mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a gateway device to enable handover of a communication session of a user device from an access network associated with unlicensed spectrum to a circuit-switched access network, the method comprising: receiving a measurement report from the user device, the measurement report including measurements associated with a plurality of access networks, the plurality of access networks including at least the circuit-switched network and the access network associated with unlicensed spectrum; deciding, based at least in part on the measurement report, to initiate a handover of the communication session of the user device from the access network associated with unlicensed spectrum to the circuit-switched access network; determining a session transfer number identifying one or more telecommunication network components for performing a transfer of the communication session from the access network associated with unlicensed spectrum to the circuit-switched access network; providing a handover request to a server associated with the circuit-switched access network, the handover request including the determined session transfer number; receiving a handover response from the server, the handover response indicating that the one or more telecommunication network components identified by the session transfer number have prepared the circuit-switched access network for the transfer of the communication session from the access network associated with unlicensed spectrum to the circuit-switched access network; and instructing the user device to connect to the circuit-switched access network to continue the communication session. receiving a measurement report from the user device, the measurement report including measurements associated with a plurality of access networks, the plurality of access networks including at least the circuit-switched network and the access network associated with unlicensed spectrum; deciding, based at least in part on the measurement report, to initiate a handover of the communication session of the user device from the access network associated with unlicensed spectrum to the circuit-switched access network; determining a session transfer number identifying one or more telecommunication network components for performing a transfer of the communication session from the access network associated with unlicensed spectrum to the circuit-switched access network; providing a handover request to a server associated with the circuit-switched access network, the handover request including the determined session transfer number; receiving a handover response from the server, the handover response indicating that the one or more telecommunication network components identified by the session transfer number have prepared the circuit-switched access network for the transfer of the communication session from the access network associated with unlicensed spectrum to the circuit-switched access network; and instructing the user device to connect to the circuit-switched access network to continue the communication session.
An index marker for differential diagnosis between influenza encephalopathy and/or encephalopathy that occurs secondary to bacterial or viral infection, and status epilepticus, consisting of α2-macroglobulin or fragment thereof, comprising a N-acetylglucosamine residue at a non-reducing terminus and having an α2,6 sialic acid-free sugar chain.
A steel component for structures for the replacement of a predetermined area of a reinforced concrete component provided for load bearing, in particular, reinforced concrete beams, comprising a recess beam comprising two connection surfaces spaced away from each other in the longitudinal direction, each with an upper side, an underside, a front side and rear side, each side being different from the connection surfaces, a steel band comprising an upper and a lower broadside, wherein the lower broadside forms the underside of the recess beam, one or a plurality of beam openings provided for the passage of installation elements, leading from the front side to the rear side, the distance of which to the respective adjacent connection surface is less than its respective height (h), wherein at least one of the beam openings is delimited by the upper broadside of the steel band, and at, at least one of the connecting surfaces, a shear-reinforcement element provided for enveloping in concrete for shear force transmission, the broadsides of which are aligned parallel to the longitudinal direction of the recess beam and the shortest connecting section between the upper side and the underside. a recess beam comprising two connection surfaces spaced away from each other in the longitudinal direction, each with an upper side, an underside, a front side and rear side, each side being different from the connection surfaces, a steel band comprising an upper and a lower broadside, wherein the lower broadside forms the underside of the recess beam, one or a plurality of beam openings provided for the passage of installation elements, leading from the front side to the rear side, the distance of which to the respective adjacent connection surface is less than its respective height (h), wherein at least one of the beam openings is delimited by the upper broadside of the steel band, and at, at least one of the connecting surfaces, a shear-reinforcement element provided for enveloping in concrete for shear force transmission, the broadsides of which are aligned parallel to the longitudinal direction of the recess beam and the shortest connecting section between the upper side and the underside.
Use of a scintillator for detecting radiation in a high temperature environment of not lower than 100°C by scintillation, the scintillator comprising a colquiriite-type crystal represented by the following chemical formula LiM 1 M 2 X 6 where M 1 represents at least one alkaline earth metal element selected from the group consisting of magnesium (Mg), calcium (Ca), strontium (Sr) and barium (Ba), M 2 represents at least one metal element selected from the group consisting of aluminum (Al), gallium (Ga) and scandium (Sc), and X represents at least one halogen element selected from the group consisting of fluorine, chlorine (Cl), bromine (Br) and iodine.
A multi-port rotary valve comprising: a tapered valve body defining at least one flow passage between first and second openings, the flow passage extending transverse to a rotational axis of the tapered valve body; a rotatable clutch coupled to a lower extent of the tapered valve body, the rotatable clutch permitting rotation of the tapered valve body in only a first direction; a valve housing including at least one inlet port and at least one outlet port, the tapered valve body being biased upwardly within the valve housing by a spring element; a rotatable disk that is adjacent to the tapered valve body within the valve housing and having an axis of rotation that is concentric with the rotational axis of the tapered valve body; first and second sealing members (22, 24) adjacent the first and second openings in the tapered valve body for sealing the tapered valve body against the valve housing; wherein an axial surface of the rotatable disk includes a first projection and wherein an axial surface of the tapered valve body includes a second projection, the axial surface of the rotatable disk being opposite of the axial surface of the tapered valve body; wherein rotation of the rotatable disk in the first direction imparts a rotation of the tapered valve body in the first direction, and rotation of the rotatable disk in a second direction, opposite of the first direction, drives the tapered valve body against the spring element and compresses the first and second sealing members (22, 24) between the tapered valve body and the valve housing a tapered valve body defining at least one flow passage between first and second openings, the flow passage extending transverse to a rotational axis of the tapered valve body; a rotatable clutch coupled to a lower extent of the tapered valve body, the rotatable clutch permitting rotation of the tapered valve body in only a first direction; a valve housing including at least one inlet port and at least one outlet port, the tapered valve body being biased upwardly within the valve housing by a spring element; a rotatable disk that is adjacent to the tapered valve body within the valve housing and having an axis of rotation that is concentric with the rotational axis of the tapered valve body; first and second sealing members (22, 24) adjacent the first and second openings in the tapered valve body for sealing the tapered valve body against the valve housing; wherein an axial surface of the rotatable disk includes a first projection and wherein an axial surface of the tapered valve body includes a second projection, the axial surface of the rotatable disk being opposite of the axial surface of the tapered valve body; wherein rotation of the rotatable disk in the first direction imparts a rotation of the tapered valve body in the first direction, and rotation of the rotatable disk in a second direction, opposite of the first direction, drives the tapered valve body against the spring element and compresses the first and second sealing members (22, 24) between the tapered valve body and the valve housing
An aqueous, curable coating or inkjet ink composition comprising: at least one water-soluble tri-functional or tetra-functional monomer represented by Formula I: wherein, R 2 is a direct bond; and wherein each Y 1 is CH 2= CR 1 -C(=O)-X-, wherein R 1 is H or C 1 - to C 5 - alkyl; wherein X is independently selected from any one or more of the following: -(CH 2)n-NH-(CH 2)n-, wherein each n is independently 0 to 5; -O-(CH 2) n -NH- wherein n = 1 to 5; -O-(CH 2) n -O-, wherein n = 1 to 8; -NH-(CH 2) n -O-R 3 -, wherein n = 1 to 5, wherein each Y 4 is H; wherein Y 2 and Y 3 are each independently selected from Y 1 or OH, -NHC(=O)OR 4, OR 5, or NH 2, wherein R 3 is -(CH 2) n - wherein n = 0 to 5; wherein R 4 is H or C 1-8 alkyl, and wherein R 5 is C 1-8 alkyl, wherein tri-functional refers to the monomer having three C=C moieties and tetra-functional refers the monomer having four C=C moieties. R 2 is a direct bond; and wherein each Y 1 is CH 2= CR 1 -C(=O)-X-, wherein R 1 is H or C 1 - to C 5 - alkyl; wherein X is independently selected from any one or more of the following: -(CH 2)n-NH-(CH 2)n-, wherein each n is independently 0 to 5; -O-(CH 2) n -NH- wherein n = 1 to 5; -O-(CH 2) n -O-, wherein n = 1 to 8; -NH-(CH 2) n -O-R 3 -, wherein n = 1 to 5, -(CH 2)n-NH-(CH 2)n-, wherein each n is independently 0 to 5; -O-(CH 2) n -NH- wherein n = 1 to 5; -O-(CH 2) n -O-, wherein n = 1 to 8; -NH-(CH 2) n -O-R 3 -, wherein n = 1 to 5, wherein each Y 4 is H; wherein Y 2 and Y 3 are each independently selected from Y 1 or OH, -NHC(=O)OR 4, OR 5, or NH 2, wherein R 3 is -(CH 2) n - wherein n = 0 to 5; wherein R 4 is H or C 1-8 alkyl, and wherein R 5 is C 1-8 alkyl, wherein tri-functional refers to the monomer having three C=C moieties and tetra-functional refers the monomer having four C=C moieties.
An inkjet head comprising: a pressure chamber-forming plate in which a plurality of pressure chambers each communicating with a nozzle are formed; a vibration plate that defines one surface of each pressure chamber and allows for deformation of a defining region thereof; a piezoelectric element formed by stacking a first electrode layer, a piezoelectric layer, and a second electrode layer in a region corresponding to the pressure chamber in an order from a surface of the vibration plate, which is opposite to the pressure chamber; an individual metallic layer, which is formed on the piezoelectric layer and part of which is stacked on the first electrode layer outside the piezoelectric layer; a common metallic layer stacked on the second electrode layer; and a circuit board that is arranged at an interval from the vibration plate, with a plurality of bump electrodes interposed therebetween, and outputs a signal for driving the piezoelectric element, wherein the first electrode layer is formed independently for each piezoelectric element, the second electrode layer is formed continuously across the plurality of piezoelectric elements, the bump electrode includes an individual bump electrode and a common bump electrode, the individual bump electrode is electrically connected with the individual metallic layer in a region outside of the defining region on the piezoelectric layer, and the common bump electrode is electrically connected with the common metallic layer in the region on the piezoelectric layer. a pressure chamber-forming plate in which a plurality of pressure chambers each communicating with a nozzle are formed; a vibration plate that defines one surface of each pressure chamber and allows for deformation of a defining region thereof; a piezoelectric element formed by stacking a first electrode layer, a piezoelectric layer, and a second electrode layer in a region corresponding to the pressure chamber in an order from a surface of the vibration plate, which is opposite to the pressure chamber; an individual metallic layer, which is formed on the piezoelectric layer and part of which is stacked on the first electrode layer outside the piezoelectric layer; a common metallic layer stacked on the second electrode layer; and a circuit board that is arranged at an interval from the vibration plate, with a plurality of bump electrodes interposed therebetween, and outputs a signal for driving the piezoelectric element, wherein the first electrode layer is formed independently for each piezoelectric element, the second electrode layer is formed continuously across the plurality of piezoelectric elements, the bump electrode includes an individual bump electrode and a common bump electrode, the individual bump electrode is electrically connected with the individual metallic layer in a region outside of the defining region on the piezoelectric layer, and the common bump electrode is electrically connected with the common metallic layer in the region on the piezoelectric layer.
A drilling assembly, comprising: a motor assembly coupled to a substantially straight housing and having an axial centerline substantially parallel with the housing; a drivetrain coupled to the motor assembly; a drill head; and a driveshaft located within and extending from the substantially straight housing and coupled between the drivetrain and the drill head, the driveshaft having a centerline fixed in a non-coincident orientation with the axial centerline and characterised in that: the driveshaft centerline is parallel to and offset by a substantially fixed distance or selectable distance from the axial centerline. a motor assembly coupled to a substantially straight housing and having an axial centerline substantially parallel with the housing; a drivetrain coupled to the motor assembly; a drill head; and a driveshaft located within and extending from the substantially straight housing and coupled between the drivetrain and the drill head, the driveshaft having a centerline fixed in a non-coincident orientation with the axial centerline and characterised in that: the driveshaft centerline is parallel to and offset by a substantially fixed distance or selectable distance from the axial centerline.
Device for carrying out a hardness test on test specimens, with a supporting surface for receiving the test specimen as well as a pressure piston and a counter bearing, that are disposed above the supporting surface, and with a spindle, wherein the pressure piston and the counter bearing are movable against one another, wherein the spindle is implemented such that it moves the pressure piston in the direction toward the counter bearing, wherein the test specimen in the application case is located between pressure piston and counter bearing and the force expended during the pressing of pressure piston and counter bearing against one another or a value proportional thereto is measurable by means of a force gauge and the hardness of the test specimen is determinable therefrom, characterized in that the supporting surface is developed as a recess of a transport star wheel element and the axis of rotation of the transport star wheel element is disposed horizontally in parallel with the spindle axis.
A method for verifying a laser marking including an image feature or text feature introduced into a surface of a document from a given angle, - in which an image of the image feature or the text feature of the laser marking is captured by an image capturing device which is oriented at an angle α from a normal on the surface of the document, - in which the image captured in perspective is rectified, - in which, from a data record provided by a document management system and belonging to the document to be verified, an image pattern is created in an evaluation device, - in which the rectified image is searched for and determined by means of a pattern matching procedure, and - in which the rectified image is compared with the image pattern for its correspondence and a correlation value is determined, characterised in that another image capturing device is oriented at an angle α from the normal on the surface of the document and opposite said normal on the surface of the document with respect to the first image capturing device, and in that said one image capturing device (17, 19) is used to capture the image feature of the laser marking while said other image capturing device (19, 17) is used to capture the text feature of the laser marking, with the document remaining immobile and the data of the captured image feature and of the captured text feature of the laser marking being merged and compared with each other and verified in the evaluation device. - in which an image of the image feature or the text feature of the laser marking is captured by an image capturing device which is oriented at an angle α from a normal on the surface of the document, - in which the image captured in perspective is rectified, - in which, from a data record provided by a document management system and belonging to the document to be verified, an image pattern is created in an evaluation device, - in which the rectified image is searched for and determined by means of a pattern matching procedure, and - in which the rectified image is compared with the image pattern for its correspondence and a correlation value is determined,
Home-automation module, comprising on the one hand a power element comprising at least one power line having for its connection a first terminal and a second terminal, and on the other hand a control element for driving at least one control component of the relay type mounted in the power line and influencing the electrical state, in particular the switched on or not switched on state, the home-automation module being characterised in that the first terminal and the second terminal are positioned opposite one another on opposite faces of the home-automation module, the home-automation module comprising, for the at least one power line, an electrical measuring means mounted in the at least one power line between the first terminal and the second terminal.
Method for manufacturing a biocompatible hydrogel object, characterised in that it comprises the following steps: (i) the preparation of a polymeric solution by dissolution of a copolymer of acrylonitrile and an olefinically unsaturated anionic group carrier comonomer in an aprotic solvent, optionally in the presence of a non-solvent, (ii) the shaping and the starting of the gelation of the polymeric solution obtained from step (i) in a mould constituted of a material containing said non-solvent or of a material which is permeable to said non-solvent, (iii) the immersion of the object during its gelation from step (ii) in a non-solvent, wherein the non-solvent is selected from among water, mineral salt aqueous solutions and organic salt aqueous solutions, and wherein the mould of step (ii) is a mould in hydrogel. (i) the preparation of a polymeric solution by dissolution of a copolymer of acrylonitrile and an olefinically unsaturated anionic group carrier comonomer in an aprotic solvent, optionally in the presence of a non-solvent, (ii) the shaping and the starting of the gelation of the polymeric solution obtained from step (i) in a mould constituted of a material containing said non-solvent or of a material which is permeable to said non-solvent, (iii) the immersion of the object during its gelation from step (ii) in a non-solvent,
An outside air introduction system for introducing an outside air into a generally closed interior space of an ultra-lightweight vehicle, the ultra-lightweight vehicle having a body provided with at least one window frame (18Lf, 18Rf) and at least one window glass (15Lf, 15Rf) fitted in the at least one window frame (18Lf, 18Rf), the body and the at least one window glass (15Lf, 15Rf) defining the generally closed interior space, wherein the outside air introduction system comprises: at least one support mechanism (45L, 45R) for supporting the at least one window glass (15Lf, 15Rf) pivotably on the body, and at least one window glass open/close mechanism (50L, 50R) which is provided to be operated by a driver of the ultra-lightweight vehicle to pivot the at least one window glass (15Lf, 15Rf) to open and close the at least one window glass (15Lf, 15Rf), wherein the at least one window glass open/close mechanism (50L, 50R) includes at least one holding mechanism (52L, 55L, 52R, 55R) for holding the at least one window glass (15Lf, 15Rf) at a closed position in which the at least one window glass (15Lf, 15Rf) is closed, characterized in that the at least one holding mechanism (52L, 55L, 52R, 55R) includes at least one operation lever (51L, 51R) operated by the driver operating upwardly to hold the at least one window glass (15Lf, 15Rf) at the closed position and downwardly to release the at least one window glass (15Lf, 15Rf), in that the at least one operation lever (51L, 51R) is secured to window glass support rods (53L, 53R) pivotally via a shaft (54L, 54R) inserted into through holes of the support rods (53L, 53R) and the at least one operation lever (51L, 51R), the window glass support rods (53L, 53R) are secured to an inner upper portion of the at least one window glass (15Lf, 15Rf), in that the at least one holding mechanism (52L, 55L, 52R, 55R) further includes: at least one stopper (55L, 55R) secured to an upper portion of the at least one window frame (18Lf, 18 Rf), and at least one window glass holding plate (52L, 52R) secured to the at least one operation lever (51L, 51R), and in that, when the at least one window glass (15Ff, 15Rf) is closed, the at least one window glass (15Lf, 15Rf) abuts against a first wall surface of the at least one stopper (55L, 55R) and the at least one window glass holding plate (52L, 52R) abuts against or engages a second wall surface of the at least one stopper (55L 55R) opposite to the first wall surface, the at least one window glass holding plate (52L, 52R) being configured to be engaged with the at least one stopper (55L, 55R) by the driver pivoting the at least one operation lever (51L, 51R) upwardly when the at least one window glass (15Lf, 15Rf) abuts against the at least one stopper (55L, 55R). at least one stopper (55L, 55R) secured to an upper portion of the at least one window frame (18Lf, 18 Rf), and at least one window glass holding plate (52L, 52R) secured to the at least one operation lever (51L, 51R), and