mhurhangee/ep-ind-claims huggingface dataset:
Method for continuously producing a fibre composite semi-finished product consisting of a reinforcing fibre material and a matrix material (21, 22) which has an interval between the melting temperature and the crosslinking temperature and which is a single-component epoxy resin, in which method - the melting temperature is the temperature at which the epoxy resin is liquefied, - the crosslinking temperature is the temperature at which the curing reaction between a monomer and a latent curing agent is triggered, - the melting temperature in this case is below the crosslinking temperature, and - the matrix material (21, 22) has thermoplastic properties in the uncrosslinked state and thermoset properties in the crosslinked state, comprising at least the following steps: a. applying reinforcing fibre material and uncrosslinked matrix material (21, 22) to a conveyor belt, b. pressing reinforcing fibre material and uncrosslinked matrix material (21, 22) to form the fibre composite semi-finished product, characterised in that the reinforcing fibre material and uncrosslinked matrix material (21, 22) are applied as a layer of a mixture of pre-cut short fibres and powdered, uncrosslinked matrix material (21, 22), and the reinforcing fibre material and the matrix material (21, 22) on the conveyor belt, during the pressing process or as a semi-finished product, are not delimited from the material of the conveyor belt of the belt press or from other semi-finished product layers by films, and in that the matrix material (21, 22) is in the molten state during the pressing, due to heating, but is not crosslinked. - the melting temperature is the temperature at which the epoxy resin is liquefied, - the crosslinking temperature is the temperature at which the curing reaction between a monomer and a latent curing agent is triggered, - the melting temperature in this case is below the crosslinking temperature, and - the matrix material (21, 22) has thermoplastic properties in the uncrosslinked state and thermoset properties in the crosslinked state, a. applying reinforcing fibre material and uncrosslinked matrix material (21, 22) to a conveyor belt, b. pressing reinforcing fibre material and uncrosslinked matrix material (21, 22) to form the fibre composite semi-finished product,
A condenser assembly comprising: a condenser comprising a first condenser body having a first side face and an opposing second side face, the first condenser body bounding a channel extending therein; means for cooling the condenser, the means for cooling being in communication with the channel of the first condenser body; and a condenser bag (210, 226, 228), characterised in that the condenser bag (210, 226, 228) is removably coupled with the condenser, the condenser bag bounding: a first compartment having a first gas inlet port, a first gas exhaust port and a first fluid collection port each of the first gas inlet port, the first gas exhaust port and a first fluid collection port communicating with the first compartment and; a second compartment having a second gas inlet port, a second gas exhaust port and a second fluid collection port each of the second gas inlet port, the second gas exhaust port and the second fluid collection port communicating with the second compartment, wherein the condenser further comprises: a first door movably mounted on the first condenser body, at least a portion of the condenser bag being disposed between the condenser body and the first door so that the at least a portion of the condenser bag is positioned adjacent the first side face of the condenser body. a condenser comprising a first condenser body having a first side face and an opposing second side face, the first condenser body bounding a channel extending therein; means for cooling the condenser, the means for cooling being in communication with the channel of the first condenser body; and a condenser bag (210, 226, 228), characterised in that the condenser bag (210, 226, 228) is removably coupled with the condenser, the condenser bag bounding: a first compartment having a first gas inlet port, a first gas exhaust port and a first fluid collection port each of the first gas inlet port, the first gas exhaust port and a first fluid collection port communicating with the first compartment and; a second compartment having a second gas inlet port, a second gas exhaust port and a second fluid collection port each of the second gas inlet port, the second gas exhaust port and the second fluid collection port communicating with the second compartment, a first compartment having a first gas inlet port, a first gas exhaust port and a first fluid collection port each of the first gas inlet port, the first gas exhaust port and a first fluid collection port communicating with the first compartment and; a second compartment having a second gas inlet port, a second gas exhaust port and a second fluid collection port each of the second gas inlet port, the second gas exhaust port and the second fluid collection port communicating with the second compartment, wherein the condenser further comprises: a first door movably mounted on the first condenser body, at least a portion of the condenser bag being disposed between the condenser body and the first door so that the at least a portion of the condenser bag is positioned adjacent the first side face of the condenser body.
A method for manufacturing an Sn alloy bump formed of an alloy composed of Sn and other two metals, the method comprising: a step of forming an Sn layer on an electrode in a resist opening formed on a substrate optionally being a semiconductor wafer, a print substrate or a heat sink substrate by electrolytic plating; a step of laminating two layers (24b, 24c) on the Sn layer by electrolytic plating; and a step of forming an Sn alloy bump by melting the Sn layer and the two layers laminated thereon after removal of the resist, characterized in that the two layers (24b, 24c) laminated on the Sn layer are composed of, respectively, an alloy layer composed of Sn and one of the two other metals and an alloy layer composed of Sn and the other one of the two metals. a step of forming an Sn layer on an electrode in a resist opening formed on a substrate optionally being a semiconductor wafer, a print substrate or a heat sink substrate by electrolytic plating; a step of laminating two layers (24b, 24c) on the Sn layer by electrolytic plating; and a step of forming an Sn alloy bump by melting the Sn layer and the two layers laminated thereon after removal of the resist, characterized in that the two layers (24b, 24c) laminated on the Sn layer are composed of, respectively, an alloy layer composed of Sn and one of the two other metals and an alloy layer composed of Sn and the other one of the two metals.
Method of producing a packed food product, comprising: - cooking a food product at a cooking temperature of at least 100°C, - introducing the cooked food product into an atmosphere of superheated steam, the atmosphere of superheated steam containing less than 3% of oxygen and having a temperature of at least 120°C, - drying the food product to an a w -value in the range from 0.90 to 0.92, - in the superheated steam atmosphere, packaging the food product in a packaging container and hermetically sealing the packaging container. - cooking a food product at a cooking temperature of at least 100°C, - introducing the cooked food product into an atmosphere of superheated steam, the atmosphere of superheated steam containing less than 3% of oxygen and having a temperature of at least 120°C, - drying the food product to an a w -value in the range from 0.90 to 0.92, - in the superheated steam atmosphere, packaging the food product in a packaging container and hermetically sealing the packaging container.
A sensor having at least one transmitter and a first sensor optics in a first sensor housing and having at least one receiver and a second sensor optics in a second sensor housing, wherein light beams are transmitted by the transmitter and are received by the receiver, having a reflective surface in parallel with the optical axis of the transmitter and of the receiver, wherein at least one diaphragm is arranged between the first sensor housing and the second sensor housing and spaced apart and spatially separate from the first sensor housing and spaced apart and spatially separate from the second sensor housing at a different point than the sensor (16, 18) for restricting the light beams, characterized in that the spacing a of the diaphragm (16, 18) from the sensor optics (4, 6) is calculated according to the formula a = H - h/tan α, where H is the spacing of the optical axis from the reflective surface, h is half the opening of the sensor optics (4, 6), and α is half the opening angle of the sensor, with the diaphragm only being arranged at one side of the optical axis between the transmitter and the receiver, and with the light beams being restricted on one side of the optical axis by the diaphragm (16, 18) and not being restricted on the oppositely disposed side.
A method performed by a User Equipment, UE, for reporting Channel State Information, CSI, the method comprising: receiving a CSI reporting configuration via a Radio Resource Control, RRC, message comprising a plurality of trigger states from a base station on a first Bandwidth Part, BWP, one of the plurality of trigger states being associated with the CSI reporting configuration; reserving the CSI reporting configuration during a BWP switch operation, the BWP switch operation including: receiving a first BWP switch indication from the base station to change an active BWP of the UE from the first BWP to a second BWP; and receiving a second BWP switch indication from the base station to switch the active BWP back to the first BWP; and after switching back to the first BWP, not sending a CSI report based on the CSI reporting configuration until the UE receives, from the base station, explicit signaling. receiving a CSI reporting configuration via a Radio Resource Control, RRC, message comprising a plurality of trigger states from a base station on a first Bandwidth Part, BWP, one of the plurality of trigger states being associated with the CSI reporting configuration; reserving the CSI reporting configuration during a BWP switch operation, the BWP switch operation including: receiving a first BWP switch indication from the base station to change an active BWP of the UE from the first BWP to a second BWP; and receiving a second BWP switch indication from the base station to switch the active BWP back to the first BWP; and receiving a first BWP switch indication from the base station to change an active BWP of the UE from the first BWP to a second BWP; and receiving a second BWP switch indication from the base station to switch the active BWP back to the first BWP; and after switching back to the first BWP, not sending a CSI report based on the CSI reporting configuration until the UE receives, from the base station, explicit signaling.
Reinforcement element (58, 88, 258, 356, 455, 558, 658, 1058, 1258, 2056, 3058, 4058) for sprockets (25, 26, 72, 86, 325, 425, 426, 525, 526, 625, 626, 1025, 1225, 1226, 2025, 3025, 4025) of a sprocket assembly (10, 2010) of a bicycle rear wheel, said reinforcement element (58, 88, 258, 955, 558, 658, 1058, 1258, 2056, 3058, 4058) lacking engagement means for engaging with a freewheel body of a hub of a bicycle rear wheel, wherein said reinforcement element (58, 88, 258, 356, 455, 558, 658, 1058, 1258, 2056, 3058, 4058) comprises at least one first coupling portion with at least one sprocket (25, 26, 72, 86, 325, 425, 426, 525, 526, 625, 626, 1025, 1225, 1226, 2025, 3025, 4025) of said sprocket assembly (10, 2010) and at least one second coupling portion with said at least one sprocket (25, 26, 72, 86, 325, 425, 426, 525, 526, 625, 626, 1025, 1225, 1226, 2025, 3025, 4025), said at least one second coupling portion being distinct from said at least one first coupling portion, characterised in that said at least one second coupling portion is radially spaced apart from said at least one first coupling portion.
A process for making a graphics film comprising the following steps: a. coating and drying an ink receptive layer onto a carrier web, b. extrusion coating a polyolefin material onto the ink receptive layer of step (a), c. removing the carrier web from the ink receptive layer to expose a surface of the ink receptive layer; wherein the exposed surface of the ink receptive layer from step (c) is glossy, and wherein the ink receptive layer is selected from a vinyl acetate homopolymer or copolymer or a mixture thereof, an acrylic copolymer or a mixture of an acrylic copolymer with a vinyl acetate/ethylene copolymer, a vinyl acetate/ethylene copolymer and an acrylic hybrid, or a polyurethane containing polymer, characterized in that the coating in step a. is die coating, and the graphics film is halogen-free. a. coating and drying an ink receptive layer onto a carrier web, b. extrusion coating a polyolefin material onto the ink receptive layer of step (a), c. removing the carrier web from the ink receptive layer to expose a surface of the ink receptive layer;
A wall tie having a supporting function for an insulation material to be installed in a wall cavity, the wall tie comprises a plug to be inserted through the insulation material and into the inner cavity wall, which plug comprises a pin-shaped body provided with a longitudinal, central bore, as well as a pin to be anchored in an outer cavity wall, which pin can be inserted into the bore in the plug body, which body is provided with outwardly extending, deformable, ribs at least along part of its length, and which plug is capable of supporting the insulation material, wherein the plug is provided with a radially outwardly oriented collar near an end remote from the inner cavity wall, wherein the pin has a diameter smaller than or equal to a diameter of the bore in a first part of the plug facing the collar and a diameter larger than or equal to a diameter of the bore in a second part of the plug facing an insertion end of the plug, wherein the body narrows towards the insertion end of the plug, the wall tie is characterized in that the deformable ribs extend longitudinally at least along part of the plugs body and in that the body of the second part of the plug has a U-shaped transverse cross-section.
Method for detecting skew in a movable control surface of an aircraft, the method comprising: - moving a first plurality of RFID tags relative to a first RFID reader, wherein each RFID tag from the first plurality of RFID tags is associated with a pre-determined position of an inboard side of the movable control surface; - detecting each RFID tag as each RFID tag passes the first RFID reader; - determining a position of the inboard side of the movable control surface based on a most recently detected RFID tag from the first plurality of RFID tags; - moving a second plurality of RFID tags relative to a second RFID reader, wherein each RFID tag from the second plurality of RFID tags is associated with a pre-determined position of an outboard side of the movable control surface; - detecting each RFID tag as each RFID tag passes the second RFID reader; - determining a position of the outboard side of the movable control surface based on a most recently detected RFID tag from the second plurality of RFID tags; and, - comparing the position of the inboard side of the movable control surface to the position of the outboard side of the movable control surface to determine a skew level. - moving a first plurality of RFID tags relative to a first RFID reader, wherein each RFID tag from the first plurality of RFID tags is associated with a pre-determined position of an inboard side of the movable control surface; - detecting each RFID tag as each RFID tag passes the first RFID reader; - determining a position of the inboard side of the movable control surface based on a most recently detected RFID tag from the first plurality of RFID tags; - moving a second plurality of RFID tags relative to a second RFID reader, wherein each RFID tag from the second plurality of RFID tags is associated with a pre-determined position of an outboard side of the movable control surface; - detecting each RFID tag as each RFID tag passes the second RFID reader; - determining a position of the outboard side of the movable control surface based on a most recently detected RFID tag from the second plurality of RFID tags; and, - comparing the position of the inboard side of the movable control surface to the position of the outboard side of the movable control surface to determine a skew level.
A computer-implemented method for real-time transmission of data streams from a video transmitting device adapted to generate and transmit at least: (i) a first data stream, the first data stream for providing to a browser and comprising at least one preview frame, and (ii) a second data stream, the first data stream and the second data stream generated based on the same captured video stream, the second data stream having a higher bitrate relative to the first data stream, the method comprising: determining, by a processor, a difference between a number of video preview frames sent and the number of acknowledgements that those frames have been received; causing, by the processor, the video transmitting device to (i) decrease the transmission framerate when the difference is greater than a number X, and (ii) increase a transmission framerate when the difference is less than the number X, wherein the number X is determined by a function of an exponential moving average of the difference; and communicating, by the processor, the electronic instructions to the video transmitting device, the video transmitting device configured for receiving the electronic instructions and modifying the transmission framerate of the first data stream; wherein the modification of the transmission framerate associated with the first data stream changes a utilization of transmission bandwidth by the first and the second data streams, wherein the transmission bandwidth is shared between the transmission of the first data stream and the transmission of the second data stream, the second data stream having a higher latency relative to both the captured video stream and the first data stream. determining, by a processor, a difference between a number of video preview frames sent and the number of acknowledgements that those frames have been received; causing, by the processor, the video transmitting device to (i) decrease the transmission framerate when the difference is greater than a number X, and (ii) increase a transmission framerate when the difference is less than the number X, wherein the number X is determined by a function of an exponential moving average of the difference; and communicating, by the processor, the electronic instructions to the video transmitting device, the video transmitting device configured for receiving the electronic instructions and modifying the transmission framerate of the first data stream; wherein the modification of the transmission framerate associated with the first data stream changes a utilization of transmission bandwidth by the first and the second data streams, wherein the transmission bandwidth is shared between the transmission of the first data stream and the transmission of the second data stream, the second data stream having a higher latency relative to both the captured video stream and the first data stream.
A method to determine whether a network device is operational, the method comprising: determining, by one or more hardware processors of a network management system, first operational parameter values of the network device; determining, by the one or more hardware processors, one or more neighboring network devices of the network device; determining, by the one or more hardware processors, second operational parameter values of the one or more neighboring network devices, wherein the second operational parameter values of the one or more neighboring network devices indicate a count of messages received at a respective neighboring network device or a number of wireless terminals associated with the respective neighboring network device; determining, by the one or more hardware processors, whether the network device is operational based on the first operational parameter values of the network device and the second operational parameter values of the one or more neighboring network devices; and conditionally controlling, by the one or more hardware processors, the network device based on whether the network device is determined to be operational. determining, by one or more hardware processors of a network management system, first operational parameter values of the network device; determining, by the one or more hardware processors, one or more neighboring network devices of the network device; determining, by the one or more hardware processors, second operational parameter values of the one or more neighboring network devices, wherein the second operational parameter values of the one or more neighboring network devices indicate a count of messages received at a respective neighboring network device or a number of wireless terminals associated with the respective neighboring network device; determining, by the one or more hardware processors, whether the network device is operational based on the first operational parameter values of the network device and the second operational parameter values of the one or more neighboring network devices; and conditionally controlling, by the one or more hardware processors, the network device based on whether the network device is determined to be operational.
Device for shaping and cutting a cosmetic unit for defining the top thereof with a cap associated with a holder for housing a cosmetic unit; a shaper for defining a tip of the cosmetic unit, wherein the shaper is disposed in the cap and wherein the shaper comprises: a shaping surface for defining a surface of the tip; a slot in the shaping surface; an edge disposed at the slot, wherein the edge is set to be engageable for removing the material of the tip when the shaping surface is placed in contact with the tip, and wherein the edge is set such that the removed material is passed through the slot; characterized in that the shaper is moveably biased along a longitudinal axis of to the cap by a biasing member set to be movable in one or more longitudinal grooves of the cap, and the biasing member comprises a bias element that is restrained in a housing, and the shaper is set to be user-selectably placed in contact with the tip of the cosmetic unit. a shaping surface for defining a surface of the tip; a slot in the shaping surface; an edge disposed at the slot, wherein the edge is set to be engageable for removing the material of the tip when the shaping surface is placed in contact with the tip, and wherein the edge is set such that the removed material is passed through the slot; characterized in that the shaper is moveably biased along a longitudinal axis of to the cap by a biasing member set to be movable in one or more longitudinal grooves of the cap, and the biasing member comprises a bias element that is restrained in a housing, and the shaper is set to be user-selectably placed in contact with the tip of the cosmetic unit.