mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a structural element such as an aircraft landing gear rocker beam out of composite material, the element comprising a body having a portion that extends along a longitudinal axis while presenting a cross-section that defines a closed outline while also being provided with a clevis comprising two lugs (19, 21) that extend parallel to a radial direction relative to the longitudinal axis, the clevis being for receiving a pin that is oriented perpendicularly to the longitudinal axis while being spaced apart from said longitudinal axis, the method comprising the steps of: · forming a first mandrel; · applying one or more first braided fiber layers on the first mandrel by using a braiding machine so that these layers extend all around the first mandrel and all along its length; · fitting a second mandrel element on the assembly (9, 11) formed by the first mandrel and each of the first layers that it is carrying, the second mandrel element extending in a region situated between the two lugs (19, 21) of the clevis that is to be formed; · applying one or more second braided fiber layers on the assembly constituted by the first mandrel with each of the first layers that it carries together with the second mandrel element fitted thereto; · injecting the resin into the various fiber layers (11, 17) that have been applied, and polymerizing the resin in order to form a workpiece blank; · machining the workpiece blank in the vicinity of the clevis that is to be made so as to cut away a region of each second layer in order to separate the two lugs (19, 21) of the clevis from each other; and · making a hole in each lug (19, 21) of the clevis. · forming a first mandrel; · applying one or more first braided fiber layers on the first mandrel by using a braiding machine so that these layers extend all around the first mandrel and all along its length; · fitting a second mandrel element on the assembly (9, 11) formed by the first mandrel and each of the first layers that it is carrying, the second mandrel element extending in a region situated between the two lugs (19, 21) of the clevis that is to be formed; · applying one or more second braided fiber layers on the assembly constituted by the first mandrel with each of the first layers that it carries together with the second mandrel element fitted thereto; · injecting the resin into the various fiber layers (11, 17) that have been applied, and polymerizing the resin in order to form a workpiece blank; · machining the workpiece blank in the vicinity of the clevis that is to be made so as to cut away a region of each second layer in order to separate the two lugs (19, 21) of the clevis from each other; and · making a hole in each lug (19, 21) of the clevis.
Method for improved handling of IMS, Internet Protocol Multimedia Subsystem, services in a roaming scenario of a user equipment, wherein the user equipment is assigned to a home mobile communication network, and wherein the user equipment is connected to a visited mobile communication network, wherein the visited mobile communication network comprises at least one specific first network node among a plurality of first network nodes of the visited mobile communication network, characterized in that the at least one specific first network node has a configuration provided by the home mobile communication network, wherein, in order to provide IMS services to the user equipment while roaming in the visited mobile communication network, the at least one specific first network node communicates with a second network node of the home mobile communication network, wherein the method comprises the step of the user equipment being related to the at least one specific first network node in order to provide IMS services to the user equipment while roaming in the visited mobile communication network, wherein functionality of the plurality of first network nodes corresponds to functionality of at least one out of the following network nodes: -- a P-CSCF, Proxy Call Session Control Function, network node, -- the functionality of a SBC, Session Border Controller, network node, -- a V-PCRF, Visited Policy and charging rules function, -- an IBCF, Interconnection Border Control Function, wherein the configuration - defined by the home mobile communication network and/or provided to the visited mobile communication network by the home mobile communication network - of the at least one specific first network node within the visited mobile communication network is provided by deploying a virtual instance of the at least one specific first network node to the visited mobile communication network and/or by the visited mobile communication network downloading a virtual instance of the at least one specific network node from the home mobile communication network. -- a P-CSCF, Proxy Call Session Control Function, network node, -- the functionality of a SBC, Session Border Controller, network node, -- a V-PCRF, Visited Policy and charging rules function, -- an IBCF, Interconnection Border Control Function,
Apparatus for automated walking and/or treadmill training of a user comprising a frame (10; 11, 12) adapted to allow a walking movement of the user in the frame (10; 11, 12), a pelvis attachment to support the position and/or weight of the user and having attachment elements (52, 152) adapted to be connected to the user, wherein the pelvis attachment is mounted to the frame and comprises a displacement unit for allowing and/or supporting a movement of the pelvis of the user held by the attachment elements (52, 152) transverse to and rotating about a perpendicular axis to the walking direction, characterized in that the displacement unit comprises two guide rails inclined one to another, two guiding sleeves each movable along one associated guide rail and a bar connected and articulated through hinge joints with said guiding sleeves for allowing a combined transverse and rotating movement of the user held by the attachment elements connected to the bar.
Method for producing a component from a curable material, wherein a new layer of the material is printed in periodically recurring steps in a 3D printing process onto a layer located thereunder having lower reinforcing elements which protrude above the top of this new layer, wherein after each layer has been printed, upper reinforcing elements are connected to the lower reinforcing elements so as to extend said lower reinforcing elements and to form the lower reinforcing elements of the subsequent layer, characterized in that a printhead has no recess but a central region, which is designed to be flexible such that the reinforcing elements protruding from the two subjacent strands of one layer (2, 3) conform flexibly to the inside of the printhead when the printhead travels over, wherein the flexible design of the printhead is carried out by selecting a suitable material in the region of the central region, for example by a plastics material, silicone material or rubber material.
A sidewall lining and cooling arrangement for a metallurgical furnace including: a layer of refractory bricks located adjacent a furnace shell of the furnace, the layer of refractory bricks having a hot side (21.1) that is in use the side facing the inside of the furnace, and a cold side (21.2) that is in use the side facing the furnace shell; a cooling element located on top of the layer of refractory bricks, the cooling element having a hot side (23.1) that is in use the side facing the inside of the furnace, and a cold side (23.2) that is in use the side facing the furnace shell; wherein a contact interface is defined between the top of the layer of refractory bricks and a bottom of the cooling element; and a containment ring located adjacent the cold sides (21.2, 23.2) of the cooling element and the layer of refractory bricks, wherein the containment ring covers the contact interface between the top of the layer of refractory bricks and a bottom of the cooling element. a layer of refractory bricks located adjacent a furnace shell of the furnace, the layer of refractory bricks having a hot side (21.1) that is in use the side facing the inside of the furnace, and a cold side (21.2) that is in use the side facing the furnace shell; a cooling element located on top of the layer of refractory bricks, the cooling element having a hot side (23.1) that is in use the side facing the inside of the furnace, and a cold side (23.2) that is in use the side facing the furnace shell; wherein a contact interface is defined between the top of the layer of refractory bricks and a bottom of the cooling element; and a containment ring located adjacent the cold sides (21.2, 23.2) of the cooling element and the layer of refractory bricks, wherein the containment ring covers the contact interface between the top of the layer of refractory bricks and a bottom of the cooling element.
An apparatus of a user equipment UE, the apparatus comprising one or more processors and memory configured to: identify configuration information received via a higher layer for a plurality of receive, Rx, beams for the UE from a cellular base station, the configuration information including a plurality of Rx beam indices for the plurality of Rx beams; identify a physical-layer communication received from the cellular base station indicating a selected Rx beam index; identify a selected Rx beam from the plurality of Rx beams using the selected Rx beam index; and signal transceiver circuitry at the UE to receive a downlink, DL, transmission using the selected Rx beam, wherein the DL transmission is received in a physical downlink shared channel, PDSCH, wherein the selected Rx beam index is indicated in a received enhanced physical downlink control channel, ePDCCH. identify configuration information received via a higher layer for a plurality of receive, Rx, beams for the UE from a cellular base station, the configuration information including a plurality of Rx beam indices for the plurality of Rx beams; identify a physical-layer communication received from the cellular base station indicating a selected Rx beam index; identify a selected Rx beam from the plurality of Rx beams using the selected Rx beam index; and signal transceiver circuitry at the UE to receive a downlink, DL, transmission using the selected Rx beam, wherein the DL transmission is received in a physical downlink shared channel, PDSCH, wherein the selected Rx beam index is indicated in a received enhanced physical downlink control channel, ePDCCH.
A method for controlling a rotating speed of a fan in an electronic device comprising multiple fans, comprising: at a current rotating speed of the fan, obtaining a first temperature value of a specified temperature collecting point in the electronic device; obtaining a change value of the first temperature value in a first preset time period; and when the change value is greater than a first preset threshold, adjusting the rotating speed of the fan; wherein adjusting the rotating speed of the fan comprises: comparing a preset parameter value with a second temperature value which is obtained based on the change value and the first temperature value, wherein the preset parameter value is used for indicating a critical temperature point of adjusting the rotating speed of the fan; and adjusting the rotating speed of the fan according to a comparison result; wherein before obtaining the first temperature value of the specified temperature collecting point in the electronic device, the method comprises: dividing the multiple fans in the electronic device into groups, wherein each group of fans corresponds to multiple temperature collecting points; and using from the multiple temperature collecting points corresponding to the group to which the fan which is controlled belongs, the temperature collecting point with a maximum temperature value as the specified temperature collecting point. at a current rotating speed of the fan, obtaining a first temperature value of a specified temperature collecting point in the electronic device; obtaining a change value of the first temperature value in a first preset time period; and when the change value is greater than a first preset threshold, adjusting the rotating speed of the fan; wherein adjusting the rotating speed of the fan comprises: comparing a preset parameter value with a second temperature value which is obtained based on the change value and the first temperature value, wherein the preset parameter value is used for indicating a critical temperature point of adjusting the rotating speed of the fan; and adjusting the rotating speed of the fan according to a comparison result; wherein before obtaining the first temperature value of the specified temperature collecting point in the electronic device, the method comprises: dividing the multiple fans in the electronic device into groups, wherein each group of fans corresponds to multiple temperature collecting points; and using from the multiple temperature collecting points corresponding to the group to which the fan which is controlled belongs, the temperature collecting point with a maximum temperature value as the specified temperature collecting point. dividing the multiple fans in the electronic device into groups, wherein each group of fans corresponds to multiple temperature collecting points; and using from the multiple temperature collecting points corresponding to the group to which the fan which is controlled belongs, the temperature collecting point with a maximum temperature value as the specified temperature collecting point.
A coated thermoplastic film, comprising: a polymeric film substrate; and a coating formed from a coating composition comprising 30 to 70 wt.% of a urethane acrylate having a functionality of 2.0 to 6.0 acrylate functional groups; 20 to 40 wt.% of an acrylate monomer having a functional group; and 10 to 40 wt.% of an epoxy acrylate oligomer, Wherein the term acrylate encompasses both acrylate and methacrylate groups. a polymeric film substrate; and a coating formed from a coating composition comprising 30 to 70 wt.% of a urethane acrylate having a functionality of 2.0 to 6.0 acrylate functional groups; 20 to 40 wt.% of an acrylate monomer having a functional group; and 10 to 40 wt.% of an epoxy acrylate oligomer, 30 to 70 wt.% of a urethane acrylate having a functionality of 2.0 to 6.0 acrylate functional groups; 20 to 40 wt.% of an acrylate monomer having a functional group; and 10 to 40 wt.% of an epoxy acrylate oligomer,
Screw compressor element provided with a housing wherein a rotor is rotatably arranged by way of at least a set of two bearings, respectively being a cylinder bearing and a ball bearing, each provided with an inner ring (5, 6) and an outer ring (7, 8), separated by respectively cylindrical, or ball-shaped rolling elements (9, 10) that contact the inner ring (5, 6) and the outer ring (7, 8) at the location of a raceway (11a, 11b, 12a, 12b), characterized in that next to the respective raceway (11a, 12a), the inner rings (5, 6) of the aforementioned bearings (3, 4) have a smaller outer diameter than the respective raceway (11a, 12a) on the side facing the other bearing (3, 4) and in that next to the respective raceway (11a, 12a), the inner rings (5, 6) of the bearings have a greater outer diameter than the respective raceway (11a, 11b) on the side facing away from the other bearing (3, 4), next to the respective raceway (11b, 12b), the outer rings (7, 8) of the bearings (3, 4) have a smaller inner diameter (D, G) than the respective raceway (11b, 12b) both on the side facing the other bearing (3, 4) and on the side facing away from the other bearing (3, 4), and at least one nozzle is arranged between the cylinder bearing and the ball bearing, this nozzle being suitable for spraying a fluid into the cylinder bearing and/or into the ball bearing.
A device for pulling a door panel or a window casement toward the frame, comprising a traction device (20, 120) arranged in the rabbet of the door panel or the frame, wherein the traction device (20, 120) can be engaged with a retracting block (10, 110) arranged in the rabbet of the frame or the door panel, wherein the traction device (20, 120) comprises a traction element (21, 121) that is loaded by a first spring (27, 127) and can be moved in vertical direction, wherein the retracting block (10, 110) comprises an inclined retracting structure (13, 113), and wherein the traction device (20, 120) comprises a release member (25, 125) that is held in a preloaded position by a second spring (26, 126), in order to engage the traction element (21, 121) with the inclined retracting structure (13, 113), wherein when engaging with the inclined retracting structure (13, 113) the traction element (21, 121) slides along the inclined retracting structure (13, 113) due to the tension from the first spring (27, 127), wherein the traction element (21, 121) has a traction bolt (28, 128), which is engageable with the inclined retracting structure (13, 113), wherein the release member (25, 125) is under the load of the at least one second spring (26, 126), which, in its installed state, acts in the horizontal direction, wherein when opening the door, when the traction bolt (28, 128) is displaced out of the inclined retracting structure (13, 113), the first spring (27, 127) acting on the traction element is tensioned by the traction element (21, 121), the release member (25, 125) returns into the initial position, in which the traction element (21, 121) is maintained in a tensioned state by the release member (25, 125) when the door is open, wherein the retracting block (10, 110) comprises an inclined intake structure (12, 112) oriented in the longitudinal direction of the door as a means for engaging the traction element (21, 121) with the inclined retracting structure (13, 113), wherein the inclined intake structure and the inclined retracting structure form a triangle.
A method of synthesizing a zeolite having the structure of SSZ-31, the method comprising: (a) preparing a reaction mixture comprising: a source of silicon oxide; optionally, a source of aluminum oxide; a structure directing agent comprising 2-ethyl- N,N,N -trimethylbutan-1-aminium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the zeolite. (a) preparing a reaction mixture comprising: a source of silicon oxide; optionally, a source of aluminum oxide; a structure directing agent comprising 2-ethyl- N,N,N -trimethylbutan-1-aminium cations; hydroxide ions; and water; and a source of silicon oxide; optionally, a source of aluminum oxide; a structure directing agent comprising 2-ethyl- N,N,N -trimethylbutan-1-aminium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the zeolite.
An engine start control system for a saddle-ride type vehicle, comprising: an integrated starter generator rotating in synchrony with a crankshaft of an engine and driving a forward rotation and a reverse rotation of the crankshaft, and a control unit configured for controlling the integrated starter generator, a motor angle sensor for detecting a rotation angle of the integrated starter generator, the control unit is configured for determining on the basis of the motor angle sensor output the motor rotation direction of the integrated starter generator, and the control unit is configured to operate the integrated starter generator to drive the reverse rotation of the crankshaft after the engine has stopped, characterized in that: the control unit is configured for deriving a motor rotation-direction signal on the basis of the motor angle sensor output and of the determined motor rotation direction at every time the integrated starter generator rotates 10 degrees, wherein rotation-direction signal is incremented during forward rotation of the crankshaft and inversely decremented during reverse rotation of the crankshaft, the control unit is configured to maintain reverse rotation drive during a predetermined time period until the rotation direction signal has been successively decremented three times after the start of the reverse rotation state of the crankshaft caused by the integrated starter generator and until the rotation-direction signal is incremented. an integrated starter generator rotating in synchrony with a crankshaft of an engine and driving a forward rotation and a reverse rotation of the crankshaft, and a control unit configured for controlling the integrated starter generator, a motor angle sensor for detecting a rotation angle of the integrated starter generator, the control unit is configured for determining on the basis of the motor angle sensor output the motor rotation direction of the integrated starter generator, and the control unit is configured to operate the integrated starter generator to drive the reverse rotation of the crankshaft after the engine has stopped, characterized in that: the control unit is configured for deriving a motor rotation-direction signal on the basis of the motor angle sensor output and of the determined motor rotation direction at every time the integrated starter generator rotates 10 degrees, wherein rotation-direction signal is incremented during forward rotation of the crankshaft and inversely decremented during reverse rotation of the crankshaft, the control unit is configured to maintain reverse rotation drive during a predetermined time period until the rotation direction signal has been successively decremented three times after the start of the reverse rotation state of the crankshaft caused by the integrated starter generator and until the rotation-direction signal is incremented.
An aqueous adhesive composition for lignocellulosic materials, such as wood comprising: - a component (i) in form of one or more oxidized lignins; - a component (ii) in form of one or more cross-linkers selected from β-hydroxyalkylamide-cross-linkers and/or oxazoline-cross-linkers; - a component (iii) in form of one or more plasticizers selected from polyethylene glycols. - a component (i) in form of one or more oxidized lignins; - a component (ii) in form of one or more cross-linkers selected from β-hydroxyalkylamide-cross-linkers and/or oxazoline-cross-linkers; - a component (iii) in form of one or more plasticizers selected from polyethylene glycols.
An aqueous polyurethane dispersion obtained by subjecting a mixture comprising (a) at least one organic, aliphatic, cycloaliphatic or aromatic di, tri or polyisocyanate, (b) at least one isocyanate reactive polycarbonate diol obtained by reaction between at least one dialkyl carbonate and at least one 2,2-dialkyl-1,3-propanediol, (c) at least one linear or branched C 2 -C 12 hydroxyalkyl (meth)acrylate, and (d) at least one dihydroxyalkanoic acid, to reaction and subsequent conversion of at least 30% of anionic groups present in obtained reaction product to salt groups by addition of at least base and dispersion in water, wherein said reaction is carried out at a molar ratio isocyanate groups to isocyanate reactive groups of between 1:0.8 and 1:1.2, and wherein said reaction is performed at a temperature of between 20°C and 100°C in presence of at least one catalyst and at least one inert, water miscible solvent. (a) at least one organic, aliphatic, cycloaliphatic or aromatic di, tri or polyisocyanate, (b) at least one isocyanate reactive polycarbonate diol obtained by reaction between at least one dialkyl carbonate and at least one 2,2-dialkyl-1,3-propanediol, (c) at least one linear or branched C 2 -C 12 hydroxyalkyl (meth)acrylate, and (d) at least one dihydroxyalkanoic acid,