mhurhangee/ep-ind-claims huggingface dataset:
A method for detaching a user equipment, UE, registered in an evolved packet system, EPS, network and a circuit switched, CS, network, comprising: when the UE needs to detach from the EPS network, transmitting (203, 303, 403), by a mobility management entity, MME, an International Mobile Subscriber Identity, IMSI, Detach Indication message to a Mobile Switching Center/Visitor Location Register, MSC/VLR, wherein the IMSI Detach Indication message carries a Detach Type indicating EPS Detach Only; after receiving the IMSI Detach Indication message, clearing (204, 304, 404), by the MSC/VLR, the connection between the MSC/VLR and the MME; and transmitting (209, 210, 312, 313, 406), by the MME, a message through an evolved NodeB, eNodeB, to the UE to instruct the UE to select a CS cell. when the UE needs to detach from the EPS network, transmitting (203, 303, 403), by a mobility management entity, MME, an International Mobile Subscriber Identity, IMSI, Detach Indication message to a Mobile Switching Center/Visitor Location Register, MSC/VLR, wherein the IMSI Detach Indication message carries a Detach Type indicating EPS Detach Only; after receiving the IMSI Detach Indication message, clearing (204, 304, 404), by the MSC/VLR, the connection between the MSC/VLR and the MME; and transmitting (209, 210, 312, 313, 406), by the MME, a message through an evolved NodeB, eNodeB, to the UE to instruct the UE to select a CS cell.
A spray nozzle assembly, comprising: a squeeze bottle; a spray nozzle; a cap attached to the squeeze bottle, and a barrel extending from the cap and into the spray nozzle, wherein the spray nozzle is rotatable about the cap and the barrel, and includes a first operational state and a second operational state for the emission of fluid, and the cap comprises a channel defining a single fluid pathway between the squeeze bottle and the spray nozzle characterized in that the cap has an aperture that receives the spray nozzle. a squeeze bottle; a spray nozzle; a cap attached to the squeeze bottle, and a barrel extending from the cap and into the spray nozzle, wherein the spray nozzle is rotatable about the cap and the barrel, and includes a first operational state and a second operational state for the emission of fluid, and the cap comprises a channel defining a single fluid pathway between the squeeze bottle and the spray nozzle characterized in that the cap has an aperture that receives the spray nozzle.
A method for solid-liquid separation of drilling fluids, comprising: maintaining a retort body at a pre-determined temperature, wherein an inner wall of the retort body at least partially defines a chamber within the retort body; injecting a pre-determined volume of a sample drilling fluid into the inner chamber; generating a film of the sample drilling fluid on the inner wall; separating the film into a solid portion and a liquid portion, wherein separating the film into a liquid portion includes generating a vapor of the liquid portion; and collecting the liquid portion using a vent that provides fluid communication with the inner chamber; characterized in that: the step of generating a film of the sample drilling fluid on the inner wall includes spinning a rotor within the chamber, and wherein the rotor includes a shaft and a blade, and the blade includes at least one roller that at least partially contacts the inner wall. maintaining a retort body at a pre-determined temperature, wherein an inner wall of the retort body at least partially defines a chamber within the retort body; injecting a pre-determined volume of a sample drilling fluid into the inner chamber; generating a film of the sample drilling fluid on the inner wall; separating the film into a solid portion and a liquid portion, wherein separating the film into a liquid portion includes generating a vapor of the liquid portion; and collecting the liquid portion using a vent that provides fluid communication with the inner chamber; characterized in that: the step of generating a film of the sample drilling fluid on the inner wall includes spinning a rotor within the chamber, and wherein the rotor includes a shaft and a blade, and the blade includes at least one roller that at least partially contacts the inner wall.
A manufacturing method for a compound having an N,N-bis(2-hydroxy-3-chloropropyl)amino group in which an amine compound or a solution thereof, epichlorohydrin or a solution thereof, and an acidic compound or a solution thereof are continuously supplied to a flow reactor and reacted at a reaction temperature of 40 to 130°C and a liquid space velocity of 0.2 to 10 h -1.
A user terminal (UE, 20) comprising: a receiving section configured to receive a downlink signal comprising non-orthogonal multiple access, NOMA, downlink signals superposed over the same radio resource transmitted with different transmission power to a plurality of user terminals and information about whether or not successive interference cancellation, SIC, is applied to the downlink signal; and an interference cancellation section configured to decode a signal for the user terminal from the downlink signals based on the information about whether or not SIC is applied to the downlink signal, wherein the interference cancellation section is configured to identify each of the user terminals based on a DMRS, Demodulation Reference Signal, port. a receiving section configured to receive a downlink signal comprising non-orthogonal multiple access, NOMA, downlink signals superposed over the same radio resource transmitted with different transmission power to a plurality of user terminals and information about whether or not successive interference cancellation, SIC, is applied to the downlink signal; and an interference cancellation section configured to decode a signal for the user terminal from the downlink signals based on the information about whether or not SIC is applied to the downlink signal, wherein the interference cancellation section is configured to identify each of the user terminals based on a DMRS, Demodulation Reference Signal, port.
A blast chiller apparatus comprising a chilling chamber structured for housing food to be cooled/frozen, a chilling circuit comprising at least a first heat exchanger designed to cool/freeze the chilling chamber; characterized in comprising a sanitizing system which is configured to sanitize said chilling chamber by destroying and/or inactivating microorganisms contaminating said chilling chamber, said sanitizing system comprising: - a defrost system designed to defrost said first heat exchanger; - at least an UV source designed to irradiate with ultraviolet radiations the inner surfaces of said chilling chamber; and - a control system configured to control said defrost system to heat the first heat exchanger so as to cause the inner temperature of the chilling chamber to grow up until it is comprised within a prefixed first temperature range associated with a high performance operating condition of said UV source and being further configured to switch on said UV source when the inner temperature of the chilling chamber falls in said prefixed first temperature range. - a defrost system designed to defrost said first heat exchanger; - at least an UV source designed to irradiate with ultraviolet radiations the inner surfaces of said chilling chamber; and - a control system configured to control said defrost system to heat the first heat exchanger so as to cause the inner temperature of the chilling chamber to grow up until it is comprised within a prefixed first temperature range associated with a high performance operating condition of said UV source and being further configured to switch on said UV source when the inner temperature of the chilling chamber falls in said prefixed first temperature range.
A self-righting device comprising: a support body for supporting a medicament delivery device; the support body having a mass, a center of gravity and a shape such that the self-righting device, when positioned on a substantially horizontal surface, moves from an unbalanced position (46a-46c) to an upright position; wherein the gravity force of the self-righting device generates a gravitational force moment on the self-righting device and on the medicament delivery device such that the self-righting device, and the medicament delivery device held by the self-righting device, are rotated from any of the unbalanced position (46a, 46b, 46c), towards the upright position; and wherein the support body comprises a proximally-facing first surface which faces generally upwards in an upright position of the self-righting device, and a distally-facing convex second surface which faces generally downwards in an upright position of the self-righting device; wherein the self-righting device further comprises a mechanical adaptor configured to be attached to the support body and for holding an elongated medicament delivery device at an angle less than 30 degrees from a vertical axis when the self-righting device is in the upright position; characterised in that the second surface has a smooth shape without any flat portions or irregular portions. a support body for supporting a medicament delivery device; the support body having a mass, a center of gravity and a shape such that the self-righting device, when positioned on a substantially horizontal surface, moves from an unbalanced position (46a-46c) to an upright position; wherein the gravity force of the self-righting device generates a gravitational force moment on the self-righting device and on the medicament delivery device such that the self-righting device, and the medicament delivery device held by the self-righting device, are rotated from any of the unbalanced position (46a, 46b, 46c), towards the upright position; and wherein the support body comprises a proximally-facing first surface which faces generally upwards in an upright position of the self-righting device, and a distally-facing convex second surface which faces generally downwards in an upright position of the self-righting device; wherein the self-righting device further comprises a mechanical adaptor configured to be attached to the support body and for holding an elongated medicament delivery device at an angle less than 30 degrees from a vertical axis when the self-righting device is in the upright position; characterised in that the second surface has a smooth shape without any flat portions or irregular portions.
An article comprising a fibrous structure for cleaning a surface, the article comprising a soil capture agent, wherein the soil capture agent comprises a polymer, the polymer comprising two or more monomeric units selected from the group consisting of: a. nonionic monomeric units, wherein the nonionic monomeric units comprise a nonionic hydrophilic monomeric unit, wherein the nonionic hydrophilic monomeric unit is derived from acrylamide; b. anionic monomeric units, wherein the anionic monomeric units are derived from anionic monomers selected from the group consisting of: monomers having at least one carboxylic function; c. cationic monomeric units, wherein the cationic monomeric unit is derived from 3-methacrylamidopropyl)trimethylammonium chloride (MAPTAC); and d. zwitterionic monomeric units, wherein the zwitterionic monomeric units are derived from zwitterionic monomers selected from the group consisting of: sulfobetaine monomers, phosphobetaine monomers, and carboxybetaine monomers; wherein the polymer comprises at least one monomeric unit from group a and at least one monomeric unit selected from groups b, and d, wherein at least a portion of the article exhibits a Soil Adsorption Value of at least 75 mg as measured according to a Soil Adsorption Test Method described herein; wherein the polymer comprises at least 69.9% wt of a monomeric unit from group a, preferably wherein the polymer comprises no more than 30.1% wt of a monomeric unit selected from the group consisting of: group b, group c, group d, and mixtures thereof. a. nonionic monomeric units, wherein the nonionic monomeric units comprise a nonionic hydrophilic monomeric unit, wherein the nonionic hydrophilic monomeric unit is derived from acrylamide; b. anionic monomeric units, wherein the anionic monomeric units are derived from anionic monomers selected from the group consisting of: monomers having at least one carboxylic function; c. cationic monomeric units, wherein the cationic monomeric unit is derived from 3-methacrylamidopropyl)trimethylammonium chloride (MAPTAC); and d. zwitterionic monomeric units, wherein the zwitterionic monomeric units are derived from zwitterionic monomers selected from the group consisting of: sulfobetaine monomers, phosphobetaine monomers, and carboxybetaine monomers;
A semi-generic underframe assembly for supporting track systems on a vehicle, the assembly comprising: a) a first customized adapter frame configured to be mounted to an underside of the vehicle at a first location, the first customized adapter frame comprising a first customized mating portion configured to be attached at the first location on the underside of the vehicle, and a first generic mating portion; b) a generic adapter frame configured to be mounted to the first customized adapter frame, the generic adapter frame comprising a second generic mating portion substantially matching the first generic mating portion and configured to mate with the first generic mating portion; wherein the assembly comprises at least one first preconfigured mounting location configured to support a first track system and at least one second preconfigured mounting location configured to support a second track system. a) a first customized adapter frame configured to be mounted to an underside of the vehicle at a first location, the first customized adapter frame comprising a first customized mating portion configured to be attached at the first location on the underside of the vehicle, and a first generic mating portion; b) a generic adapter frame configured to be mounted to the first customized adapter frame, the generic adapter frame comprising a second generic mating portion substantially matching the first generic mating portion and configured to mate with the first generic mating portion;
A heat transfer tube of a boiler, in particular a condensing boiler, having an outer tube that can carry a flow of exhaust gases from boiler firing, and can be externally surrounded by heating water, and a profile insert inserted into the outer tube, which in order to enlarge the inner surface of the outer tube has ribs running in its longitudinal direction, and is in heat conductive contact with the outer tube, wherein a first longitudinal section of the outer tube has a cylindrically smooth-walled design, and wherein the profile insert extends exclusively over the first longitudinal section of the outer tube, characterized in that a second longitudinal section of the outer tube has at least one cross section-constricting element that constricts the flow cross section, wherein the at least one cross section-constructing element comprises at least two first recesses (29, 30), which are formed in the wall of the second longitudinal section of the outer tube, wherein the two first recesses (29, 30) are arranged diametrically opposite each other, and have a mirror-symmetrical design in relation to a first tube plane, wherein the cross section-constricting element, in addition to the at least two first recesses (29, 30), comprises at least two second recesses (35, 36), which are formed by the wall of the second longitudinal section of the outer tube, wherein the two second recesses (35, 36) are arranged diametrically opposite each other, and have a mirror-symmetrical design in relation to a second tube plane that runs perpendicular to the first tube plane, and wherein the at least one cross section-constricting element is arranged at an inlet of the outer tube, which has the inlet for supplying exhaust gases, and an outlet for removing exhaust gases.
A semiconductor light-emitting device comprising: a first semiconductor layer having a first major surface, a second major surface which is an opposite side from the first major surface, and a side surface; a second semiconductor layer provided on the second major surface of the first semiconductor layer and including a light-emitting layer; electrodes (15, 16) provided on the second major surface of the first semiconductor layer and on a surface of the second semiconductor layer on an opposite side from the first semiconductor layer; an insulating layer having a first surface formed on the second major surface side of the first semiconductor layer and a second surface which is an opposite side from the first surface; and an external terminal which is a conductor provided on the second surface side of the insulating layer; characterized by further comprising: a phosphor layer provided on the first major surface and the side surface of the first semiconductor layer and on a portion of the first surface of the insulating layer, the portion being adjacent to the side surface of the first semiconductor layer, wherein the phosphor layer covering the first major surface has the same thickness as the phosphor layer covering the side surface; the phosphor layer covering the first major surface and the phosphor layer covering the side surface are continuous and integral; and the phosphor layer covering the side surface does not cover a side surface of the insulating layer. a first semiconductor layer having a first major surface, a second major surface which is an opposite side from the first major surface, and a side surface; a second semiconductor layer provided on the second major surface of the first semiconductor layer and including a light-emitting layer; electrodes (15, 16) provided on the second major surface of the first semiconductor layer and on a surface of the second semiconductor layer on an opposite side from the first semiconductor layer; an insulating layer having a first surface formed on the second major surface side of the first semiconductor layer and a second surface which is an opposite side from the first surface; and an external terminal which is a conductor provided on the second surface side of the insulating layer; a phosphor layer provided on the first major surface and the side surface of the first semiconductor layer and on a portion of the first surface of the insulating layer, the portion being adjacent to the side surface of the first semiconductor layer, wherein the phosphor layer covering the first major surface has the same thickness as the phosphor layer covering the side surface; the phosphor layer covering the first major surface and the phosphor layer covering the side surface are continuous and integral; and the phosphor layer covering the side surface does not cover a side surface of the insulating layer.
An adaptive structural core for morping panel structures, comprising: a plurality of core members arranged in a repeating pattern and wherein said plurality of core members define a plurality of core cells each having a plurality of cell walls; a plurality of actuator attachment points provided on said plurality of core members; and at least one actuator (12, 12a) engaging said plurality of actuator attachment points and being continuous across many core cells in the adaptive structural core. a plurality of core members arranged in a repeating pattern and wherein said plurality of core members define a plurality of core cells each having a plurality of cell walls; a plurality of actuator attachment points provided on said plurality of core members; and at least one actuator (12, 12a) engaging said plurality of actuator attachment points and being continuous across many core cells in the adaptive structural core.
Clamping apparatus for clamping workpieces, particularly sheets, comprising a body defining a plane (14, 16) for supporting a workpiece to be clamped, a hook member movable between a resting position spaced from said plane of support (14, 16) and at least one clamping position close to said plane of support (14, 16), for clamping a workpiece, and control means for controlling the movement of the hook member between the aforesaid positions, said control means comprising a control rod axially slidable between a first and a second position to which the aforesaid rest and clamping positions of the hook member respectively correspond, a L-shaped lever swingably mounted with respect to the body and articulated to the hook member, and a connecting rod the opposite ends of which are articulated to the L-shaped lever and to the control rod, respectively, such control means including a toggle mechanism adapted to make the movement of the hook member irreversible in said at least one clamping position, characterized in that it comprises elastic thrust means adapted to cooperate with the control means (28, 44, 52) in order to allow the hook member, in said clamping position, to reach a plurality of positions close, within a predetermined range, to said plane of support (14, 16), with the aim of clamping selectively workpieces of different thickness with respect to the body, said elastic thrust means comprising a gas spring that includes a substantially cylindrical body fixed to the body of the apparatus, and a piston slidably mounted with respect to the cylindrical body and provided with a head surface intended to rest against a radially outer surface of a rotatable roller associated with the end of the connecting rod that faces the side opposite to said L-shaped lever.
A shaped article comprising a blend of calcium hypochlorite and calcium hydroxide, wherein the total calcium hydroxide content in the shaped article is comprised between 20 and 70% by weight based on the total weight of the shaped article.
Method for producing a tunnel field effect transistor, TFET, comprising a source, channel and drain area, with the steps - an epitaxy layer (102, 123) is arranged on a silicon substrate (101, 121), - a gate arrangement with a gate electrode (104, 125) is applied to this, in which a gate dielectric (103, 124) is arranged between the gate electrode and the Si substrate, - a doped pocket area (106, 123) is formed below the gate dielectric (103, 124) adjacent to the source area, characterised in that - a selective silicidised area (108, 128) is formed in the source area, which reaches below the gate arrangement, and - a doped area (111, 129) opposite the pocket area is formed in the source area as well by diffusing out dopants from the silicidised area (108, 128) adjacent to the pocket area (106, 128) and at least partly below the pocket area, through which a tunnel crossing and therefore in operation tunnelling is carried out parallel to the electrical field lines of the gate electrode (104, 125). - an epitaxy layer (102, 123) is arranged on a silicon substrate (101, 121), - a gate arrangement with a gate electrode (104, 125) is applied to this, in which a gate dielectric (103, 124) is arranged between the gate electrode and the Si substrate, - a doped pocket area (106, 123) is formed below the gate dielectric (103, 124) adjacent to the source area, characterised in that - a selective silicidised area (108, 128) is formed in the source area, which reaches below the gate arrangement, and - a doped area (111, 129) opposite the pocket area is formed in the source area as well by diffusing out dopants from the silicidised area (108, 128) adjacent to the pocket area (106, 128) and at least partly below the pocket area, through which a tunnel crossing and therefore in operation tunnelling is carried out parallel to the electrical field lines of the gate electrode (104, 125).