mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the emergency unlocking of a door lock on a motor vehicle, having an actuating means which, when the device is installed in a vehicle, can be mechanically connected to the door lock in order to unlock the door lock when the actuating means is displaced, having an electric actuator (10; 34), with a blocking means which is coupled to the actuator (10; 34) and can be moved by the actuator from a blocking position into a release position, wherein the blocking means blocks a displacement of the actuating means in its blocking position and releases a displacement of the actuating means in its release position, characterised in that a wireless data interface is coupled to an electronic control device , wherein the data interface and the control device are coupled to the actuator (10; 34), wherein the data interface and the control device are designed to receive both authorisation data and energy for the operation of the actuator (10; 34) and the control device from a mobile device wirelessly coupled to the data interface , wherein the control device is configured to control the actuator (10; 34) in dependence on the received authorisation data in order to transfer the blocking means from the blocking position into the release position by means of the actuator, wherein a mechanical access device is formed, which is operatively connected to the actuating means , in order to displace the released actuating means for unlocking the door lock . having an actuating means which, when the device is installed in a vehicle, can be mechanically connected to the door lock in order to unlock the door lock when the actuating means is displaced, having an electric actuator (10; 34), with a blocking means which is coupled to the actuator (10; 34) and can be moved by the actuator from a blocking position into a release position, wherein the blocking means blocks a displacement of the actuating means in its blocking position and releases a displacement of the actuating means in its release position, characterised in that a wireless data interface is coupled to an electronic control device , wherein the data interface and the control device are coupled to the actuator (10; 34), wherein the data interface and the control device are designed to receive both authorisation data and energy for the operation of the actuator (10; 34) and the control device from a mobile device wirelessly coupled to the data interface , wherein the control device is configured to control the actuator (10; 34) in dependence on the received authorisation data in order to transfer the blocking means from the blocking position into the release position by means of the actuator, wherein a mechanical access device is formed, which is operatively connected to the actuating means , in order to displace the released actuating means for unlocking the door lock .
Operating system for a plurality of devices of a vehicle, which operating system has a display apparatus and in which an actuator unit is provided, wherein the display apparatus has at least two planar display regions arranged one behind the other in a viewing direction of an operator and which extend transversely to the viewing direction, and the actuator unit is configured to navigate between the display regions and within each of the display regions .
A relay valve comprising: a housing including an exhaust chamber , a supply chamber connectable to a supply, an actuator chamber connectable to an actuator, an exhaust port connecting the exhaust chamber to the actuator chamber, a supply port connecting the supply chamber to the actuator chamber, and an I/P chamber connectable to an I/P converter; a stack having a first end , a second end , and a valve seat portion , the stack being configured to be shifted within the housing to thereby control opening and closing of one of the exhaust port or supply port with the valve seat portion thereof; a spring configured to apply a force on the first end of the stack; an I/P diaphragm mounted within the housing to extend across the I/P chamber, the I/P diaphragm configured to apply a force on the second end of the stack based on pressure provided by the I/P converter; an actuator diaphragm mounted within the housing and coupled to the stack, the actuator diaphragm disposed on an opposite side of the actuator chamber as the one of the exhaust port or supply port; wherein an area of the actuator diaphragm is generally equal to an area of the one of the exhaust port or supply port such that forces acting on the stack due to pressure within the actuator chamber acting on the valve seat portion and the actuator diaphragm cancel one another out. a housing including an exhaust chamber , a supply chamber connectable to a supply, an actuator chamber connectable to an actuator, an exhaust port connecting the exhaust chamber to the actuator chamber, a supply port connecting the supply chamber to the actuator chamber, and an I/P chamber connectable to an I/P converter; a stack having a first end , a second end , and a valve seat portion , the stack being configured to be shifted within the housing to thereby control opening and closing of one of the exhaust port or supply port with the valve seat portion thereof; a spring configured to apply a force on the first end of the stack; an I/P diaphragm mounted within the housing to extend across the I/P chamber, the I/P diaphragm configured to apply a force on the second end of the stack based on pressure provided by the I/P converter; an actuator diaphragm mounted within the housing and coupled to the stack, the actuator diaphragm disposed on an opposite side of the actuator chamber as the one of the exhaust port or supply port; wherein an area of the actuator diaphragm is generally equal to an area of the one of the exhaust port or supply port such that forces acting on the stack due to pressure within the actuator chamber acting on the valve seat portion and the actuator diaphragm cancel one another out.
A co-assembled nanoparticle comprising: at least one polypeptide comprising poly(gamma-glutamic acid); and at least one amphiphilic peptide having a β-sheet structure, or a salt thereof, the amphiphilic peptide comprising at least 2 pairs of alternating hydrophobic/hydrophilic amino acid residues, wherein the hydrophilic amino acid residue is positively charged. at least one polypeptide comprising poly(gamma-glutamic acid); and at least one amphiphilic peptide having a β-sheet structure, or a salt thereof, the amphiphilic peptide comprising at least 2 pairs of alternating hydrophobic/hydrophilic amino acid residues, wherein the hydrophilic amino acid residue is positively charged.
A catalytic and/or reactive unit in the form of a protective material having catalytic and/or reactive properties, in particular with the function of protecting against chemical and/or biological harmful and/or poisonous substances, wherein the unit comprises an in particular air-permeable carrier , in particular in the form of a textile carrier, wherein the carrier is equipped with a plurality of discrete catalytic and/or reactive particles , wherein the catalytic and/or reactive particles comprise at least one catalytic and/or reactive component, or consist thereof, wherein said catalytic and/or reactive component comprises an MOF ( M etal O rganic F ramework ) material or consists thereof, wherein the catalytic and/or reactive particles are permanently bonded to the carrier by means of gluing and/or are glued to the carrier , wherein the bonding and/or gluing is effected by an adhesive layer applied to the carrier , wherein the adhesive layer is designed as an air-permeable and/or discontinuous layer based on a dried and cured broken adhesive polymer foam, and wherein the catalytic and/or reactive particles are applied jointly and/or together with a plurality of activated carbon particles as discrete adsorber particles .
Built-in cistern for a WC ceramic , which can be built into a wall, comprising a water connection, an actuating device , a connecting pipe between the built-in cistern and the WC ceramic , and a moisture and leakage protection, characterized in that the moisture and leakage protection is designed as a flexible, watertight protective cover surrounding the built-in cistern and the connecting pipe, and in that a hose-like extension with at least one underside opening at its end is formed on the underside of the protective cover.
Fluid chamber body for a fluid jetting device ejecting droplets of a fluid, the fluid having a high temperature, the body J Z defining a fluid chamber for holding a fluid having a temperature of up to 3000K and having an orifice extending from the fluid chamber to an outer surface of the fluid chamber element, the fluid chamber body being made of a heat-resistant material, the heat-resistant material being wettable by the fluid, wherein at least an inner surface of the fluid chamber body is provided with a wetting coating, the wetting coating being wettable for the fluid, wherein the heat-resistant, wettable material is substantially electrically conductive.
A frictional power transmission belt comprising a compression layer having a power transmission surface, at least a part of which is capable of coming into contact with a pulley, wherein the compression layer comprises a polymer component and a polyvinyl alcohol-based resin; characterized in that the polyvinyl alcohol-based resin is polyvinyl alcohol-based resin particles, wherein the polyvinyl alcohol-based resin particles have an average aspect ratio of 10 or less.
A first network node for a wireless communication system , the first network node comprising a transceiver configured to receive a network information message, NIM, from a second network node , the second network node configured or contending to use a shared communication channel for wireless data communication, the network information message, NIM, indicating a set of third network nodes (300a, 300b,..., 300z) configurable or contending to use the shared communication channel for wireless data communication; wherein the first network node comprises: a processor configured to determine, for the second network node , at least one first channel access time interval for accessing the shared communication channel for data communication based on the network information message, NIM; wherein the transceiver further is configured to transmit a first network control message, NCM1, to the second network node , the first network control message, NCM1, indicating the first channel access time interval, the first network control message indicating the first channel access time interval by comprising one or more selected from a group comprising: a start channel access time, an end channel access time, a start channel access time offset with respect to a reference time, a channel access duration, and a channel access periodicity.
A medical balloon or a parison for forming a medical balloon and a mandrel including a lattice comprising a radiopaque material and configured for insertion into and expanding within the medical balloon or the parison .
A method of operating a doubly-fed induction generator DFIG system comprising an induction electric machine including a stator having a stator winding and a rotor having a rotor winding, wherein the stator winding is electrically connected to at least one output terminal of the DFIG system and the rotor winding is electrically connected to the at least one output terminal by means of a power converter that includes: a first active rectifier/inverter with alternating current AC terminals electrically connected to the rotor winding, and direct current DC terminals; and a second active rectifier/inverter with DC terminals electrically connected to the DC terminals of the first active rectifier/inverter by a DC link , and AC terminals electrically connected to the at least one output terminal ; characterised in that the method comprises the step of controlling the first active rectifier/inverter so that the frequency of the AC current at its AC terminals is kept substantially constant during at least one of a line charging mode and an islanded mode, wherein during the line charging mode and during the islanded mode, the at least one output terminal is electrically connected to a local power network and is not electrically connected to a remote power network. a first active rectifier/inverter with alternating current AC terminals electrically connected to the rotor winding, and direct current DC terminals; and a second active rectifier/inverter with DC terminals electrically connected to the DC terminals of the first active rectifier/inverter by a DC link , and AC terminals electrically connected to the at least one output terminal ;
A method of receiving a downlink signal by a user equipment, UE, from an eNB in a wireless communication system, the method comprising: receiving, from the eNB, first reference signals, RSs, for demodulating the downlink signal, wherein the first RSs and second RSs are in quasi co-location, QCL, and are assumed to have same properties related to channel estimation, obtaining quasi-continuity information on whether the first RSs are considered to be continuously received, based on average density and intervals of the first RSs in a time window, wherein the first RSs are considered to be continuously received, when the average density of the first RSs in the time window is equal to or greater than a first threshold value and when the intervals between the first RSs in the time window are equal to or smaller than a second threshold value, wherein a quasi-continuity reference depends on a modulation and coding scheme, MCS, level, and the obtained quasi-continuity information is based on the MCS level determined for reception of the downlink signal, and receiving, from the eNB, the downlink signal based on the determined MCS level. receiving, from the eNB, first reference signals, RSs, for demodulating the downlink signal, wherein the first RSs and second RSs are in quasi co-location, QCL, and are assumed to have same properties related to channel estimation, obtaining quasi-continuity information on whether the first RSs are considered to be continuously received, based on average density and intervals of the first RSs in a time window, wherein the first RSs are considered to be continuously received, when the average density of the first RSs in the time window is equal to or greater than a first threshold value and when the intervals between the first RSs in the time window are equal to or smaller than a second threshold value, wherein a quasi-continuity reference depends on a modulation and coding scheme, MCS, level, and the obtained quasi-continuity information is based on the MCS level determined for reception of the downlink signal, and receiving, from the eNB, the downlink signal based on the determined MCS level.
A computing device comprising: a first chip comprising one or more CPU cores , a memory controller coupled to the one or more CPU cores, and a first serializer-deserializer device , the memory controller comprising a cache memory controller and a system memory controller ; a second chip comprising cache memory managed by the cache memory controller, a data router , and a second serializer-deserializer device ; system memory separate from the first chip and the second chip and managed by the system memory controller and the data router; a first interface coupled between the system memory and the second chip; and a second interface comprising a single wire coupled between the first serializer-deserializer device and the second serializer-deserializer device, wherein the first serializer-deserializer device and the second serializer-deserializer device exchange data over the single wire using quadrature amplitude modulation; wherein a memory request from the one or more CPU cores is serviced by the cache memory controller by providing data from the cache memory to the one or more CPU cores over the second interface if there is a cache hit for the memory request or by the data router by providing data to the one or more CPU cores from the system memory if there is a cache miss for the memory request. a first chip comprising one or more CPU cores , a memory controller coupled to the one or more CPU cores, and a first serializer-deserializer device , the memory controller comprising a cache memory controller and a system memory controller ; a second chip comprising cache memory managed by the cache memory controller, a data router , and a second serializer-deserializer device ; system memory separate from the first chip and the second chip and managed by the system memory controller and the data router; a first interface coupled between the system memory and the second chip; and a second interface comprising a single wire coupled between the first serializer-deserializer device and the second serializer-deserializer device, wherein the first serializer-deserializer device and the second serializer-deserializer device exchange data over the single wire using quadrature amplitude modulation; wherein a memory request from the one or more CPU cores is serviced by the cache memory controller by providing data from the cache memory to the one or more CPU cores over the second interface if there is a cache hit for the memory request or by the data router by providing data to the one or more CPU cores from the system memory if there is a cache miss for the memory request.
A channel transmission method, applied to a network side device, the method comprising: transmitting Physical Downlink Control Channel, PDCCH, to a first terminal, wherein Cyclic Redundancy Check, CRC, of Downlink Control Information, DCI, of the PDCCH is scrambled by a first Radio Network Temporary Identifier, RNTI, of the first terminal, and a scrambling sequence generator of Physical Downlink Shared Channel, PDSCH, scheduled by the PDCCH is initialized with a second RNTI or a third parameter, characterized in that the second RNTI or the third parameter is different from the first RNTI, and the second RNTI or the third parameter is a common parameter of the first terminal and at least one other terminal. transmitting Physical Downlink Control Channel, PDCCH, to a first terminal, wherein Cyclic Redundancy Check, CRC, of Downlink Control Information, DCI, of the PDCCH is scrambled by a first Radio Network Temporary Identifier, RNTI, of the first terminal, and a scrambling sequence generator of Physical Downlink Shared Channel, PDSCH, scheduled by the PDCCH is initialized with a second RNTI or a third parameter, characterized in that the second RNTI or the third parameter is different from the first RNTI, and the second RNTI or the third parameter is a common parameter of the first terminal and at least one other terminal.
A laser energy managing device for an additive manufacturing system, comprising: a laser beam energy splitting device , configured to split an input laser beam from a laser generator into a plurality of split laser beams, and comprising a plurality of split transmission channels configured to transmit the plurality of split laser beams respectively; at least one micro-bending device configured to micro-bend each of the split transmission channels to attenuate the energy of corresponding split laser beams transmitted thereby and thus obtain a plurality of output laser beams suitable for being projected on a material spread on a platform of the additive manufacturing system; and a controller , configured to control a micro-bending degree of each split transmission channel. a laser beam energy splitting device , configured to split an input laser beam from a laser generator into a plurality of split laser beams, and comprising a plurality of split transmission channels configured to transmit the plurality of split laser beams respectively; at least one micro-bending device configured to micro-bend each of the split transmission channels to attenuate the energy of corresponding split laser beams transmitted thereby and thus obtain a plurality of output laser beams suitable for being projected on a material spread on a platform of the additive manufacturing system; and a controller , configured to control a micro-bending degree of each split transmission channel.
A method for conveying rod-shaped articles of the tobacco-processing industry, in particular filter cigarettes or the rod-shaped components thereof, wherein the rod-shaped articles are conveyed transversely to the axis in receiving troughs of conveying drums as the conveying drums rotate, wherein the conveying drums which rotate or can rotate in each case about an own axis of rotation are arranged behind one another in the transverse axial conveying direction of the rod-shaped articles , wherein the rod-shaped articles arranged behind one another in at least one row transversely to the axis are transferred from a conveying drum to a subsequent conveying drum , wherein in the event of a change of the rod-shaped articles which are to be conveyed from rod-shaped articles of a first type having a predetermined diameter to rod-shaped articles of a second type having a predetermined diameter, wherein the diameter of the articles of the first type and the diameter of the articles of the second type differ from one another, the pitch spacing of the receiving troughs of at least one conveying drum is altered as a function of the rod-shaped articles which are to be conveyed in such a manner that the spacing between at least one contact surface of the receiving troughs of the conveying drum and the axis of rotation of the conveying drums for the rod-shaped articles of the first type and the spacing between the same contact surface of the same receiving troughs of the conveying drum and the axis of rotation of the conveying drums for the articles of the second type are different, characterized in that the position of the receiving troughs of the conveying drums is modified by displacing the receiving troughs in the radial direction based on the axis of rotation of the conveying drums .
A method for estimating systematic yaw misalignment of a wind turbine having a nacelle and a yaw control system, comprising the steps of: • receiving yaw data from the wind turbine indicative of the degrees of rotation of the nacelle for a plurality of yaw operations; • receiving performance data from the wind turbine indicative of the alignment of the nacelle of the wind turbine with the wind direction; wherein the yaw data and the performance data is recorded during normal operation of the wind turbine where for each yaw operation of the plurality of yaw operations, the yaw control system is configured to firstly estimate the absolute or relative wind direction and secondly rotate the nacelle of the wind turbine so that the nacelle faces the estimated wind direction, the performance data is indicative of the alignment of the nacelle of the wind turbine with the wind direction before and after each of the plurality of yaw operations, the performance data is processed to determine a normalized change in the performance data between before and after a yaw operation for each of the plurality of yaw operations and wherein the yaw data and the performance data is processed together to estimate the systemic yaw misalignment of the wind turbine. • receiving yaw data from the wind turbine indicative of the degrees of rotation of the nacelle for a plurality of yaw operations; • receiving performance data from the wind turbine indicative of the alignment of the nacelle of the wind turbine with the wind direction;