mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: establishing a unicast Evolved Packet Service, EPS, bearer by a user equipment, UE, in an LTE network for group communication, wherein the UE belongs to a communication group having a group ID; receiving access information from the network for monitoring DL multicast traffic of the DL group communication; monitoring a multicast Multimedia Broadcast Multicast Service, MBMS, bearer for receiving the DL multicast traffic from the multicast MBMS bearer; requesting by the UE to switch the DL multicast traffic from the multicast MBMS bearer to the unicast EPS bearer upon detecting that the UE is approaching an MBMS coverage boundary, characterized in that the UE requests to switch the DL multicast traffic from the multicast MBMS bearer to the unicast EPS bearer before handover occurs, based on the MBMS coverage boundary applied by a serving base station being configured to be smaller than a cell coverage boundary provided by the serving base station. establishing a unicast Evolved Packet Service, EPS, bearer by a user equipment, UE, in an LTE network for group communication, wherein the UE belongs to a communication group having a group ID; receiving access information from the network for monitoring DL multicast traffic of the DL group communication; monitoring a multicast Multimedia Broadcast Multicast Service, MBMS, bearer for receiving the DL multicast traffic from the multicast MBMS bearer; requesting by the UE to switch the DL multicast traffic from the multicast MBMS bearer to the unicast EPS bearer upon detecting that the UE is approaching an MBMS coverage boundary, characterized in that the UE requests to switch the DL multicast traffic from the multicast MBMS bearer to the unicast EPS bearer before handover occurs, based on the MBMS coverage boundary applied by a serving base station being configured to be smaller than a cell coverage boundary provided by the serving base station.
A urethane curable composition comprising: a catalyst (a); a polyol (b) having two or more hydroxyl groups in one molecule; a polyisocyanate (c) having two or more isocyanate groups in one molecule; and silica particles (d), wherein the catalyst (a) is a metal carboxylate represented by a formula: M(OCOR)n: where M represents Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Mn, Fe, Co, Ni, Cu, or Zn; R represents any one of a saturated hydrocarbon group having 1 to 20 carbon atoms, a chain unsaturated hydrocarbon group, an alicyclic hydrocarbon group, and an aromatic hydrocarbon group; and n represents the same number as a valence of M, a content of the polyol (b) is 5 wt% to 90 wt% and a content of the silica particles (d) is 5 wt% to 85 wt% with respect to the total weight of the components (b) to (d), the polyisocyanate (c) is added such that an equivalence ratio (NCO/OH) of the isocyanate groups of the polyisocyanate (c) to the hydroxyl groups of the polyol (b) is 0.25 to 5.0, and a content of the catalyst (a) is 0.1 wt% to 2.0 wt% with respect to the content of the silica particles (d); wherein the silica particles (d) have a primary particle size of 1 nm to 500 nm. a catalyst (a); a polyol (b) having two or more hydroxyl groups in one molecule; a polyisocyanate (c) having two or more isocyanate groups in one molecule; and silica particles (d), wherein the catalyst (a) is a metal carboxylate represented by a formula: M(OCOR)n: where M represents Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Mn, Fe, Co, Ni, Cu, or Zn; R represents any one of a saturated hydrocarbon group having 1 to 20 carbon atoms, a chain unsaturated hydrocarbon group, an alicyclic hydrocarbon group, and an aromatic hydrocarbon group; and n represents the same number as a valence of M, a content of the polyol (b) is 5 wt% to 90 wt% and a content of the silica particles (d) is 5 wt% to 85 wt% with respect to the total weight of the components (b) to (d), the polyisocyanate (c) is added such that an equivalence ratio (NCO/OH) of the isocyanate groups of the polyisocyanate (c) to the hydroxyl groups of the polyol (b) is 0.25 to 5.0, and a content of the catalyst (a) is 0.1 wt% to 2.0 wt% with respect to the content of the silica particles (d); wherein the silica particles (d) have a primary particle size of 1 nm to 500 nm. where M represents Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Mn, Fe, Co, Ni, Cu, or Zn; R represents any one of a saturated hydrocarbon group having 1 to 20 carbon atoms, a chain unsaturated hydrocarbon group, an alicyclic hydrocarbon group, and an aromatic hydrocarbon group; and n represents the same number as a valence of M, a content of the polyol (b) is 5 wt% to 90 wt% and a content of the silica particles (d) is 5 wt% to 85 wt% with respect to the total weight of the components (b) to (d), the polyisocyanate (c) is added such that an equivalence ratio (NCO/OH) of the isocyanate groups of the polyisocyanate (c) to the hydroxyl groups of the polyol (b) is 0.25 to 5.0, and a content of the catalyst (a) is 0.1 wt% to 2.0 wt% with respect to the content of the silica particles (d); wherein the silica particles (d) have a primary particle size of 1 nm to 500 nm.
A magnetorheological fluid clutch apparatus comprising at least one input rotor adapted to be coupled to a power input, the input rotor having a first set of at least one input shear surface, and a second set of at least one input shear surface; an output rotor rotatably mounted about the input rotor for rotating about a common axis with the input rotor, the output rotor having a first set of at least one output shear surface, and a second set of at least one output shear surface, the first sets of the input rotor and the output rotor separated by at least a first annular space and forming a first transmission set, the second sets of the input rotor and the output rotor separated by at least a second annular space and forming a second transmission set; magnetorheological fluid in each of the annular spaces, the MR fluid configured to generate a variable amount of torque transmission between the sets of input rotor and output rotor when subjected to a magnetic field; and a pair of electromagnets (18A, 18B), with a first electromagnet associated with the first transmission set, and a second electromagnet associated with the second transmission set, the electromagnets configured to deliver a magnetic field through the MR fluid, the electromagnets configured to vary the strength of the magnetic field; wherein the actuation of at least one of the pair of electromagnets results in torque transmission from the at least one input rotor to the output rotor, and characterised in that the magnetorheological fluid clutch apparatus has one degree of actuation for one output degree of freedom, with one degree of transmission redundancy.
A turbomachine comprising: a sealed casing arrangement having a central compartment and two side compartments (3B, 3C); a shaft supported for rotation in said casing arrangement, the shaft comprising portions that are stacked to one another and the shaft being sealingly housed in the casing arrangement; at least a first bearing unit and a second bearing unit adapted to rotatingly support the shaft in the casing arrangement; a first compressor section and a second compressor section in the central compartment of said casing arrangement, the first compressor section comprising at least a first compressor impeller on said shaft for rotation therewith, and the second compressor section comprising at least a second compressor impeller on said shaft for rotation therewith; and a first turboexpander comprising a first turboexpander impeller and a second turboexpander comprising a second turboexpander impeller on the shaft for rotation therewith, each one disposed in a respective side compartment (3B, 3C) of said casing arrangement, adapted to generate mechanical power by expanding a gaseous flow therethrough and drive the first compressor section and the second compressor section; characterized in that the first compressor impeller, the second compressor impeller, the first turboexpander impeller and the second turboexpander impeller are formed monolithically with respective portions of said shaft. a sealed casing arrangement having a central compartment and two side compartments (3B, 3C); a shaft supported for rotation in said casing arrangement, the shaft comprising portions that are stacked to one another and the shaft being sealingly housed in the casing arrangement; at least a first bearing unit and a second bearing unit adapted to rotatingly support the shaft in the casing arrangement; a first compressor section and a second compressor section in the central compartment of said casing arrangement, the first compressor section comprising at least a first compressor impeller on said shaft for rotation therewith, and the second compressor section comprising at least a second compressor impeller on said shaft for rotation therewith; and a first turboexpander comprising a first turboexpander impeller and a second turboexpander comprising a second turboexpander impeller on the shaft for rotation therewith, each one disposed in a respective side compartment (3B, 3C) of said casing arrangement, adapted to generate mechanical power by expanding a gaseous flow therethrough and drive the first compressor section and the second compressor section; characterized in that the first compressor impeller, the second compressor impeller, the first turboexpander impeller and the second turboexpander impeller are formed monolithically with respective portions of said shaft.
Method for producing a lacquer-coated electric sheet strip for the buildup of electric cores, comprising: wet application of a first insulation lacquer layer across at least one side of an electric sheet strip; wet application of a second insulation lacquer layer across the wet first insulation lacquer layer by roll application, where the first insulation lacquer layer and the second insulation lacquer layer consist of different lacquers (124, 134); and drying of the first insulation lacquer layer and the second insulation lacquer layer in a drying oven. wet application of a first insulation lacquer layer across at least one side of an electric sheet strip; wet application of a second insulation lacquer layer across the wet first insulation lacquer layer by roll application, where the first insulation lacquer layer and the second insulation lacquer layer consist of different lacquers (124, 134); and drying of the first insulation lacquer layer and the second insulation lacquer layer in a drying oven.
A gas turbine component composed of a base material having an erosion resistant coating system provided thereon, which comprises a multiple layer system of at least one ductile metal layer and at least one hard, ceramic containing layer in order to form an anti-erosion part protection system, characterized in that at least one corrosion protection layer is provided between the anti-erosion part protection system and the base material, which has a lower electrochemical potential towards the base material to be coated than the base material, so that cathodic corrosion protection is provided, the cathodic corrosion protection layer, the anti-erosion part protection system and a passive surface corrosion protection layer on the surface side of the anti-erosion part protection system are selected in a way that the electrochemical potential of the cathodic corrosion protection layer is lower than the one of the base material, while the electrochemical potential of the anti-erosion part protection system is higher and the electrochemical potential of the passive surface corrosion protection layer is much higher than the electrochemical potential of the base material.
A device for converting mechanical energy into electric energy for a system, preferably a flooring system, wherein the device comprises: a first magnet and a second magnet, wherein the first magnet is arranged at a predetermined distance from the second magnet and in a manner movable in the direction of the second magnet, and wherein the same poles of the first magnet and the second magnet are aligned with each other; a first coil having a predetermined number of windings and an inner space formed by the windings, wherein the windings of the first coil are wound in substantially parallel planes, wherein the first coil receives the first magnet in its inner space during a movement in the direction of the second magnet and generates a corresponding induction voltage; a second coil having a predetermined number of windings and an inner space formed by the windings, wherein the windings of the second coil are contained substantially in a surface being perpendicular with respect to the first coil, wherein the second coil is arranged at a predetermined distance from the first coil in the direction of the second magnet, wherein the second coil is arranged at least partially around the second magnet and generates a voltage when the first magnet moves in the direction of the second magnet; and a third coil having a predetermined number of windings, wherein the third coil is arranged between the first magnet and the second magnet and has a predetermined distance from the first magnet. a first magnet and a second magnet, wherein the first magnet is arranged at a predetermined distance from the second magnet and in a manner movable in the direction of the second magnet, and wherein the same poles of the first magnet and the second magnet are aligned with each other; a first coil having a predetermined number of windings and an inner space formed by the windings, wherein the windings of the first coil are wound in substantially parallel planes, wherein the first coil receives the first magnet in its inner space during a movement in the direction of the second magnet and generates a corresponding induction voltage; a second coil having a predetermined number of windings and an inner space formed by the windings, wherein the windings of the second coil are contained substantially in a surface being perpendicular with respect to the first coil, wherein the second coil is arranged at a predetermined distance from the first coil in the direction of the second magnet, wherein the second coil is arranged at least partially around the second magnet and generates a voltage when the first magnet moves in the direction of the second magnet; and a third coil having a predetermined number of windings, wherein the third coil is arranged between the first magnet and the second magnet and has a predetermined distance from the first magnet.
A connection system comprising a first pipe and a second pipe connected transversely thereto, wherein both pipes (1,2) comprise an amorphous thermoplastic, characterised in that the first pipe and the second pipe are welded together to form a joint, wherein between 30% and 100% of the molecular chains of the plastic in the first pipe on the one hand and between 30% and 100% of the molecular chains of the plastic in the second pipe on the other hand extend at least substantially in the same direction at the location of the joint, seen in longitudinal direction of the second pipe.
A beacon device comprising: a location to store a seed value; a seed retriever coupled to the location, the seed retriever to obtain the seed value from the location; a tree generator coupled to the seed retriever, the tree generator to use the seed value to initiate generation of a pseudo random number tree having time-dependent branches; and a transmitter coupled to the tree generator, the transmitter to send a beacon signal based on the pseudo random number tree and a timing schedule that corresponds to the time-dependent branches. a location to store a seed value; a seed retriever coupled to the location, the seed retriever to obtain the seed value from the location; a tree generator coupled to the seed retriever, the tree generator to use the seed value to initiate generation of a pseudo random number tree having time-dependent branches; and a transmitter coupled to the tree generator, the transmitter to send a beacon signal based on the pseudo random number tree and a timing schedule that corresponds to the time-dependent branches.
A cell selection method performed by a wireless, transmit/receive unit, WTRU, comprising: measuring, by the WTRU, downlink signals from a plurality of downlink cells; selecting, by the WTRU, a downlink cell from the plurality of downlink cells based on the measurements of the downlink signals; determining, by the WTRU, that the WTRU is associated with a limited coverage to the downlink cell of the plurality of downlink cells based on a measurement of a downlink signal from the downlink cell; receiving, by the WTRU, a list from the downlink cell, the list comprising one or more cells that are candidates for an uplink cell selection; based on determining that the WTRU is associated with the limited coverage to the downlink cell, performing measurements, by the WTRU, on downlink signals transmitted from the one or more cells in the list, and selecting, by the WTRU, one of the one or more cells in the list based on the performed measurements on the downlink signals transmitted from the one or more cells in the list; determining, by the WTRU, that the downlink cell supports a decoupled mode, wherein the WTRU selects to be in the decoupled mode if the downlink cell and the selected one of the one or more cells in the list are different; and sending, by the WTRU, uplink data to the selected one of the one or more cells in the list and receiving downlink data from the downlink cell. measuring, by the WTRU, downlink signals from a plurality of downlink cells; selecting, by the WTRU, a downlink cell from the plurality of downlink cells based on the measurements of the downlink signals; determining, by the WTRU, that the WTRU is associated with a limited coverage to the downlink cell of the plurality of downlink cells based on a measurement of a downlink signal from the downlink cell; receiving, by the WTRU, a list from the downlink cell, the list comprising one or more cells that are candidates for an uplink cell selection; based on determining that the WTRU is associated with the limited coverage to the downlink cell, performing measurements, by the WTRU, on downlink signals transmitted from the one or more cells in the list, and selecting, by the WTRU, one of the one or more cells in the list based on the performed measurements on the downlink signals transmitted from the one or more cells in the list; determining, by the WTRU, that the downlink cell supports a decoupled mode, wherein the WTRU selects to be in the decoupled mode if the downlink cell and the selected one of the one or more cells in the list are different; and sending, by the WTRU, uplink data to the selected one of the one or more cells in the list and receiving downlink data from the downlink cell.
Emergency lighting for an aircraft wherein a power source for illumination in an emergency is provided by one or more electric double layer capacitors characterised in that a means is provided for checking that the one or more electric double layer capacitors meet operating requirements for the emergency lighting and wherein capacitor charge capacity is checked when the emergency lighting is switched off.
A battery electrode slurry distributing method employed in a battery electrode slurry distributing apparatus configured to distribute a battery electrode slurry to a plurality of coating units (91, 92) each configured to coat a metal sheet used to manufacture a battery electrode with the battery electrode slurry, the battery electrode slurry distributing method comprising: a first step in which a battery electrode slurry is circulated through the circulation unit connected to the plurality of coating units (91, 92) in a state in which a pressure is applied to the battery electrode slurry; and a second step in which a supply of the battery electrode slurry circulated in the first step to each of the plurality of coating units (91, 92) is controlled; wherein the circulation unit is structured in a loop, and the circulation unit connects to the plurality of coating units (91,92) via a plurality of connection units (12, 13); and wherein in the second step, in a period in which a plurality of coating units (91, 92) is allowed to receive the supply of the battery electrode slurry, the supply of the battery electrode slurry to the remaining coating units (91, 92) other than the plurality of coating units (91, 92) thus allowed to receive the supply of the battery electrode slurry is inhibited. a first step in which a battery electrode slurry is circulated through the circulation unit connected to the plurality of coating units (91, 92) in a state in which a pressure is applied to the battery electrode slurry; and a second step in which a supply of the battery electrode slurry circulated in the first step to each of the plurality of coating units (91, 92) is controlled; wherein the circulation unit is structured in a loop, and the circulation unit connects to the plurality of coating units (91,92) via a plurality of connection units (12, 13); and wherein in the second step, in a period in which a plurality of coating units (91, 92) is allowed to receive the supply of the battery electrode slurry, the supply of the battery electrode slurry to the remaining coating units (91, 92) other than the plurality of coating units (91, 92) thus allowed to receive the supply of the battery electrode slurry is inhibited.
A method of forming a composite filler comprising: laying down layers of composite material on a forming tool; forming a respective bend in each of the layers to form the composite filler comprising bent layers on the forming tool; and placing the composite filler comprising the bent layers into a gap formed by at least one composite structure characterised in that each layer of the layers of the composite material is laid down and then formed prior to laying down a successive layer in the layers of the composite material and in that forming the respective bend in the each of the layers comprises individually forming a respective bend in the each of the layers. laying down layers of composite material on a forming tool; forming a respective bend in each of the layers to form the composite filler comprising bent layers on the forming tool; and placing the composite filler comprising the bent layers into a gap formed by at least one composite structure characterised in that each layer of the layers of the composite material is laid down and then formed prior to laying down a successive layer in the layers of the composite material and in that forming the respective bend in the each of the layers comprises individually forming a respective bend in the each of the layers.
A method for controlling camera photographing in an electronic device with a front camera, a rear camera and a display located at the front of the electronic device, the method comprising: activating the front camera and the rear camera to obtain images in response to detecting an event that is entry into a self-camera photographing mode by the front camera, wherein the rear camera is further activated once a reference time has elapsed after the front camera is activated; displaying an image obtained from the activated front camera on the display; and capturing the image using the front camera if a camera shutter function is detected based on a change of at least one of a luminance component or a color component of the image signal that be contained in an image obtained from the rear camera. activating the front camera and the rear camera to obtain images in response to detecting an event that is entry into a self-camera photographing mode by the front camera, wherein the rear camera is further activated once a reference time has elapsed after the front camera is activated; displaying an image obtained from the activated front camera on the display; and capturing the image using the front camera if a camera shutter function is detected based on a change of at least one of a luminance component or a color component of the image signal that be contained in an image obtained from the rear camera.