mhurhangee/ep-ind-claims huggingface dataset:
Method of communication between two nodes providing online charging functionalities in an IP Multimedia Subsystem, IMS, network, wherein a first node is configured to operate as a Charging Triggering Function, CTF, and wherein a second node is configured to operate as an Online Charging Service, OCS, the method comprising the steps of - at the CTF node, receiving a Session Initiation Protocol, SIP, request relating to a SIP session from a network node; - at the CTF node, providing a notification indicating that the OCS service is not available; - at the CTF node, if said notification comprises an indication that CCR requests relating to said SIP session should be buffered, -- storing Credit Control Request, CCR, information that corresponds to said SIP session, and that is to be sent to the OCS, in a memory buffer; -- handling requests relating to said SIP session, on assumption that corresponding CCR requests have been granted; -- transmitting said buffered CCR information to said OCS after being notified that the OCS is available; - at the OCS node, processing said previously buffered CCR information. - at the CTF node, receiving a Session Initiation Protocol, SIP, request relating to a SIP session from a network node; - at the CTF node, providing a notification indicating that the OCS service is not available; - at the CTF node, if said notification comprises an indication that CCR requests relating to said SIP session should be buffered, -- storing Credit Control Request, CCR, information that corresponds to said SIP session, and that is to be sent to the OCS, in a memory buffer; -- handling requests relating to said SIP session, on assumption that corresponding CCR requests have been granted; -- transmitting said buffered CCR information to said OCS after being notified that the OCS is available; -- storing Credit Control Request, CCR, information that corresponds to said SIP session, and that is to be sent to the OCS, in a memory buffer; -- handling requests relating to said SIP session, on assumption that corresponding CCR requests have been granted; -- transmitting said buffered CCR information to said OCS after being notified that the OCS is available; - at the OCS node, processing said previously buffered CCR information.
A reagent for a surgically excised cancer tissue sample to allow genetic expression analysis, the reagent comprising the components of: at least one chaotrope; at least one kosmotrope; a chelator; a buffer; an apoptosis substrate, and a metabolic modulator; wherein the apoptosis substrate is leptin; and wherein the at least one kosmotrope is α,α-trehalose. at least one chaotrope; at least one kosmotrope; a chelator; a buffer; an apoptosis substrate, and a metabolic modulator; wherein the apoptosis substrate is leptin; and wherein the at least one kosmotrope is α,α-trehalose.
Spacer for insulating glass panes, comprising a profile body made of a plastics material which is of substantially rectangular cross-section having first and second side walls (14, 16) arranged in parallel relation to each other, and an inner wall which extends between the first and the second side wall, and an outer wall which extends between the first and the second side wall (14, 16) in substantially parallel relation to the inner wall and together with the profile body forms a closed hollow profile, wherein a first and a second wire form primary reinforcing element (24, 26) are arranged in the inner wall parallel to an axial direction of the spacer profile, characterized in that the first and second primary reinforcing elements (24, 26) are arranged exclusively in the region of the inner wall and with their outer contours maintain a predetermined distance from the side walls, the distance between the centroids of the cross-sectional areas of the first and second primary reinforcing elements (24, 26) is 40 % of the distance between the side walls (14, 16) or more, but at least approximately 4 mm, and in that the first and second primary reinforcing elements (24, 26) are each arranged adjacent to a part of the hollow volume of the hollow profile in which, after the hollow profile has been bent by 90° about a bending axis extending perpendicularly to the longitudinal direction and parallel to the inner wall, the inner wall and the outer wall are spaced from one another.
A method of producing an atomized powder, the method comprising: an atomizing step of forming magnetic alloy particles from a molten metal by an atomizing method, to obtain a slurry in which the magnetic alloy particles are dispersed in an aqueous dispersion medium; a slurry concentration step of causing magnetic separation means to separate the magnetic alloy particles from the slurry to form a concentrated slurry having the magnetic alloy particles of more than 80% by mass, the magnetic separation means using a rotary drum including a magnetic circuit part fixedly disposed at a position where at least a part of the magnetic circuit part is immersed in the slurry and an outer sleeve capable of rotating outside the magnetic circuit part; a drying step of causing drying means using an air flow dryer to dry the concentrated slurry to form a magnetic alloy powder; and a concentrated slurry storage step is provided between the slurry concentration step and the drying step, and a slurry storage stirring device that can cause bubbling to stir the concentrated slurry in the concentrated slurry storage step is used. an atomizing step of forming magnetic alloy particles from a molten metal by an atomizing method, to obtain a slurry in which the magnetic alloy particles are dispersed in an aqueous dispersion medium; a slurry concentration step of causing magnetic separation means to separate the magnetic alloy particles from the slurry to form a concentrated slurry having the magnetic alloy particles of more than 80% by mass, the magnetic separation means using a rotary drum including a magnetic circuit part fixedly disposed at a position where at least a part of the magnetic circuit part is immersed in the slurry and an outer sleeve capable of rotating outside the magnetic circuit part; a drying step of causing drying means using an air flow dryer to dry the concentrated slurry to form a magnetic alloy powder; and a concentrated slurry storage step is provided between the slurry concentration step and the drying step, and a slurry storage stirring device that can cause bubbling to stir the concentrated slurry in the concentrated slurry storage step is used.
A system comprising: a gasification feed injector, comprising: a tip portion comprising an outer wall and a feed outlet, wherein an injection axis of the gasification feed injector extends through the feed outlet of the tip portion; and at least one fastener extending radially from the outer wall relative to the injection axis wherein an attachment location of the at least one fastener is located away from the feed outlet of the tip portion; and a heat shield, comprising: a tile radially disposed on the at least one fastener and radially secured to the outer wall via fastening the tile to the at least one fastener, wherein the tile wraps around a distal end portion of the tip portion and wherein the tile comprises an opening, and the at least one fastener extends into the opening, characterized in that the tile comprises an opening, the at least one fastener extends into the opening, and an insulation layer is disposed between the outer wall and the tile. a gasification feed injector, comprising: a tip portion comprising an outer wall and a feed outlet, wherein an injection axis of the gasification feed injector extends through the feed outlet of the tip portion; and at least one fastener extending radially from the outer wall relative to the injection axis wherein an attachment location of the at least one fastener is located away from the feed outlet of the tip portion; and a tip portion comprising an outer wall and a feed outlet, wherein an injection axis of the gasification feed injector extends through the feed outlet of the tip portion; and at least one fastener extending radially from the outer wall relative to the injection axis wherein an attachment location of the at least one fastener is located away from the feed outlet of the tip portion; and a heat shield, comprising: a tile radially disposed on the at least one fastener and radially secured to the outer wall via fastening the tile to the at least one fastener, wherein the tile wraps around a distal end portion of the tip portion and wherein the tile comprises an opening, and the at least one fastener extends into the opening, a tile radially disposed on the at least one fastener and radially secured to the outer wall via fastening the tile to the at least one fastener, wherein the tile wraps around a distal end portion of the tip portion and wherein the tile comprises an opening, and the at least one fastener extends into the opening,
A fuel assembly, comprising: a plurality of fuel rods containing a fissile material; a lower tie plate which supports each lower end portion of the fuel rods; an upper tie plate which holds each upper end portion of the fuel rods; a plurality of fuel spacers, each of which bundles the plurality of fuel rods; a channel box attached to the upper tie plate, extending toward the lower tie plate, and surrounding the plurality of fuel rods bundled by the fuel spacers; and a flow resistance member, which is disposed in an inner side of an outermost layer region of an array of the plurality of fuel rods in a cross section in a direction perpendicular to a center axis of the channel box, and through which coolant paths are formed, and which the fuel rods penetrate, characterized in that, when the number of the fuel rods held by the flow resistance member is R, the number of all the fuel rods in the fuel assembly is A, and a projected area ratio C of projected area Sa of the flow resistance member from an upper tie plate side to projected area Sb of the fuel spacer which holds all the fuel rods in the fuel assembly from the upper tie plate side is defined by the following formula: C = Sa / Sb × A / R wherein the projected area ratio C is within a range of 1.5 to 5.2. a plurality of fuel rods containing a fissile material; a lower tie plate which supports each lower end portion of the fuel rods; an upper tie plate which holds each upper end portion of the fuel rods; a plurality of fuel spacers, each of which bundles the plurality of fuel rods; a channel box attached to the upper tie plate, extending toward the lower tie plate, and surrounding the plurality of fuel rods bundled by the fuel spacers; and a flow resistance member, which is disposed in an inner side of an outermost layer region of an array of the plurality of fuel rods in a cross section in a direction perpendicular to a center axis of the channel box, and through which coolant paths are formed, and which the fuel rods penetrate, characterized in that, when the number of the fuel rods held by the flow resistance member is R, the number of all the fuel rods in the fuel assembly is A, and a projected area ratio C of projected area Sa of the flow resistance member from an upper tie plate side to projected area Sb of the fuel spacer which holds all the fuel rods in the fuel assembly from the upper tie plate side is defined by the following formula: C = Sa / Sb × A / R wherein the projected area ratio C is within a range of 1.5 to 5.2.
Key for activating a lock cylinder with a key bow and a key shaft extending from the key bow, wherein the key shaft comprises a pivotable activation component for activating a tumbler, whereby the pivot axis of the activation component intersects the side surfaces (22, 24) of the key shaft at an angle, characterized in that the activation component comprises two wing-like activation elements (26, 28) that are non-rotatably connected to each another and which extend from the pivot axis in different directions, especially radially, wherein by means of the activation elements (26, 28) a movement or torque can be guided through the key shaft.
An optical encoder comprising a movable part supporting a diffusing zone and an absorbing zone, a light emitter that is disposed so as to emit light radiation towards the movable part and a sensor (17, 35; 41, 42) that is sensitive to the light emitted by the emitter, the sensor (17, 35; 41, 42) being disposed so as to detect light radiation that is reflected by the diffusing zone, the movement of the movable part allowing either the diffusing zone or the absorbing zone to be placed on an optical path between the emitter and the sensor (17, 35; 41, 42), characterised in that it further comprises a plate forming an optical waveguide, the emitter being disposed so as to emit the light radiation into the waveguide, in that the optical waveguide has a first and a second external faces (22, 23), the light radiation totally reflecting between the two faces (22, 23), in that the optical waveguide is disposed between the movable part and the sensor (17, 35; 41, 42), the movable part being disposed on the side of the first face, the sensor (17, 35; 41, 42) being disposed on the side of the second face, in that the first face comprises a first altered zone (30, 36) that is configured so that part of the light radiation exits the optical waveguide via the altered zone (30, 36) towards the movable part, and in that the optical waveguide is passed through by the light radiation that is reflected by the diffusing zone.
A method of preparing a composition comprising stressed tumor cells and immunogenic stress proteins of said tumor cells, comprising the following steps: i) cultivating tumor cells in a culture medium; ii) subjecting the cultured tumor cells from step i) to a stress in vitro, wherein the stress is selected from the group consisting of an irradiation, a heat shock, a chemical shock, a metabolic stress and a combination of at least two of them, wherein said cultured cells develop a resistance mechanism in response to said stress which causes the production of the stress proteins by said cells; iii) recovering the product of step ii) comprising stressed tumor cells and stress proteins found intracellularly, extracellularly free, intramembranously, and/or at the surface of a tumor cell; iv) treating the product obtained at step iii) with a molecule or a process capable of rendering the stress proteins immunogenic, wherein the time interval between the end of step ii) and the beginning of the next step is of several hours. i) cultivating tumor cells in a culture medium; ii) subjecting the cultured tumor cells from step i) to a stress in vitro, wherein the stress is selected from the group consisting of an irradiation, a heat shock, a chemical shock, a metabolic stress and a combination of at least two of them, wherein said cultured cells develop a resistance mechanism in response to said stress which causes the production of the stress proteins by said cells; iii) recovering the product of step ii) comprising stressed tumor cells and stress proteins found intracellularly, extracellularly free, intramembranously, and/or at the surface of a tumor cell; iv) treating the product obtained at step iii) with a molecule or a process capable of rendering the stress proteins immunogenic,
A method for manufacturing a bonded SOI wafer by bonding a bond wafer composed of a silicon single crystal and a base wafer composed of a silicon single crystal with an insulator film interposed therebetween, wherein a silicon single crystal wafer having a resistivity of 100 Q-cm or more is used as the base wafer, and the method comprises steps of: forming an underlying insulator film on a bonding surface side of the base wafer; depositing a polycrystalline silicon layer on a surface of the underlying insulator film; polishing a surface of the polycrystalline silicon layer; modifying the polycrystalline silicon layer by performing ion implantation on the polished polycrystalline silicon layer to form a modified silicon layer which has an amorphous region containing a spherical defect having a structure of spherical cavities at the top and a polycrystalline layer at the bottom; forming the insulator film on a bonding surface of the bond wafer; bonding the bond wafer and a surface of the modified silicon layer of the base wafer with the insulator film interposed therebetween; and thinning the bonded bond wafer to form an SOI layer. a silicon single crystal wafer having a resistivity of 100 Q-cm or more is used as the base wafer, and the method comprises steps of: forming an underlying insulator film on a bonding surface side of the base wafer; depositing a polycrystalline silicon layer on a surface of the underlying insulator film; polishing a surface of the polycrystalline silicon layer; modifying the polycrystalline silicon layer by performing ion implantation on the polished polycrystalline silicon layer to form a modified silicon layer which has an amorphous region containing a spherical defect having a structure of spherical cavities at the top and a polycrystalline layer at the bottom; forming the insulator film on a bonding surface of the bond wafer; bonding the bond wafer and a surface of the modified silicon layer of the base wafer with the insulator film interposed therebetween; and thinning the bonded bond wafer to form an SOI layer. forming an underlying insulator film on a bonding surface side of the base wafer; depositing a polycrystalline silicon layer on a surface of the underlying insulator film; polishing a surface of the polycrystalline silicon layer; modifying the polycrystalline silicon layer by performing ion implantation on the polished polycrystalline silicon layer to form a modified silicon layer which has an amorphous region containing a spherical defect having a structure of spherical cavities at the top and a polycrystalline layer at the bottom; forming the insulator film on a bonding surface of the bond wafer; bonding the bond wafer and a surface of the modified silicon layer of the base wafer with the insulator film interposed therebetween; and thinning the bonded bond wafer to form an SOI layer.
A pressurized inflatable sports ball comprising a sealable inflation valve comprising: a valve needle passageway defined by a wall extending the length of the passageway, a recessed aperture within said passageway that extends laterally beyond the wall and a cap plug device, said cap plug device comprising a beveled protruding profile having a bottom and a top, which has a greater width at the top than the bottom, and wherein said cap plug device is adapted to fit within the passageway such that said protruding profile and said recessed aperture form a seal surface.
A method of displaying a route traversed by an athlete equipped with a location-aware portable fitness monitoring device, comprising: receiving data describing a plurality of satellite navigational system waypoints that are acquired as the athlete engages in a fitness activity; identifying a map area based on a location indicated by the data describing the plurality of satellite navigational system waypoints; determining the route traversed by the athlete based on the data describing the plurality of satellite navigational system waypoints and based on the location of two or more known routes previously traversed by a person equipped with a location-aware portable fitness monitoring device, wherein the two or more known routes previously traversed are stored in a route database in association with at least latitude and longitude information, and wherein at least one of the two or more known routes was previous traversed by the athlete himself and at least one of the two or more known routes was not previous traversed by the athlete himself; and displaying the route traversed by the athlete on top of the map area, wherein: when determining the route traversed by the athlete, the one or more known routes that were previously traversed by the athlete himself are given more weight than the one or more known routes that were not previously traversed by the athlete himself. receiving data describing a plurality of satellite navigational system waypoints that are acquired as the athlete engages in a fitness activity; identifying a map area based on a location indicated by the data describing the plurality of satellite navigational system waypoints; determining the route traversed by the athlete based on the data describing the plurality of satellite navigational system waypoints and based on the location of two or more known routes previously traversed by a person equipped with a location-aware portable fitness monitoring device, wherein the two or more known routes previously traversed are stored in a route database in association with at least latitude and longitude information, and wherein at least one of the two or more known routes was previous traversed by the athlete himself and at least one of the two or more known routes was not previous traversed by the athlete himself; and displaying the route traversed by the athlete on top of the map area, wherein: when determining the route traversed by the athlete, the one or more known routes that were previously traversed by the athlete himself are given more weight than the one or more known routes that were not previously traversed by the athlete himself.
A method for conveying piece goods, wherein the piece goods are conveyed along a conveying path in a first conveying direction, on a conveying surface which is formed by the conveying element of a conveying device, and at least individual piece goods are deflected by guidance elements of two deflecting elements (105, 106) of a deflecting device, out of the first conveying direction and transferred to a take-over device, wherein the guidance elements in the deflection position of the deflecting elements (105, 106) form an angle of 10° to 80° with the conveying direction, and a first deflecting element of the deflecting device is moved out of an initial position from a first side into the conveying path of the piece goods, for deflecting a piece good, and the piece good is deflected out of the first conveying direction on account of this, and a second deflecting element of the deflecting device which cooperates with the first deflecting element is moved out of an initial position from an opposite second side into the conveying path of the piece goods, and the piece good which is deflected by the first deflecting element is guided to the take-over device, wherein the first and the second deflecting element are translation elements which in a translation movement are moved into the conveying path of the piece goods, characterised in that the direction (R1, R2) of the translation movement is effected perpendicularly to the conveying direction of the conveying device.