mhurhangee/ep-ind-claims huggingface dataset:
A method for obtaining bearer condition during handover of a user equipment, UE, characterised by: receiving, by a mobile management entity, MME, information of at least one bearer accepted by a target base station, eNB, (112, 205b, 302), the at least one accepted bearer successfully being determined when the target eNB makes an admission control for a UE based on received UE bearer information in a source eNB included in a handover request (105, 205a, 301); updating, by the MME, a UE-Aggregate Maximum Bit Rate, UE-AMBR, used by the target eNB based on the received at least one bearer; and updating by the MME a UE-AMBR used by the target eNB based on the received at least one bearer comprises: determining, by the MME, whether all access point names, APNs, activated when the UE is connected to the source eNB have respective bearer connections maintained when the UE is connected to the target eNB after the handover based on the received at least one bearer; if all APNs have respective bearer connections maintained after the handover, determining there is no need to modify the UE-AMBR; otherwise, modifying the UE-AMBR used by the target eNB based on bearer connection condition of the target eNB after the handover, and informing the target eNB of a updated value of the UE-AMBR. receiving, by a mobile management entity, MME, information of at least one bearer accepted by a target base station, eNB, (112, 205b, 302), the at least one accepted bearer successfully being determined when the target eNB makes an admission control for a UE based on received UE bearer information in a source eNB included in a handover request (105, 205a, 301); updating, by the MME, a UE-Aggregate Maximum Bit Rate, UE-AMBR, used by the target eNB based on the received at least one bearer; and updating by the MME a UE-AMBR used by the target eNB based on the received at least one bearer comprises: determining, by the MME, whether all access point names, APNs, activated when the UE is connected to the source eNB have respective bearer connections maintained when the UE is connected to the target eNB after the handover based on the received at least one bearer; if all APNs have respective bearer connections maintained after the handover, determining there is no need to modify the UE-AMBR; otherwise, modifying the UE-AMBR used by the target eNB based on bearer connection condition of the target eNB after the handover, and informing the target eNB of a updated value of the UE-AMBR. determining, by the MME, whether all access point names, APNs, activated when the UE is connected to the source eNB have respective bearer connections maintained when the UE is connected to the target eNB after the handover based on the received at least one bearer; if all APNs have respective bearer connections maintained after the handover, determining there is no need to modify the UE-AMBR; otherwise, modifying the UE-AMBR used by the target eNB based on bearer connection condition of the target eNB after the handover, and informing the target eNB of a updated value of the UE-AMBR.
Rubber-metal sleeve bearing, comprising - an outer sleeve having a first outer edge and a second outer edge which is disposed, viewed in axial direction (a), oppositely situated, - an inner sleeve arranged concentrically to the outer sleeve, and - an intermediate sleeve situated between the outer sleeve and the inner sleeve and arranged concentrically to them and connected with them via in each case one elastomer layer (18, 20), wherein the outer edges (12a, 12b) of the outer sleeve has in each case at least two outer edge regions (12-1, 12-2) which are in portions pressed in radially to the inside, as well as at least two edge regions which are not deformed and not pressed in radially to the inside, characterised in that viewed in axial direction (a) the outer sleeve has a radially non-deformed portion, arranged between the outer edge regions (12-1, 12-2) which have been pressed in radially to the inside, wherein viewed in axial direction (a) the outer edge regions (12-1, 12-2) of the outer sleeve which have been pressed in radially transition in each case into the radially non-deformed portion of the outer sleeve. - an outer sleeve having a first outer edge and a second outer edge which is disposed, viewed in axial direction (a), oppositely situated, - an inner sleeve arranged concentrically to the outer sleeve, and - an intermediate sleeve situated between the outer sleeve and the inner sleeve and arranged concentrically to them and connected with them via in each case one elastomer layer (18, 20), wherein the outer edges (12a, 12b) of the outer sleeve has in each case at least two outer edge regions (12-1, 12-2) which are in portions pressed in radially to the inside, as well as at least two edge regions which are not deformed and not pressed in radially to the inside, characterised in that viewed in axial direction (a) the outer sleeve has a radially non-deformed portion, arranged between the outer edge regions (12-1, 12-2) which have been pressed in radially to the inside, wherein viewed in axial direction (a) the outer edge regions (12-1, 12-2) of the outer sleeve which have been pressed in radially transition in each case into the radially non-deformed portion of the outer sleeve.
Breaking device (1; 1') for breaking an electric current, with separable electrical contacts and air breaking, the device comprising: - a breaking assembly which can be switched between an open state allowing an electric current to flow within the device and a closed state preventing the flow of the electric current; - a control mechanism for controlling the switching of the breaking assembly between its open and closed states, the control mechanism comprising a triggering member (42; 42') arranged to trigger the switching of the breaking assembly to the open state when the triggering member (42; 42') is displaced from a rest position to a triggering position; - a housing inside which there are housed the breaking assembly and the control mechanism, and which has lateral walls (51, 52; 51', 52'); the breaking device (1; 1') being characterised in that: - the lateral walls (51, 52; 51', 52') are resiliently deformable, from a rest state to a deformed state, when the pressure prevailing inside the housing increases; - one of the lateral walls (52; 52') has, on its inside face, a rigid protuberance (53; 53') extending towards the inside of the housing perpendicularly to that inside face, so that the deformation of said lateral wall (52; 52') causes a displacement of the protuberance (53; 53') from a first position to a second position; - the protuberance (53; 53') is arranged relative to the triggering member so that its displacement to the second position causes the displacement of the triggering member (42; 42') from the rest position to the triggering position. - a breaking assembly which can be switched between an open state allowing an electric current to flow within the device and a closed state preventing the flow of the electric current; - a control mechanism for controlling the switching of the breaking assembly between its open and closed states, the control mechanism comprising a triggering member (42; 42') arranged to trigger the switching of the breaking assembly to the open state when the triggering member (42; 42') is displaced from a rest position to a triggering position; - a housing inside which there are housed the breaking assembly and the control mechanism, and which has lateral walls (51, 52; 51', 52'); - the lateral walls (51, 52; 51', 52') are resiliently deformable, from a rest state to a deformed state, when the pressure prevailing inside the housing increases; - one of the lateral walls (52; 52') has, on its inside face, a rigid protuberance (53; 53') extending towards the inside of the housing perpendicularly to that inside face, so that the deformation of said lateral wall (52; 52') causes a displacement of the protuberance (53; 53') from a first position to a second position; - the protuberance (53; 53') is arranged relative to the triggering member so that its displacement to the second position causes the displacement of the triggering member (42; 42') from the rest position to the triggering position.
A salt which is -4-(3-( -1-(4-amino-3-methyl-1H-pyrazolo[3,4-d]pyrimidin-1-yl)ethyl)-5-chloro-2-ethoxy-6-fluorophenyl)pyrrolidin-2-one hydrochloric acid salt, that is crystalline.
A method for producing a porous polyimide resin film comprising removing fine particles from a polyimide resin-fine particle composite film to thereby obtain a porous polyimide resin film, wherein: - the method comprises either a step of removing at least a part of a polyimide resin portion of the polyimide resin-fine particle composite film prior to removing the fine particles, or a step of removing at least a part of the porous polyimide resin film subsequent to removing the fine particles, - the step of removing at least a part of the polyimide resin portion is performed by a chemical etching method, or a combination of a chemical etching method and a physical removal method, - the step of removing at least a part of the porous polyimide resin film is performed by a chemical etching method, physical removal method, or a combination thereof, and - the average diameter of the fine particles is 100 to 2000 nm. - the method comprises either a step of removing at least a part of a polyimide resin portion of the polyimide resin-fine particle composite film prior to removing the fine particles, or a step of removing at least a part of the porous polyimide resin film subsequent to removing the fine particles, - the step of removing at least a part of the polyimide resin portion is performed by a chemical etching method, or a combination of a chemical etching method and a physical removal method, - the step of removing at least a part of the porous polyimide resin film is performed by a chemical etching method, physical removal method, or a combination thereof, and - the average diameter of the fine particles is 100 to 2000 nm.
A vane section of a gas turbine engine comprising: a platform; an airfoil extending outwardly from the platform and having an internal channel communicating with an opening in the platform; at least one rail (170, 172) extending inwardly from the platform such that a surface of the platform opposite the airfoil and the at least one rail (170, 172) at least partially define a platform cavity; and a flow diverter extending inwardly of the platform within the platform cavity and defining a diverter cavity, an inlet configured to receive fluid (F I) flowing in a first direction from the opening in the platform to the diverter cavity, and an outlet configured to expel fluid (F O) from the diverter cavity to the platform cavity in a second direction different from the first direction; characterised by: a sloped surface (504; 604) disposed in the diverter cavity configured to divert fluid from the first direction to the second direction, wherein the flow diverter is monolithic with the platform. a platform; an airfoil extending outwardly from the platform and having an internal channel communicating with an opening in the platform; at least one rail (170, 172) extending inwardly from the platform such that a surface of the platform opposite the airfoil and the at least one rail (170, 172) at least partially define a platform cavity; and a flow diverter extending inwardly of the platform within the platform cavity and defining a diverter cavity, an inlet configured to receive fluid (F I) flowing in a first direction from the opening in the platform to the diverter cavity, and an outlet configured to expel fluid (F O) from the diverter cavity to the platform cavity in a second direction different from the first direction; characterised by: a sloped surface (504; 604) disposed in the diverter cavity configured to divert fluid from the first direction to the second direction, wherein the flow diverter is monolithic with the platform.
A method for controlling a refrigerator comprising a first tray configured to form a portion of an ice making cell, a second tray configured to form the ice making cell together with the first tray, a driver configured to move the second tray, and a heater configured to supply heat to one or more of the first tray and the second tray, wherein a direction in which the second tray moves from an ice making position, to an ice standby position, to an ice separation position is forward, and a direction in which the second tray moves from the ice separation position, to the water supply position, to the ice making position is reverse, the method comprising: performing water supply of the ice making cell in a state in which the second tray is moved to the water supply position; performing ice making after the second tray is moved from the water supply position to the ice making position in the reverse direction after the water supply is completed; turning on the heater when ice making is completed; when a movement condition of the second tray is satisfied: - moving the second tray to a standby position in the forward direction and turning off the heater when a turn-off condition of the heater is satisfied, only after the second tray moves to the standby position, or - turning off the heater and then moving the second tray to a standby position in the forward direction; determining whether the heater is turned off and a predetermined time has elapsed; and moving the second tray to the ice separation position in the forward direction when it is determined that the predetermined time has elapsed. performing water supply of the ice making cell in a state in which the second tray is moved to the water supply position; performing ice making after the second tray is moved from the water supply position to the ice making position in the reverse direction after the water supply is completed; turning on the heater when ice making is completed; when a movement condition of the second tray is satisfied: - moving the second tray to a standby position in the forward direction and turning off the heater when a turn-off condition of the heater is satisfied, only after the second tray moves to the standby position, or - turning off the heater and then moving the second tray to a standby position in the forward direction; - moving the second tray to a standby position in the forward direction and turning off the heater when a turn-off condition of the heater is satisfied, only after the second tray moves to the standby position, or - turning off the heater and then moving the second tray to a standby position in the forward direction; determining whether the heater is turned off and a predetermined time has elapsed; and moving the second tray to the ice separation position in the forward direction when it is determined that the predetermined time has elapsed.
An implantable device comprising a wall surrounding a lumen, wherein the wall comprises a first, degradable polymer, forming the luminal surface of the wall, and a second, slower degradable or non-degradable polymer, compared to the first degradable polymer, forming the exterior surface of the wall, wherein the wall is formed of polymeric nanofibers, wherein the nanofibers are aligned and hardened by heating at a temperature greater than the glass transition temperature of the polymer to increase mechanical strength and flexibility compared to the polymer that is not aligned and hardened, and wherein the lumen enlarges over time as the first degradable polymer degrades. a first, degradable polymer, forming the luminal surface of the wall, and a second, slower degradable or non-degradable polymer, compared to the first degradable polymer, forming the exterior surface of the wall, wherein the wall is formed of polymeric nanofibers, wherein the nanofibers are aligned and hardened by heating at a temperature greater than the glass transition temperature of the polymer to increase mechanical strength and flexibility compared to the polymer that is not aligned and hardened, and wherein the lumen enlarges over time as the first degradable polymer degrades.
Aircraft provided with a fuselage and with a lighting system, said lighting system comprising at least one projector called "main projector " situated on the exterior of the fuselage of said aircraft, said lighting system comprising at least one centralised light generator arranged on the interior of said fuselage, said light generator comprising a plurality of light sources which include at least two laser diodes, each emitting a light beam called "initial beam " towards a light combiner of the light generator called "internal light combiner ", said at least two laser diodes emitting respectively two beams of different wavelengths, said internal light combiner generating from said initial beams a light beam directed towards an optical outlet of said light generator, said light generator comprising a modulation system for modulating an emission frequency of said light beam, said optical outlet directing said light beam towards an optical inlet of the main projector, said main projector comprising an optical head called "main optical head ", said main optical head including a mirror for separating said light beam into a reflected beam and an incident beam directed towards the exterior of the main optical head for illuminating an object, said main optical head comprising a photovoltaic system illuminated by said reflected beam for generating an electric current supplying a battery of said main projector, said main projector comprising a mobility system including at least one motor connected to said main optical head for displacing said main optical head, said motor being connected to said battery, said main projector comprising a management system which performs an analysis of said electric current and which generates a mobility control signal transmitted to said motor depending on said analysis, said main optical head including an optical processing system which transforms a geometrical shape of the incident beam for emitting towards the exterior of the main optical head a light beam called "final beam " having an adjustable geometrical shape, the spectrum of the final beam comprising only one or a plurality of lines of the spectrum of the light beam.
A method, comprising: receiving a network event having a set of event parameters, determining, whether the network event belongs to a network session associated with one or more previously received network events; categorizing the network event into the same network session as the one or more previously received network events wherein the determining comprises: comparing the set of event parameters to information representing one or more network address translation, NAT, rules associated with one or more NAT devices; associating the network event with a particular NAT rule of one of the one or more NAT devices; estimating one or more other events that are associated with the network event, based on the particular NAT rule; determining whether the one or more other events belong to the same network session; the method further comprising performing, at a predefined time: processing the one or more previously received network events using network session information associated with the one or more previously received network events to result in identifying one or more particular previously received network events belonging to the same network session; grouping the particular previously received network events; sending the grouped events to a network security monitoring device. receiving a network event having a set of event parameters, determining, whether the network event belongs to a network session associated with one or more previously received network events; categorizing the network event into the same network session as the one or more previously received network events wherein the determining comprises: comparing the set of event parameters to information representing one or more network address translation, NAT, rules associated with one or more NAT devices; associating the network event with a particular NAT rule of one of the one or more NAT devices; estimating one or more other events that are associated with the network event, based on the particular NAT rule; determining whether the one or more other events belong to the same network session; comparing the set of event parameters to information representing one or more network address translation, NAT, rules associated with one or more NAT devices; associating the network event with a particular NAT rule of one of the one or more NAT devices; estimating one or more other events that are associated with the network event, based on the particular NAT rule; determining whether the one or more other events belong to the same network session; the method further comprising performing, at a predefined time: processing the one or more previously received network events using network session information associated with the one or more previously received network events to result in identifying one or more particular previously received network events belonging to the same network session; grouping the particular previously received network events; sending the grouped events to a network security monitoring device. grouping the particular previously received network events; sending the grouped events to a network security monitoring device.
A method of video image compression comprising: providing a sequence of referenceable (I, P) and bidirectional predicted frames each comprising pixel values arranged in macroblocks; and determining at least one macroblock within a bidirectional predicted frame using direct mode prediction based on a motion vector between two referenceable frames (I, P) being scaled by a frame scale fraction of greater than one, wherein the two referenceable frames are previous in display order to the bidirectional predicted frame. providing a sequence of referenceable (I, P) and bidirectional predicted frames each comprising pixel values arranged in macroblocks; and determining at least one macroblock within a bidirectional predicted frame using direct mode prediction based on a motion vector between two referenceable frames (I, P) being scaled by a frame scale fraction of greater than one, wherein the two referenceable frames are previous in display order to the bidirectional predicted frame.
A rigid pipe-in-pipe structure for subsea transportation of fluids, comprising: inner and outer pipes (30, 22) in spaced concentric relation to define a thermally-isolating annulus between them; and thermal insulation material disposed in the annulus, wherein a gap is left in the annulus between the insulation material and the outer pipe; wherein the outer pipe is made of metal and the inner pipe is a polymeric composite structure of bonded layers comprising a first, radially outer polymeric layer surrounding a second layer of composite material comprising reinforcing fibres embedded in a polymer matrix, and wherein the thickness of the outer layer of the inner pipe varies along its length such that the inner pipe comprises a series of longitudinally-spaced formations formed integrally with the outer layer of the inner pipe and protruding radially outwardly from the outer layer. inner and outer pipes (30, 22) in spaced concentric relation to define a thermally-isolating annulus between them; and thermal insulation material disposed in the annulus, wherein a gap is left in the annulus between the insulation material and the outer pipe;