axis; a coupler disposed within a distal end of the elongate shaft, wherein the coupler defines: a first sensor groove (128-1) and a second sensor groove (128-2) in an exterior surface of the coupler and a coupler longitudinal axis; and a first and second wire management feature located at a proximal end of each one of the first sensor groove (128-1) and the second sensor groove (128-2), characterized in that the first and second wire management features include a first and second recessed area (144-1, 144-2) defined in a proximal end of the coupler , at a proximal end of the first and second sensor grooves, wherein the first and second wire management features include beveled proximal edges (148-1, 148-2) of each one of the first and second sensor grooves (128-1, 128-2) including proximal edges of the first and second sensor grooves (128-1, 128-2) that are beveled towards the coupler longitudinal axis in a distal to proximal direction. an elongate shaft including a proximal end and a distal end , the elongate shaft defining a shaft longitudinal axis; a coupler disposed within a distal end of the elongate shaft, wherein the coupler defines: a first sensor groove (128-1) and a second sensor groove (128-2) in an exterior surface of the coupler and a coupler longitudinal axis; and a first and second wire management feature located at a proximal end of each one of the first sensor groove (128-1) and the second sensor groove (128-2), characterized in that a first sensor groove (128-1) and a second sensor groove (128-2) in an exterior surface of the coupler and a coupler longitudinal axis; and a first and second wire management feature located at a proximal end of each one of the first sensor groove (128-1) and the second sensor groove (128-2), characterized in that the first and second wire management features include a first and second recessed area (144-1, 144-2) defined in a proximal end of the coupler , at a proximal end of the first and second sensor grooves, wherein the first and second wire management features include beveled proximal edges (148-1, 148-2) of each one of the first and second sensor grooves (128-1, 128-2) including proximal edges of the first and second sensor grooves (128-1, 128-2) that are beveled towards the coupler longitudinal axis in a distal to proximal direction.
Capacitive sensing material, comprising composite particles having an average particle size of 50-500 nm, as measured with transmission electron microscopy, wherein porous titanium dioxide is at least in part coated with platinum particles, wherein the platinum particles are at least in part present in the pores of the porous titanium dioxide, and the platinum particles have an average particle size of 1-20 nm, as measured with transmission electron microscopy, wherein the amount of platinum is 10-45 % by total weight of the composite particles, and wherein the mass ratio of titanium dioxide and platinum in the capacitive sensing material is from 1 : 5 to 5 : 1.
A method for hard finishing two different toothings provided on a workpiece , wherein, prior to each machining process, to set the correct tool engagement for the machining process, a first relative rotational angle position of a first rotational position reference (φ1) a first of the toothings is determined relative to a rotation axis position of a workpiece spindle holding the workpiece clamped for the first machining, and a second relative rotational angle position of a second rotational position reference (φ2) of the second of the toothings is determined relative to a rotation axis position of a workpiece spindle holding the workpiece clamped for the second machining, characterised in that the machining processes are carried out on the same workpiece spindle (108; 208) with no intervening clamping change and taking into account the underlying coupling of the first and second rotational position references.
An organic light-emitting diode, OLED, display panel, comprising a curved part and a non-curved part , the curved part comprising a plurality of organic light-emitting diodes, OLEDs, , wherein each of the OLEDs comprises a light adjusting surface configured to be capable of guiding light generated from the OLED to exit towards the non-curved part ; wherein each of the OLEDs comprises a plurality of layers disposed on a base substrate , the plurality of layers comprise a luminescent layer , the luminescent layer or a layer formed after the luminescent layer has a first curved surface , and the light adjusting surface comprises the first curved surface ; characterized in that, on the curved part , a curve direction of the first curved surface is the same as that of the base substrate and a curvature of the first curved surface is larger than that of the base substrate , and a light-emitting direction of the OLED is opposite to the curve direction of the first curved surface . wherein each of the OLEDs comprises a light adjusting surface configured to be capable of guiding light generated from the OLED to exit towards the non-curved part ; wherein each of the OLEDs comprises a plurality of layers disposed on a base substrate , the plurality of layers comprise a luminescent layer , the luminescent layer or a layer formed after the luminescent layer has a first curved surface , and the light adjusting surface comprises the first curved surface ; characterized in that, on the curved part , a curve direction of the first curved surface is the same as that of the base substrate and a curvature of the first curved surface is larger than that of the base substrate , and a light-emitting direction of the OLED is opposite to the curve direction of the first curved surface .
An integrated process for alcohol production from lignocellulosic material, wherein the process comprises: - pretreatment of the lignocellulosic material to obtain pretreated lignocellulosic material, - enzymatic hydrolysis of the pretreated lignocellulosic material to obtain enzymatically hydrolysed lignocellulosic material, wherein oxygen is added during the enzymatic hydrolysis, - solid/liquid separation of the enzymatically hydrolysed lignocellulosic material to obtain a solid fraction and a liquid fraction, - propagation of the alcohol producing microorganism by fermentation of the liquid fraction and fermentation of the liquid fraction by the alcohol producing microorganism to produce alcohol, wherein the alcohol producing microorganism is able to ferment at least a C5 sugar and at least a C6 sugar, - propagation of a fungus and production of enzymes by the fungus, wherein a part of the enzymatically hydrolysed lignocellulosic material and a part of the pretreated lignocellulosic material is used in the propagation of the fungus and/or the production of enzymes by the fungus and wherein the enzymes produced by the fungus are used in the enzymatic hydrolysis. - pretreatment of the lignocellulosic material to obtain pretreated lignocellulosic material, - enzymatic hydrolysis of the pretreated lignocellulosic material to obtain enzymatically hydrolysed lignocellulosic material, wherein oxygen is added during the enzymatic hydrolysis, - solid/liquid separation of the enzymatically hydrolysed lignocellulosic material to obtain a solid fraction and a liquid fraction, - propagation of the alcohol producing microorganism by fermentation of the liquid fraction and fermentation of the liquid fraction by the alcohol producing microorganism to produce alcohol, wherein the alcohol producing microorganism is able to ferment at least a C5 sugar and at least a C6 sugar, - propagation of a fungus and production of enzymes by the fungus, wherein a part of the enzymatically hydrolysed lignocellulosic material and a part of the pretreated lignocellulosic material is used in the propagation of the fungus and/or the production of enzymes by the fungus and wherein the enzymes produced by the fungus are used in the enzymatic hydrolysis.
A bearing device for supporting a shaft to rotate relative to an outer hub, the bearing device comprising: an annular outer race mountable within an interior bore of the hub, the outer race comprising an inwardly facing radial groove sized to receive rounded bearing elements ; and an annular inner race mountable to an outwardly curved exterior surface of the shaft , the inner race comprising: an outwardly facing radial groove sized to receive the bearing elements , the respective radial grooves of the inner and outer races together forming an annular raceway to retain the bearing elements between the races during use, and an axially convex surface along an innermost diameter of the inner race , the convex surface shaped to directly engage the exterior surface of the shaft when mounted thereto, such that the inner race remains in contact with the shaft while simultaneously accommodating radial deflection of the shaft caused by external forces (F P ), characterized in that each of the outer race and the inner race comprises a raised radial shoulder adjacent the respective radial grooves , and the height (H s ) of the shoulder of the inner race is greater than the height (H s ) of the shoulder of the outer race . an annular outer race mountable within an interior bore of the hub, the outer race comprising an inwardly facing radial groove sized to receive rounded bearing elements ; and an annular inner race mountable to an outwardly curved exterior surface of the shaft , the inner race comprising: an outwardly facing radial groove sized to receive the bearing elements , the respective radial grooves of the inner and outer races together forming an annular raceway to retain the bearing elements between the races during use, and an axially convex surface along an innermost diameter of the inner race , the convex surface shaped to directly engage the exterior surface of the shaft when mounted thereto, such that the inner race remains in contact with the shaft while simultaneously accommodating radial deflection of the shaft caused by external forces (F P ), characterized in that an outwardly facing radial groove sized to receive the bearing elements , the respective radial grooves of the inner and outer races together forming an annular raceway to retain the bearing elements between the races during use, and an axially convex surface along an innermost diameter of the inner race , the convex surface shaped to directly engage the exterior surface of the shaft when mounted thereto, such that the inner race remains in contact with the shaft while simultaneously accommodating radial deflection of the shaft caused by external forces (F P ), characterized in that each of the outer race and the inner race comprises a raised radial shoulder adjacent the respective radial grooves , and the height (H s ) of the shoulder of the inner race is greater than the height (H s ) of the shoulder of the outer race .
A method for generating an enhanced affinity T cell receptor (TCR), comprising: a. contacting one or more hematopoietic progenitor cells with one or more stromal cells and a peptide antigen, under conditions and for a time sufficient to induce differentiation of at least one hematopoietic progenitor cells into double negative (DN) TCRαβ + thymocytes, wherein the one or more hematopoietic progenitor cells comprise a non-endogenous polynucleotide encoding a TCRα chain from a parent TCR specific for the peptide antigen, and wherein the one or more stromal cells comprise a non-endogenous polynucleotide encoding Delta-like-1 or Delta-like-4 and a polynucleotide encoding an MHC molecule; b. introducing polynucleotides encoding TCRβ chains from the DN TCRαβ + thymocytes generated in step (a) into cells that are capable of expressing a TCR on the cell surface and comprise the non-endogenous polynucleotide encoding the TCRα chain from step (a); c. identifying enhanced affinity TCR expressed by at least one or more cells generated from step (b), wherein the enhanced affinity TCR is optionally a human TCR. a. contacting one or more hematopoietic progenitor cells with one or more stromal cells and a peptide antigen, under conditions and for a time sufficient to induce differentiation of at least one hematopoietic progenitor cells into double negative (DN) TCRαβ + thymocytes, wherein the one or more hematopoietic progenitor cells comprise a non-endogenous polynucleotide encoding a TCRα chain from a parent TCR specific for the peptide antigen, and wherein the one or more stromal cells comprise a non-endogenous polynucleotide encoding Delta-like-1 or Delta-like-4 and a polynucleotide encoding an MHC molecule; b. introducing polynucleotides encoding TCRβ chains from the DN TCRαβ + thymocytes generated in step (a) into cells that are capable of expressing a TCR on the cell surface and comprise the non-endogenous polynucleotide encoding the TCRα chain from step (a); c. identifying enhanced affinity TCR expressed by at least one or more cells generated from step (b), wherein the enhanced affinity TCR is optionally a human TCR.
A voiceprint verification method, characterized in that the voiceprint verification method comprises: generating and displaying , by a client terminal, a temporary identifier of each element of a matrix of elements, and displaying the matrix of elements, wherein each element of the matrix is associated to a fixed identifier, so as to enable a user to set a password by inputting a voice signal of the temporary identifier of each of at least one of the elements, wherein the password corresponds to the concatenation of the fixed identifiers of each of at least one of the elements; and receiving , by the client terminal, a first voice signal input when the user sets the password, and transmitting the first voice signal to a server. generating and displaying , by a client terminal, a temporary identifier of each element of a matrix of elements, and displaying the matrix of elements, wherein each element of the matrix is associated to a fixed identifier, so as to enable a user to set a password by inputting a voice signal of the temporary identifier of each of at least one of the elements, wherein the password corresponds to the concatenation of the fixed identifiers of each of at least one of the elements; and receiving , by the client terminal, a first voice signal input when the user sets the password, and transmitting the first voice signal to a server.
A doctor blade device with an elongated doctor blade intended to operate continuously against a roll surface and/or a cylinder surface during scraping or wiping off material on the surface , which doctor blade device comprises a carrier beam adapted to the length of the roll surface or cylinder surface, which carrier beam has a clamping arrangement for the positioning of a carrier part , arranged to slidably carry the doctor blade in a groove in the longitudinal direction, wherein the carrier part comprises a carrier blade , a lip means arranged at said carrier blade and a spacer element arranged between said lip means and said carrier blade, wherein the carrier blade , the lip means , and the spacer element are arranged to form between them, said groove along a first long side edge of the carrier blade , to facilitate slidable positioning in the longitudinal direction of the doctor blade by support of the carrier blade , characterized in that said carrier blade has a plurality of transverse relief slots emanating from a second long side edge of the carrier blade and that the lip means is divided into a number of successive lip parts .
Apparatus for the additive manufacturing of three-dimensional objects by successive, selective layer-by-layer exposure and thereby successive, selective compacting of building material layers, which consist of building material solidifiable by means of a laser beam , comprising at least one temperature controller , which is provided to regulate, at least by sections, the temperature of a construction material layer arranged on a construction plane, wherein the temperature controller comprises at least one temperature control element , which is provided to generate a temperature beam, in particular an electromagnetic beam, wherein the at least one temperature control element is embodied as or comprises a temperature control diode, wherein the temperature controller comprises several temperature control diodes, wherein the at least one temperature control diode is arranged on or in a restraint , embodied in particular as a housing, wherein the restraint is arranged within a process chamber wall of a process chamber on the side of the apparatus inside of a process chamber , within which the successive, selective layer-by-layer exposure and thereby the compacting of building material , which is solidifiable by means of an energy beam, takes place in building material layers arranged on a construction plane, characterised in that the restraint is arranged to be movable at least to a degree of freedom relative to the process chamber on the apparatus side, wherein it is arranged motion-coupled with a functions component, in particular a coating unit , which is arranged within the process chamber on the apparatus side to be movable at least to a degree of freedom and which is provided to form building material layers on the construction plane that are to be selectively compacted.
A unit comprising - a floating wind turbine having a floating foundation and - a floating mooring buoy connectable to the floating foundation of the floating wind turbine , having at least one anchoring means for anchoring the mooring buoy on the floor of the body of water, wherein - the floating foundation of the floating wind turbine has a recess for accommodating the mooring buoy , wherein the recess of the mooring buoy is accessible from the lower side of the foundation and is formed at least partially complementary to the outer contour of the mooring buoy characterized in that the mooring buoy is formed from a conically tapering wall , which forms a hollow cylinder, and a base plate closing the hollow cylinder on one side, the wall being mounted rotatably relative to the base plate . - a floating wind turbine having a floating foundation and - a floating mooring buoy connectable to the floating foundation of the floating wind turbine , having at least one anchoring means for anchoring the mooring buoy on the floor of the body of water, wherein - the floating foundation of the floating wind turbine has a recess for accommodating the mooring buoy , wherein the recess of the mooring buoy is accessible from the lower side of the foundation and is formed at least partially complementary to the outer contour of the mooring buoy
A method comprising: by a server computing device , determining a geo-location of a first user; by the server computing device , identifying a second user that the geo-location of the first user is of interest to, the second user being identified based at least in part on a relationship between the first and second users; and by the server computing device, sending to a mobile client computing device associated with the second user a notification associated with the geo-location of the first user, characterized in that the geo-location of the first user is a future geo-location and determining the future geo-location comprises predicting the future geo-location, wherein predicting the future geo-location comprises determining a geo-location common to the first and second users based at least in part on whether a trajectory of movement of the first user substantially intersects a trajectory of movement of the second user, and wherein the notification sent to a mobile client computing device associated with the second user contains information associated with the first user; the method further comprising: by the server computing device, determining an arrival time for the first user based at least in part on real-time traffic data, wherein the notification includes information providing an updated arrival time for the first user at the future geo-location.. by a server computing device , determining a geo-location of a first user; by the server computing device , identifying a second user that the geo-location of the first user is of interest to, the second user being identified based at least in part on a relationship between the first and second users; and by the server computing device, sending to a mobile client computing device associated with the second user a notification associated with the geo-location of the first user, characterized in that the geo-location of the first user is a future geo-location and determining the future geo-location comprises predicting the future geo-location, wherein predicting the future geo-location comprises determining a geo-location common to the first and second users based at least in part on whether a trajectory of movement of the first user substantially intersects a trajectory of movement of the second user, and wherein the notification sent to a mobile client computing device associated with the second user contains information associated with the first user; the method further comprising: by the server computing device, determining an arrival time for the first user based at least in part on real-time traffic data, wherein the notification includes information providing an updated arrival time for the first user at the future geo-location..