mhurhangee/ep-ind-claims huggingface dataset:
A tube body transfer system from conveying tube bodies in a tube production process from a tube body production station to a station downstream thereof, comprising a supplying conveyor device, which is designed for transporting spaced tube bodies in the direction of their longitudinal extension and a discharging conveyor device which is designed so that with this the tube bodies grouped into one group (20, 21) in the area of the downstream station can be jointly removed, wherein provided between the supplying conveyor device and the discharging conveyor device is a transfer device (3, 7) with a plurality of transfer elements which can be driven, coupled, along a continuous movement path by a joint actuator, each, when loaded with a tube body defining a receiving axis coinciding with a longitudinal axis of a tube body and preferably arranged equidistantly along the movement path, wherein assigned to the joint actuator of the transfer element are control means for varying the speed of the transfer elements along the path of movement, and wherein tube bodies supplied by the supplying conveying device can be individually received by means of one transfer element of the transfer device at a respective transfer time in a transfer area, conveyed along the movement path transferred onto the discharging conveying device wherein assigned to the transfer elements are rotation means for rotating the tube bodies during displacement along the continuous movement path about the respective rotation axis, wherein the rotation means, during rotation of the tube bodies about the relevant axis of rotation are designed to change the orientation of the relevant receiving axis in space, in particular in such a way that the tube bodies supplied from the supplying conveying device orientated in parallel to the conveying direction can be transferred at an angle, preferably perpendicularly to the direction of conveying of the supplying conveying device and/or the transfer element along the path of movement of the transfer direction orientated to the discharging conveyor device and wherein the control means are designed to control the joint actuator of the transfer elements for compensating for a non-equidistant spacing of the tube bodies on the supplying conveyor device in such a way, more particularly accelerating and/or decelerating the actuator, that a receiving transfer element, in spite of the non-equidistant spacing of the tube bodies on the supplying conveying device, is in the transfer area at the time of transfer and all coupled transfer elements moveable along the movement path at the time of transfer move at the speed of the one receiving the tube bodies along the longitudinal extension of the supplying conveyor device along the path of movement, characterised in that the discharging conveyor device has several receptacles for the tube bodies and that stripper means are provided which are arranged and designed so that tube bodies transported by the transfer elements along the continuous movement path can be conveyed against the stripper means for transfer to the receptacles of the discharging conveyor device.
A method for manufacturing an electrode assembly, the method comprising: a step of forming each of a negative electrode, a separator, and a positive electrode so as to have a shape having a hole; a step of laminating the negative electrode, the separator, and the positive electrode so that the holes are aligned so as to manufacture a unit cell; a step of laminating at least two or more unit cells to form a laminate; a step of folding a folding separator having an area that is enough to cover an entire surface of the laminate in one direction to wrap the outside of the laminate; a step of removing a portion of a space forming part (a) that is a portion of the folding separator surrounding a space formed by the holes when the folding separator is folded to be wrapped along a periphery of the laminate; and a step of bonding surplus parts (s, t, u, v, w)that are portions of the folding separator, which are not closely attached to the laminate, to each other after the portion of the space forming part is removed so that the laminate is sealed by the folding separator which covers an exposed surface of the laminate, wherein the unit cell has a shape in which it is bent at one location, at least, wherein the folding separator is made of a material having toughness greater than that of the separator laminated between the negative electrode and the positive electrode in the unit cell. a step of forming each of a negative electrode, a separator, and a positive electrode so as to have a shape having a hole; a step of laminating the negative electrode, the separator, and the positive electrode so that the holes are aligned so as to manufacture a unit cell; a step of laminating at least two or more unit cells to form a laminate; a step of folding a folding separator having an area that is enough to cover an entire surface of the laminate in one direction to wrap the outside of the laminate; a step of removing a portion of a space forming part (a) that is a portion of the folding separator surrounding a space formed by the holes when the folding separator is folded to be wrapped along a periphery of the laminate; and a step of bonding surplus parts (s, t, u, v, w)that are portions of the folding separator, which are not closely attached to the laminate, to each other after the portion of the space forming part is removed so that the laminate is sealed by the folding separator which covers an exposed surface of the laminate, wherein the unit cell has a shape in which it is bent at one location, at least, wherein the folding separator is made of a material having toughness greater than that of the separator laminated between the negative electrode and the positive electrode in the unit cell.
A lamp comprising an elongate light source and a coaxially transparent sleeve surrounding the light source, characterised in that the light source is fixed at one end in the sleeve by means of a cured cement, wherein a cement barrier is present between the light source and the sleeve for preventing the cement in its uncured state from entering the central portion of the sleeve, and wherein said cement barrier is made of a non-metallic somewhat flexible material, which is more flexible and/or softer than glass, quartz glass and quartz.
A panel-shaped insulating element for thermally insulating spaces, comprising a plurality of closed cells, wherein a first group of closed cells is formed by first recesses in a first flat element, and the first flat element between the edges of the openings of adjacent recesses forms first connection regions (12,13) to which a first flat cover element closing the openings of a plurality of first recesses is materially bonded on a front side of the first flat element, characterized in that a second group of closed cells is provided, which is formed by second recesses in a second flat element, and the second flat element between the edges of the openings of adjacent recesses forms second connection regions (12',13') to which a second flat cover element closing the openings of a plurality of second recesses is materially bonded on a front side of the second flat element, wherein the second recesses are provided on a rear side of the first flat element between the first recesses, and the first recesses are provided on a rear side of the second flat element between the second recesses, so that the volume remaining free of first and second recesses (2,2') between the first and second flat elements (1,1') is less than 50%, preferably less than 40%, preferably less than 30%, preferably less than 20%, preferably less than 10%, in particular less than 5%, of the volume enclosed by the first and second recesses (2,2') together, wherein the connecting regions (12,12',13,13') are strip-shaped, forming a grid of strip-shaped connecting regions (12,12',13,13') extending transversely, in particular at an angle of 90°, relative to one another, and the bases of the first and/or second recesses (2,2') are cross-shaped and the first recesses are arranged such that the cross-shaped base, by its point of intersection, rests on the point of intersection of two strip-shaped connecting regions (12,12',13,13').
A method of controlling descrambling of a plurality of scrambled program transport streams received by a receiver system, wherein each program transport stream of the plurality of program transport streams is for a respective program and comprises a multiplex of one or more respective elementary bit streams, wherein the method comprises: receiving a sequence of messages in a conditional access sub-system (9,10) comprised in said receiver system, each message being associated with one of a number of scrambled program transport streams and representing a request for returning information enabling the associated scrambled program transport stream to be descrambled by at least one descrambler module in the receiver system; characterized in that the method further comprises: determining whether messages received within a certain interval are associated with a number of different scrambled program transport streams; and denying at least one of the requests represented by the messages received in the certain interval if the number of different scrambled program transport streams with which the messages are associated exceeds a pre-determined number. receiving a sequence of messages in a conditional access sub-system (9,10) comprised in said receiver system, each message being associated with one of a number of scrambled program transport streams and representing a request for returning information enabling the associated scrambled program transport stream to be descrambled by at least one descrambler module in the receiver system; characterized in that the method further comprises: determining whether messages received within a certain interval are associated with a number of different scrambled program transport streams; and denying at least one of the requests represented by the messages received in the certain interval if the number of different scrambled program transport streams with which the messages are associated exceeds a pre-determined number. determining whether messages received within a certain interval are associated with a number of different scrambled program transport streams; and denying at least one of the requests represented by the messages received in the certain interval if the number of different scrambled program transport streams with which the messages are associated exceeds a pre-determined number.
A semiconductor device comprising: a semiconductor layer stacked on a substrate; a stripe-shaped ridge formed on a surface of the semiconductor layer; an electrode formed on an upper surface of the ridge, and including a flat portion having a flat surface substantially parallel to the upper surface of the ridge and sloped portions on both sides of the flat portion and having a thickness decreasing from the ends of the flat portion toward respective side surfaces of the ridge; and a protective film disposed on each side of the ridge to cover a region from a side surface of the ridge to the sloped surface of the sloped portion of the electrode, characterised in that the uppermost end of the end portion of the protective film is positioned higher than an upper portion of the electrode. a semiconductor layer stacked on a substrate; a stripe-shaped ridge formed on a surface of the semiconductor layer; an electrode formed on an upper surface of the ridge, and including a flat portion having a flat surface substantially parallel to the upper surface of the ridge and sloped portions on both sides of the flat portion and having a thickness decreasing from the ends of the flat portion toward respective side surfaces of the ridge; and a protective film disposed on each side of the ridge to cover a region from a side surface of the ridge to the sloped surface of the sloped portion of the electrode, characterised in that the uppermost end of the end portion of the protective film is positioned higher than an upper portion of the electrode.
A robotic system comprising: a robotic arm having a tool holder and a signal interface; a plurality of robotic tools, each tool receivable by the tool holder for manipulation by the robotic arm; a processor having a memory and coupled to the robotic arm, the memory comprising robotic tool data associated with the plurality of tools and the processor directing movement of a robotic tool received by the tool holder using associated tool data from the processor memory; a first additional tool, the first additional tool having a memory with additional tool data or code, the first tool transmitting the additional tool data to the processor via the tool signal interface, characterised in that the processor is conditioned to store the additional tool data or code in the processor memory and is operable to direct movement of the robotic arm using the additional tool data or code after the first additional tool is removed from the tool holder. a robotic arm having a tool holder and a signal interface; a plurality of robotic tools, each tool receivable by the tool holder for manipulation by the robotic arm; a processor having a memory and coupled to the robotic arm, the memory comprising robotic tool data associated with the plurality of tools and the processor directing movement of a robotic tool received by the tool holder using associated tool data from the processor memory; a first additional tool, the first additional tool having a memory with additional tool data or code, the first tool transmitting the additional tool data to the processor via the tool signal interface, characterised in that the processor is conditioned to store the additional tool data or code in the processor memory and is operable to direct movement of the robotic arm using the additional tool data or code after the first additional tool is removed from the tool holder.
A method for performing statistical multiplexing of services with different Quality of Service Class Identifiers QCIs in an evolved Multimedia Broadcast Multicast Service e-MBMS system, comprising: at an evolved Broadcast Multicast Service Center eBM-SC, determining a statistical multiplexing bundle and information of the statistical multiplexing bundle for e-MBMS services, wherein the statistical multiplexing bundle comprises multiple services with different QCIs, and services with the same QCI constitute a statistical multiplexing sub-bundle in the statistical multiplexing bundle, the information of the statistical multiplexing bundle comprising: a QCI, a service list and an Aggregated Bundle Bit Rate ABBR of each statistical multiplexing sub-bundle, and an ABBR of the statistical multiplexing bundle; at an MBMS Collaborative Entity MCE, determining an ABBR bundle based on the information of the statistical multiplexing bundle determined by eBM-SC and according to a predetermined standard, and performing statistical multiplexing scheduling for the services of the ABBR bundle so that multiple services belonging to the same ABBR bundle share resources allocated to the ABBR bundle. at an evolved Broadcast Multicast Service Center eBM-SC, determining a statistical multiplexing bundle and information of the statistical multiplexing bundle for e-MBMS services, wherein the statistical multiplexing bundle comprises multiple services with different QCIs, and services with the same QCI constitute a statistical multiplexing sub-bundle in the statistical multiplexing bundle, the information of the statistical multiplexing bundle comprising: a QCI, a service list and an Aggregated Bundle Bit Rate ABBR of each statistical multiplexing sub-bundle, and an ABBR of the statistical multiplexing bundle; at an MBMS Collaborative Entity MCE, determining an ABBR bundle based on the information of the statistical multiplexing bundle determined by eBM-SC and according to a predetermined standard, and performing statistical multiplexing scheduling for the services of the ABBR bundle so that multiple services belonging to the same ABBR bundle share resources allocated to the ABBR bundle.
A method performed by a user equipment, UE, for managing a power coordination configuration when performing a dual active protocol stack, DAPS, procedure, the method comprising: receiving, by the UE and from a source base station of a radio access network, RAN, a power coordination configuration for application by the UE to constrain uplink power when communicating with a source cell and a target cell of the RAN; initiating, by the UE, the DAPS procedure in accordance with the power coordination configuration; and in response to detecting a failure when performing the DAPS procedure, releasing, by the UE, the power coordination configuration. receiving, by the UE and from a source base station of a radio access network, RAN, a power coordination configuration for application by the UE to constrain uplink power when communicating with a source cell and a target cell of the RAN; initiating, by the UE, the DAPS procedure in accordance with the power coordination configuration; and in response to detecting a failure when performing the DAPS procedure, releasing, by the UE, the power coordination configuration.
A power system for an unmanned surface vehicle, the power system comprising: a fuel cell including a fuel cell stack, wherein the fuel cell stack includes a fuel inlet, an air inlet, and an exhaust outlet; a fuel storage including at least one fuel-storage module fluidly connected to the fuel inlet of the fuel cell stack, wherein the fuel-storage module is a source of energy for the fuel cell; an air management system fluidly connected to the air inlet and the exhaust outlet of the fuel cell; and an air snorkel that is part of the air management system and provides air to operate the fuel cell while the unmanned surface vehicle is deployed within a body of water, wherein the air snorkel includes: - an air intake for receiving ambient air supplied to the fuel cell stack; and - an exhaust for expelling exhausted air and exhausted water-vapor created by the fuel cell stack; wherein the air snorkel includes a conduit, a first air valve, and a second air valve, and wherein the ambient air enters the conduit through the air intake, the exhausted air and exhausted water-vapor exit the conduit through the exhaust, the first air valve is fluidly connected to the air intake, and the second air valve is fluidly connected to the exhaust, and characterised in that the conduit defines a sump (113, 115) and the air snorkel includes a water pump fluidly connected to the sump (113, 115), and water collected within the sump (113, 115) is removed by opening the first air valve and the second air valve and then activating the water pump. a fuel cell including a fuel cell stack, wherein the fuel cell stack includes a fuel inlet, an air inlet, and an exhaust outlet; a fuel storage including at least one fuel-storage module fluidly connected to the fuel inlet of the fuel cell stack, wherein the fuel-storage module is a source of energy for the fuel cell; an air management system fluidly connected to the air inlet and the exhaust outlet of the fuel cell; and an air snorkel that is part of the air management system and provides air to operate the fuel cell while the unmanned surface vehicle is deployed within a body of water, wherein the air snorkel includes: - an air intake for receiving ambient air supplied to the fuel cell stack; and - an exhaust for expelling exhausted air and exhausted water-vapor created by the fuel cell stack; wherein - an air intake for receiving ambient air supplied to the fuel cell stack; and - an exhaust for expelling exhausted air and exhausted water-vapor created by the fuel cell stack; wherein the air snorkel includes a conduit, a first air valve, and a second air valve, and wherein the ambient air enters the conduit through the air intake, the exhausted air and exhausted water-vapor exit the conduit through the exhaust, the first air valve is fluidly connected to the air intake, and the second air valve is fluidly connected to the exhaust, and characterised in that the conduit defines a sump (113, 115) and the air snorkel includes a water pump fluidly connected to the sump (113, 115), and water collected within the sump (113, 115) is removed by opening the first air valve and the second air valve and then activating the water pump.
A transparent coating system for light filtering between 400-2500 nm, that is comprised of a transparent polymeric binder, one or more pearlescent pigments, and one or more absorption pigments selected from organic pigments, organic pigment derivatives and/or inorganic pigments, having a total pigment loading of about 0.1-40%, by weight.
A method for operating a wind turbine, wherein the wind turbine has a rotor (12, 13, 22), at least one rotor blade with an adjustable angle, a mechanical braking device for braking the rotor, an operational control device (15, 15') and a safety system (16, 20), characterized by the following method steps: - braking of the rotor (12, 13, 22) by means of an angle adjustment with an average angle adjustment rate of less than 8.5°/s of the at least one rotor blade after a fault signal occurs, - braking of the rotor (12, 13, 22) by means of the mechanical braking device as soon as the rotational speed of the rotor (12, 13, 22) exceeds a predefinable first rotational speed limit, wherein the mechanical braking is triggered by the operational control device (15, 15'), - activating the safety system (16, 20) as soon as the rotational speed of the rotor (12, 13, 22) exceeds a predefinable second rotational speed limit, wherein the rotor (12, 13, 22) is decelerated and wherein the second rotational speed limit is greater than the first rotational speed limit. - braking of the rotor (12, 13, 22) by means of an angle adjustment with an average angle adjustment rate of less than 8.5°/s of the at least one rotor blade after a fault signal occurs, - braking of the rotor (12, 13, 22) by means of the mechanical braking device as soon as the rotational speed of the rotor (12, 13, 22) exceeds a predefinable first rotational speed limit, wherein the mechanical braking is triggered by the operational control device (15, 15'), - activating the safety system (16, 20) as soon as the rotational speed of the rotor (12, 13, 22) exceeds a predefinable second rotational speed limit, wherein the rotor (12, 13, 22) is decelerated and wherein the second rotational speed limit is greater than the first rotational speed limit.
Structural component, in particular for a vehicle, having - a beam which is profiled and has at least one inner chamber (20, 20'), and - at least one energy absorption device which is arranged on a portion of the outer surface of the beam and is formed from glass- and/or carbon-fibre-reinforced plastic, characterized in that - the energy absorption device degrades the energy/force acting thereon by crumbling, and - the energy absorption device is surrounded at least in certain portions by projecting regions or projecting walls (15, 16). - a beam which is profiled and has at least one inner chamber (20, 20'), and - at least one energy absorption device which is arranged on a portion of the outer surface of the beam and is formed from glass- and/or carbon-fibre-reinforced plastic, - the energy absorption device degrades the energy/force acting thereon by crumbling, and - the energy absorption device is surrounded at least in certain portions by projecting regions or projecting walls (15, 16).