mhurhangee/ep-ind-claims huggingface dataset:
Built-in cabinet assembly comprising at least two bearing struts which are arranged in a fixed manner and spaced apart from each other and which laterally delimit a receiving space between the bearing struts, at least one fastening element which is adjustably supported on each of the bearing struts and which has a front stop face and a rear tensioning face, and a built-in cabinet which is inserted into the receiving space between the bearing struts and which has at least one stop face which is brought into contact with the stop face of the fastening elements, and which has at least one threaded opening having a tensioning screw which is supported therein and which acts with the screw tip on the tensioning face of the fastening element, wherein the stop faces of the fastening elements define a bearing plane, and wherein the tensioning face is oriented to be angularly inclined at an angle (α) with respect to the bearing plane in such a manner that, when the tensioning screw is actuated, a displacement of the built-in cabinet relative to the fastening element is achieved and the stop face of the built-in cabinet is moved onto the stop faces of the fastening elements in such a manner that the stop faces (5, 8) can be brought into contact with each other, wherein, when the tensioning screw is actuated further, the built-in cabinet is tensioned with respect to the fastening element. at least two bearing struts which are arranged in a fixed manner and spaced apart from each other and which laterally delimit a receiving space between the bearing struts, at least one fastening element which is adjustably supported on each of the bearing struts and which has a front stop face and a rear tensioning face, and a built-in cabinet which is inserted into the receiving space between the bearing struts and which has at least one stop face which is brought into contact with the stop face of the fastening elements, and which has at least one threaded opening having a tensioning screw which is supported therein and which acts with the screw tip on the tensioning face of the fastening element, wherein the stop faces of the fastening elements define a bearing plane, and wherein the tensioning face is oriented to be angularly inclined at an angle (α) with respect to the bearing plane in such a manner that, when the tensioning screw is actuated, a displacement of the built-in cabinet relative to the fastening element is achieved and the stop face of the built-in cabinet is moved onto the stop faces of the fastening elements in such a manner that the stop faces (5, 8) can be brought into contact with each other, wherein, when the tensioning screw is actuated further, the built-in cabinet is tensioned with respect to the fastening element.
A node in a distributed antenna system having a host node, the node comprising: a node processor configured to execute program instructions that cause the node processor to: calculate an additional forward path delay and an additional reverse path delay necessary to meet a selected path delay value based on a signal path delay value at least in part by reducing the selected path delay value by the signal path delay value; wherein the selected path delay value is received at the node, wherein the selected path delay value identifies a desired end-to-end path transport delay between the node and the host node; and wherein the signal path delay value is received at the node, wherein the signal path delay value identifies a delay for signals communicated between the node and the host node, wherein the signal path delay value includes an aggregation of at least one path transport delay calculated by at least one further node adjacent to the node for at least one segment of the distributed antenna system between the node and the host node, wherein each path transport delay of the at least one path transport delay identifies travel time between two adjacent nodes in the distributed antenna system. calculate an additional forward path delay and an additional reverse path delay necessary to meet a selected path delay value based on a signal path delay value at least in part by reducing the selected path delay value by the signal path delay value; wherein the selected path delay value is received at the node, wherein the selected path delay value identifies a desired end-to-end path transport delay between the node and the host node; and wherein the signal path delay value is received at the node, wherein the signal path delay value identifies a delay for signals communicated between the node and the host node, wherein the signal path delay value includes an aggregation of at least one path transport delay calculated by at least one further node adjacent to the node for at least one segment of the distributed antenna system between the node and the host node, wherein each path transport delay of the at least one path transport delay identifies travel time between two adjacent nodes in the distributed antenna system.
A method of compressing transmission data packets between a user equipment, UE, and a corresponding access network or wireless serving node, comprising: receiving, at the UE, a transmission data packet for transmitting over a communication link; detecting a string of bytes in the transmission data packet that matches a preset string of bytes saved in a memory component, wherein the preset string of bytes corresponds to bytes of a payload of one or more other transmission data packets, wherein the one or more other transmission data packets are previously compressed by the UE; replacing the string of bytes of the transmission data packet that has been determined to match the preset string of bytes saved in the memory component with a location pointer, wherein after replacing the string of bytes in the transmission data packet with the location pointer, the transmission data packet comprises the location pointer and a set of literal-bytes; generating a compressed transmission data packet by entropy coding the transmission data packet comprising the set of literal-bytes and the location pointer; storing in the memory component the transmission data packet's uncompressed bits; and transmitting the compressed transmission data packet over the communication link. receiving, at the UE, a transmission data packet for transmitting over a communication link; detecting a string of bytes in the transmission data packet that matches a preset string of bytes saved in a memory component, wherein the preset string of bytes corresponds to bytes of a payload of one or more other transmission data packets, wherein the one or more other transmission data packets are previously compressed by the UE; replacing the string of bytes of the transmission data packet that has been determined to match the preset string of bytes saved in the memory component with a location pointer, wherein after replacing the string of bytes in the transmission data packet with the location pointer, the transmission data packet comprises the location pointer and a set of literal-bytes; generating a compressed transmission data packet by entropy coding the transmission data packet comprising the set of literal-bytes and the location pointer; storing in the memory component the transmission data packet's uncompressed bits; and transmitting the compressed transmission data packet over the communication link.
A photovoltaic system comprising an inverter, photovoltaic modules, a photovoltaic generator, and a controller wherein the inverter is adapted to convert a DC power supplied by photovoltaic modules of the photovoltaic generator via power cables to said inverter into an AC current for an AC power supply grid, wherein the inverter has a base station connected by means of the power cables to module level devices which are provided to monitor and/or to control associated photovoltaic modules of the photovoltaic generator, wherein if the inverter does not receive sufficient energy from the photovoltaic generator and the AC power supply grid, the controller is adapted to activate a deadlock prevention mode of an energy supply unit connected to the inverter where the inverter receives energy from the energy supply unit such that the base station of the inverter is able to continue to transmit permission to operate, PTO, signals via the power cables to the module level devices of the photovoltaic generator, wherein the energy supply unit of the photovoltaic system can be switched by the controller into different operation modes, characterized in that the energy supply unit is configured to uses state of charge, SoC, levels for controlling the operation modes of the energy supply unit, and the SoC levels are stored in configuration registers of the controller. an inverter, photovoltaic modules, a photovoltaic generator, and a controller wherein the inverter is adapted to convert a DC power supplied by photovoltaic modules of the photovoltaic generator via power cables to said inverter into an AC current for an AC power supply grid, wherein the inverter has a base station connected by means of the power cables to module level devices which are provided to monitor and/or to control associated photovoltaic modules of the photovoltaic generator, wherein if the inverter does not receive sufficient energy from the photovoltaic generator and the AC power supply grid, the controller is adapted to activate a deadlock prevention mode of an energy supply unit connected to the inverter where the inverter receives energy from the energy supply unit such that the base station of the inverter is able to continue to transmit permission to operate, PTO, signals via the power cables to the module level devices of the photovoltaic generator, wherein the energy supply unit of the photovoltaic system can be switched by the controller into different operation modes, characterized in that the energy supply unit is configured to uses state of charge, SoC, levels for controlling the operation modes of the energy supply unit, and the SoC levels are stored in configuration registers of the controller.
Method of monitoring liquefied gas in a cryogenic liquefied gas tank having an inner shell and an outer shell and an insulation between the inner and outer shell, comprising 1.1. arranging an array of temperature sensors for determining temperature of the outer surface of the inner shell of the tank) at different vertical positions (S.1 - S.n), 1.2. reading sensors in the array of temperature sensors obtaining temperature data, 1.3. performing a validity check of the sensors of the array of temperature sensors, 1.4. in a case a sensor fails the validity check discarding the temperature data from further processing, and 1.5. determining a state of the gas based on the temperature data of the sensors passed the validity check. 1.1. arranging an array of temperature sensors for determining temperature of the outer surface of the inner shell of the tank) at different vertical positions (S.1 - S.n), 1.2. reading sensors in the array of temperature sensors obtaining temperature data, 1.3. performing a validity check of the sensors of the array of temperature sensors, 1.4. in a case a sensor fails the validity check discarding the temperature data from further processing, and 1.5. determining a state of the gas based on the temperature data of the sensors passed the validity check.
Wing for generating lift from an incident flow comprising; - a trailing edge, a leading edge, an inner end, an outer end, a top surface corresponding with a suction side and a bottom surface corresponding with a pressure side; - in cross section, an aerofoil with a chord line which is defined by a straight line between the leading edge and the trailing edge of the aerofoil; - a span direction that extends from the inner end towards the outer end which is perpendicular to the chord line; wherein the leading edge further comprises; - a kink between the inner end and the outer end to generate a kink vortex to provide an additional lift; - a forward sweep part between the inner end and the kink extending towards the kink presenting an angle relative to the span direction between 0° and 90°; - a backward sweep part between the kink and the outer end extending from the kink presenting an angle relative to the span direction between 0° and -90°; characterised in that, the top surface comprises a flow control means for controlling the lift by disturbing the kink vortex, wherein the flow control means is located before the trailing edge and not a part of the trailing edge of the wing and between the leading edge and the trailing edge and at least partly located behind the backward sweep part, such that the control means is placed in the kink vortex. - a trailing edge, a leading edge, an inner end, an outer end, a top surface corresponding with a suction side and a bottom surface corresponding with a pressure side; - in cross section, an aerofoil with a chord line which is defined by a straight line between the leading edge and the trailing edge of the aerofoil; - a span direction that extends from the inner end towards the outer end which is perpendicular to the chord line; - a kink between the inner end and the outer end to generate a kink vortex to provide an additional lift; - a forward sweep part between the inner end and the kink extending towards the kink presenting an angle relative to the span direction between 0° and 90°; - a backward sweep part between the kink and the outer end extending from the kink presenting an angle relative to the span direction between 0° and -90°;
A random access method, performed by a terminal device, comprising: sending a random access preamble to a network device, wherein the random access preamble belongs to one group of at least two random access preamble groups associated with one synchronization signal block or at least two random access occasion groups associated with one synchronization signal block; receiving a random access response from the network device according to a random access radio network temporary identifier, RA-RNTI; wherein: the RA-RNTI is related to a group index of the one group and a parameter set; wherein the parameter set is related to the one group and the parameter set includes: an orthogonal frequency multiplexing, OFDM, symbol index of a random access occasion of the random access preamble or a slot index of the random access occasion of the random access preamble, and a frequency index of the random access occasion of the random access preamble. sending a random access preamble to a network device, wherein the random access preamble belongs to one group of at least two random access preamble groups associated with one synchronization signal block or at least two random access occasion groups associated with one synchronization signal block; receiving a random access response from the network device according to a random access radio network temporary identifier, RA-RNTI; wherein: the RA-RNTI is related to a group index of the one group and a parameter set; wherein the parameter set is related to the one group and the parameter set includes: an orthogonal frequency multiplexing, OFDM, symbol index of a random access occasion of the random access preamble or a slot index of the random access occasion of the random access preamble, and a frequency index of the random access occasion of the random access preamble. the RA-RNTI is related to a group index of the one group and a parameter set; wherein the parameter set is related to the one group and the parameter set includes: an orthogonal frequency multiplexing, OFDM, symbol index of a random access occasion of the random access preamble or a slot index of the random access occasion of the random access preamble, and a frequency index of the random access occasion of the random access preamble.
A method of manufacturing a sliding contact having one or more metal fingers whose tip portion is brought into contact with an object of contact, characterized in that the method comprises the steps of: irradiating sequentially each tip portion of the fingers of a plurality of sliding contacts constituting a strip material and stretching in line as a unit, under conditions where the strip material is held, to melt each tip portion of the fingers; solidifying each tip portion of the fingers in a gas to make a surface of them smooth; and subjecting each tip portion to a heat treatment. irradiating sequentially each tip portion of the fingers of a plurality of sliding contacts constituting a strip material and stretching in line as a unit, under conditions where the strip material is held, to melt each tip portion of the fingers; solidifying each tip portion of the fingers in a gas to make a surface of them smooth; and subjecting each tip portion to a heat treatment.
A system for melting and casting material, comprising: a melt chamber, wherein the melt chamber is structured to operably attain a melting pressure; a secondary chamber comprising a plurality of regions, wherein the plurality of regions comprises a first region positioned adjacent to the melt chamber, and at least one pressure management element, wherein the or each pressure management element controls a flow of gas between adjacent regions of the plurality of regions, and wherein the first region is structured to operably attain a first differential pressure that is greater than the melting pressure; and a withdrawal chamber positioned adjacent to the secondary chamber, wherein the withdrawal chamber is structured to operably attain atmospheric pressure. a melt chamber, wherein the melt chamber is structured to operably attain a melting pressure; a secondary chamber comprising a plurality of regions, wherein the plurality of regions comprises a first region positioned adjacent to the melt chamber, and at least one pressure management element, wherein the or each pressure management element controls a flow of gas between adjacent regions of the plurality of regions, and wherein the first region is structured to operably attain a first differential pressure that is greater than the melting pressure; and a plurality of regions, wherein the plurality of regions comprises a first region positioned adjacent to the melt chamber, and at least one pressure management element, wherein the or each pressure management element controls a flow of gas between adjacent regions of the plurality of regions, and wherein the first region is structured to operably attain a first differential pressure that is greater than the melting pressure; and a withdrawal chamber positioned adjacent to the secondary chamber, wherein the withdrawal chamber is structured to operably attain atmospheric pressure.
An LED light bar net current foldback circuit, connectable to a LED light bar net, wherein the LED light bar net current foldback circuit comprises: a voltage reference module, a voltage division and sampling module and a comparison module; wherein the voltage reference module is adapted to receive a first supply voltage, and generate a first reference voltage and output the first reference voltage to the voltage division and sampling module and the comparison module; the voltage division and sampling module is adapted to perform a voltage division on the first reference voltage, and output a second reference voltage to the comparison module; the comparison module is adapted to receive a detection voltage obtained by converting a detection current of the LED light bar net, and compare the detection voltage with the second reference voltage, when the detection voltage is greater than the second reference voltage, the comparison module is adapted to output a stop driving command to control the LED light bar net to stop working; wherein the voltage reference module comprises a first rectifying unit and a voltage generating unit, and the first supply voltage is a voltage of the LED light bar net, the first rectifying unit is adapted to rectify the voltage of the LED light bar net to provide a second supply voltage for the comparison module, and the voltage generating unit is adapted to output the first reference voltage to the voltage division and sampling module and the comparison module. the voltage reference module is adapted to receive a first supply voltage, and generate a first reference voltage and output the first reference voltage to the voltage division and sampling module and the comparison module; the voltage division and sampling module is adapted to perform a voltage division on the first reference voltage, and output a second reference voltage to the comparison module; the comparison module is adapted to receive a detection voltage obtained by converting a detection current of the LED light bar net, and compare the detection voltage with the second reference voltage, when the detection voltage is greater than the second reference voltage, the comparison module is adapted to output a stop driving command to control the LED light bar net to stop working; wherein the voltage reference module comprises a first rectifying unit and a voltage generating unit, and the first supply voltage is a voltage of the LED light bar net, the first rectifying unit is adapted to rectify the voltage of the LED light bar net to provide a second supply voltage for the comparison module, and the voltage generating unit is adapted to output the first reference voltage to the voltage division and sampling module and the comparison module.
An inkjet recording ink, comprising: carbon black; a surfactant; water; a water-soluble organic solvent; and particles formed of an anionic self-emulsifying poly(ether urethane) resin, wherein the carbon black contains first carbon black whose surface has been treated with an anionic surfactant and second carbon black which has been coated with a resinous polymer, where a mass ratio of the first carbon black to the second carbon black is 10/90 to 90/10, wherein the anionic surfactant is a naphthalenesulfonic acid-formaldehyde condensate, and wherein the first carbon black has an average particle diameter (D 50) of 50 nm to 100 nm, and the second carbon black has an average particle diameter (D 50) of 100 nm to 150 nm. carbon black; a surfactant; water; a water-soluble organic solvent; and particles formed of an anionic self-emulsifying poly(ether urethane) resin,
A cosmetic consisting of a cosmetic composition impregnated and stored in a foam, characterized in that: - the cosmetic composition is a water-in-oil (W/O) emulsion or an oil-in-water (O/W) emulsion, and - the foam comprises acrylonitrile-butadiene rubber. - the cosmetic composition is a water-in-oil (W/O) emulsion or an oil-in-water (O/W) emulsion, and - the foam comprises acrylonitrile-butadiene rubber.
A combustor wall (68, 70) for a turbine engine, the combustor wall comprising: a combustor shell (82; 164); and a combustor heat shield (84; 166) attached to the shell (82; 164), the heat shield (84; 166) including a first panel (98; 168) and a second panel (100; 168) that sealingly engages the first panel (98; 168) in an overlap joint (106; 118; 130; 170); wherein a cooling cavity extends between the shell (82; 164) and the heat shield (84; 166), and fluidly couples a plurality of apertures in the shell (82; 164) with a plurality of apertures (102, 104) in the heat shield (84; 166); characterised in that the cooling cavity extends from the first panel (98; 168) and the second panel (100; 168) to the shell. a combustor shell (82; 164); and a combustor heat shield (84; 166) attached to the shell (82; 164), the heat shield (84; 166) including a first panel (98; 168) and a second panel (100; 168) that sealingly engages the first panel (98; 168) in an overlap joint (106; 118; 130; 170); wherein a cooling cavity extends between the shell (82; 164) and the heat shield (84; 166), and fluidly couples a plurality of apertures in the shell (82; 164) with a plurality of apertures (102, 104) in the heat shield (84; 166); characterised in that the cooling cavity extends from the first panel (98; 168) and the second panel (100; 168) to the shell.