mhurhangee/ep-ind-claims huggingface dataset:
A method of receiving a phase tracking reference signal, PT-RS, performed by a user equipment, UE, in a wireless communication system, the method comprising: determining PT-RS time densities respectively corresponding to multiple PT-RS ports allocated to the UE, wherein the PT-RS time densities are determined based on modulation and coding schemes, MCSs, for the respective multiple PT-RS ports; selecting one of the PT-RS time densities; and receiving, through same time-frequency resources, a plurality of PT-RSs corresponding to the plurality of PT-RS ports, wherein the plurality of PT-RSs are all transmitted based on the selected PT-RS time density, via the plurality of PT-RS ports, respectively, wherein the selected PT-RS time density is a highest PT-RS time density associated with a highest modulation and coding scheme, MCS, among the MCSs for the respective multiple PT-RS ports. determining PT-RS time densities respectively corresponding to multiple PT-RS ports allocated to the UE, wherein the PT-RS time densities are determined based on modulation and coding schemes, MCSs, for the respective multiple PT-RS ports; selecting one of the PT-RS time densities; and receiving, through same time-frequency resources, a plurality of PT-RSs corresponding to the plurality of PT-RS ports, wherein the plurality of PT-RSs are all transmitted based on the selected PT-RS time density, via the plurality of PT-RS ports, respectively, wherein the selected PT-RS time density is a highest PT-RS time density associated with a highest modulation and coding scheme, MCS, among the MCSs for the respective multiple PT-RS ports.
Solenoid valve device for a pressure-compensated solenoid valve (10a, 10a', 10a"; 10b, 10c), in particular a pressure-compensating solenoid valve device, with a magnet element (12a, 12a', 12a"; 12b, 12c) comprising at least one magnet coil winding (14a; 14b; 14c) and preferably at least one magnet core (18a; 18b, 18c) that is arranged at least partly in an interior (16a; 16b; 16c) of the magnet coil winding (14a; 14b; 14c), and with a valve element (22a, 22a', 22a", 22a′′′; 22b, 22c) comprising at least one plunger unit (20a; 20b; 20c) which is at least configured to control at least one flow-through path through the solenoid valve (10a, 10a', 10a"; 10b, 10c) and which is at least configured to interact with a magnetic field created within the magnet element (12a, 12a', 12a"; 12b, 12c) at least for a generation of at least one movement of the plunger unit (20a; 20b, 20c), characterised in that the magnet element (12a, 12a', 12a"; 12b, 12c) and the valve element (22a, 22a', 22a", 22a′′′; 22b, 22c) form separable modules (24a, 26a; 24b, 26b; 24c, 26c) which are functional independently from each other, which are in particular free of common functional components, like for example a common magnet armature, the magnet element (12a, 12a', 12a"; 12b, 12c) being at least substantially free of movably supported components and/or of components which in at least one operation state at least partly engage into the valve element (22a, 22a', 22a", 22a′′′; 22b, 22c). with a magnet element (12a, 12a', 12a"; 12b, 12c) comprising at least one magnet coil winding (14a; 14b; 14c) and preferably at least one magnet core (18a; 18b, 18c) that is arranged at least partly in an interior (16a; 16b; 16c) of the magnet coil winding (14a; 14b; 14c), and with a valve element (22a, 22a', 22a", 22a′′′; 22b, 22c) comprising at least one plunger unit (20a; 20b; 20c) which is at least configured to control at least one flow-through path through the solenoid valve (10a, 10a', 10a"; 10b, 10c) and which is at least configured to interact with a magnetic field created within the magnet element (12a, 12a', 12a"; 12b, 12c) at least for a generation of at least one movement of the plunger unit (20a; 20b, 20c), characterised in that the magnet element (12a, 12a', 12a"; 12b, 12c) and the valve element (22a, 22a', 22a", 22a′′′; 22b, 22c) form separable modules (24a, 26a; 24b, 26b; 24c, 26c) which are functional independently from each other, which are in particular free of common functional components, like for example a common magnet armature, the magnet element (12a, 12a', 12a"; 12b, 12c) being at least substantially free of movably supported components and/or of components which in at least one operation state at least partly engage into the valve element (22a, 22a', 22a", 22a′′′; 22b, 22c).
A water activated gas release device for use in conjunction with an inflatable article, the inflatable article including a valve stem, the device comprising: a container for an inflation gas having forward and rearward ends; an end cap with a cover, an opening formed within the cover, a slot forming a fluid passage between the opening and the container; characterised in that the device further comprises a ring rotatably positioned within the opening, the ring having an internal periphery that is dimensioned to fit over the valve stem, a series of openings formed through the periphery of the ring and adapted to be brought into registry with the slot. a container for an inflation gas having forward and rearward ends; an end cap with a cover, an opening formed within the cover, a slot forming a fluid passage between the opening and the container; characterised in that the device further comprises a ring rotatably positioned within the opening, the ring having an internal periphery that is dimensioned to fit over the valve stem, a series of openings formed through the periphery of the ring and adapted to be brought into registry with the slot.
Electrical connector for airbag restraint systems, comprising an elongated housing aligned on a longitudinal axis corresponding to a mating direction of the connector, surrounding at least one elongated terminal having a contact surface, a terminal support device, attached on the elongated housing and movable longitudinally along the elongated housing from an open position to a support position,whereby the terminal support device comprises a support protrusion protruding perpendicular to the longitudinal axis inward the elongated housing and increases the contact pressure of the contact surface, to a counter contact element, when the connector is mated to a counter connector and the terminal support device is in the support position, wherein the support protrusion comprises a flat activation surface for increasing said contact pressure and being aligned to the longitudinal axis, wherein the elongated terminal is aligned along the longitudinal axis of the elongated housing, wherein the elongated terminal comprises a straight portion and a bend portion, wherein the flat activation surface is arranged opposite the straight portion when the terminal support device is in the open position and wherein the flat activation surface contacts the bend portion when the terminal support device is in the support position.
A method for isolating one or more polypeptides associated with a target nucleic acid sequence comprising: (a) obtaining a sample that comprises a target nucleic acid sequence and one or more polypeptides associated with the target nucleic acid sequence; (b) contacting the sample with at least one oligonucleotide probe that comprises a sequence that is complimentary to and capable of hybridising with at least a portion of the target nucleic acid sequence, wherein the oligonucleotide probe comprises at least one locked nucleic acid nucleotide and wherein the oligonucleotide probe further comprises at least one affinity label, wherein the affinity label is conjugated to the oligonucleotide probe via a spacer group having a length of between 40 and 170 atoms; more suitably between 70 and 130 atoms; more typically between 90 and 120 atoms; suitably between 100 and 110 atoms; (c) allowing the at least one oligonucleotide probe and the target nucleic acid sequence to hybridise with each other so as to form a probe-target hybrid; (d) isolating the probe-target hybrid from the sample by immobilizing the probe-target hybrid through a molecule that binds to the at least one affinity label; and (e) eluting the one or more polypeptides that are associated with the target nucleic acid sequence. (a) obtaining a sample that comprises a target nucleic acid sequence and one or more polypeptides associated with the target nucleic acid sequence; (b) contacting the sample with at least one oligonucleotide probe that comprises a sequence that is complimentary to and capable of hybridising with at least a portion of the target nucleic acid sequence, wherein the oligonucleotide probe comprises at least one locked nucleic acid nucleotide and wherein the oligonucleotide probe further comprises at least one affinity label, wherein the affinity label is conjugated to the oligonucleotide probe via a spacer group having a length of between 40 and 170 atoms; more suitably between 70 and 130 atoms; more typically between 90 and 120 atoms; suitably between 100 and 110 atoms; (c) allowing the at least one oligonucleotide probe and the target nucleic acid sequence to hybridise with each other so as to form a probe-target hybrid; (d) isolating the probe-target hybrid from the sample by immobilizing the probe-target hybrid through a molecule that binds to the at least one affinity label; and (e) eluting the one or more polypeptides that are associated with the target nucleic acid sequence.
A control device of a digital signage apparatus (100; 300), the device comprising: a first display unit configured to display contents; and a controller (180; 330) configured to: display an image representing a first content selected from the contents on a time cell region of a scheduler displayed on the first display unit, set up a duration of the display of the first content, transmit the first content that was selected from the contents on the time cell region of the scheduler to a second display unit through a communication network, display the first content on the second display unit during the duration of the display of the first content, wherein the scheduler schedules the selected first content, edit the duration of the display of the first content to be displayed on the second display unit by adjusting a size of the image displayed on the time cell region of the scheduler, and display the first content on the second display unit during the edited duration of the display of the first content. a first display unit configured to display contents; and a controller (180; 330) configured to: display an image representing a first content selected from the contents on a time cell region of a scheduler displayed on the first display unit, set up a duration of the display of the first content, transmit the first content that was selected from the contents on the time cell region of the scheduler to a second display unit through a communication network, display the first content on the second display unit during the duration of the display of the first content, wherein the scheduler schedules the selected first content, edit the duration of the display of the first content to be displayed on the second display unit by adjusting a size of the image displayed on the time cell region of the scheduler, and display the first content on the second display unit during the edited duration of the display of the first content. display an image representing a first content selected from the contents on a time cell region of a scheduler displayed on the first display unit, set up a duration of the display of the first content, transmit the first content that was selected from the contents on the time cell region of the scheduler to a second display unit through a communication network, display the first content on the second display unit during the duration of the display of the first content, wherein the scheduler schedules the selected first content, edit the duration of the display of the first content to be displayed on the second display unit by adjusting a size of the image displayed on the time cell region of the scheduler, and display the first content on the second display unit during the edited duration of the display of the first content.
A radiation curable solder mask inkjet ink comprising a photoinitiator, a polymerizable compound, and a flame retardant, characterized in that the flame retardant has a chemical structure according to Formula II, wherein R6 to R9 independently represent a substituted or unsubstituted aryl group, and L represent a divalent linking group coupled to the phosphate groups via an aromatic carbon atom, and wherein the viscosity of the inkjet ink at 45°C and at a shear rate of 1000 s -1 is less than 15 mPa.s. R6 to R9 independently represent a substituted or unsubstituted aryl group, and L represent a divalent linking group coupled to the phosphate groups via an aromatic carbon atom,
A process for preparation of chlorine from hydrogen chloride comprising circulating a liquid melt comprising copper ions Cu n+ with n being a number in the range from 1 to 2, alkali cations and chloride ions Cl - in a reactor system comprising three bubble lift reactors I, II and III, each comprising a reaction zone i, ii and iii respectively, wherein: (a) in the reaction zone i of the first bubble lift reactor I, a liquid melt comprising copper ions Cu n+, alkali cations and chloride ions Cl - is contacted with oxygen (O 2) at a temperature in the range from 395 to 405 °C so that the molar ratio Cu 2+: Cu + in the liquid melt increases, obtaining a liquid melt having an increased molar ratio Cu 2+: Cu +; (b) the liquid melt obtained in (a) is circulated to the reaction zone ii in the second bubble lift reactor II, where the liquid melt is contacted with hydrogen chloride (HCl) at a temperature in the range from 395 to 405 °C so that water is formed, obtaining a liquid melt being enriched in chloride anions (Cl -) compared to the liquid melt obtained according to (a); (c) circulating the liquid melt obtained in (b) to the reaction zone iii in the third bubble lift reactor III, which is operated at a temperature in the range from 420 to 430 °C so that chlorine (Cl 2) is formed, wherein Cl 2 is removed from the reaction zone iii and the third bubble lift reactor III respectively in gaseous form, leaving a liquid melt depleted of Cl - compared to the liquid melt obtained according to (b). (a) in the reaction zone i of the first bubble lift reactor I, a liquid melt comprising copper ions Cu n+, alkali cations and chloride ions Cl - is contacted with oxygen (O 2) at a temperature in the range from 395 to 405 °C so that the molar ratio Cu 2+: Cu + in the liquid melt increases, obtaining a liquid melt having an increased molar ratio Cu 2+: Cu +; (b) the liquid melt obtained in (a) is circulated to the reaction zone ii in the second bubble lift reactor II, where the liquid melt is contacted with hydrogen chloride (HCl) at a temperature in the range from 395 to 405 °C so that water is formed, obtaining a liquid melt being enriched in chloride anions (Cl -) compared to the liquid melt obtained according to (a); (c) circulating the liquid melt obtained in (b) to the reaction zone iii in the third bubble lift reactor III, which is operated at a temperature in the range from 420 to 430 °C so that chlorine (Cl 2) is formed, wherein Cl 2 is removed from the reaction zone iii and the third bubble lift reactor III respectively in gaseous form, leaving a liquid melt depleted of Cl - compared to the liquid melt obtained according to (b).
A floor panel comprising: a first structural layer; a film heater configured to emit far infrared radiation; and a first open cell layer disposed between the film heater and the first structural layer such that far infrared radiation from the film heater is directed toward the first open cell layer; characterized by further comprising a second open cell layer, wherein the film heater is disposed between the first and second open cell layers and wherein a thickness of the first open cell layer is less than a thickness of the second open cell layer. a first structural layer; a film heater configured to emit far infrared radiation; and a first open cell layer disposed between the film heater and the first structural layer such that far infrared radiation from the film heater is directed toward the first open cell layer; characterized by further comprising a second open cell layer, wherein the film heater is disposed between the first and second open cell layers and wherein a thickness of the first open cell layer is less than a thickness of the second open cell layer.
A method for generating a control system for a target system, the method comprising: receiving operational data of at least one source system, training a first neural model component of a neural network with the received operational data, wherein the first neural model component is trained to generate a prediction on a state of the target system based on the received operational data, training a second neural model component of the neural network to denoise samples of the operational data, wherein the second neural model component generates a regularizer for use in inverting the first neural model component as an output given the operational data as an input, and generating the control system for the target system by inverting the first neural model component by optimization, wherein inverting the first neural model component refers to a procedure in which inputs or control actions to the target system that result in desired outputs or states of the target system are determined, wherein the regularizer generated with the second neural model component is added to a value function in the optimization to direct the optimization toward values that correspond to typical samples in the operational data, and the value function is a function of variables x and a, wherein x is the state of the target system and a is a planned control signal. receiving operational data of at least one source system, training a first neural model component of a neural network with the received operational data, wherein the first neural model component is trained to generate a prediction on a state of the target system based on the received operational data, training a second neural model component of the neural network to denoise samples of the operational data, wherein the second neural model component generates a regularizer for use in inverting the first neural model component as an output given the operational data as an input, and generating the control system for the target system by inverting the first neural model component by optimization, wherein inverting the first neural model component refers to a procedure in which inputs or control actions to the target system that result in desired outputs or states of the target system are determined, wherein the regularizer generated with the second neural model component is added to a value function in the optimization to direct the optimization toward values that correspond to typical samples in the operational data, and the value function is a function of variables x and a, wherein x is the state of the target system and a is a planned control signal.
An elongate bandage for overwrapping and retaining an underlying medical device in position on a body part including a knitted fabric formed of synthetic yarns, wherein said knitted fabric includes an inner face adapted to be positioned against the skin constructed of soft yarn for patient comfort and an outer face adapted to be positioned away from the skin constructed of hydrophobic yarn for transmitting moisture away from the inner face, the bandage having a moisture vapor transmission rate from the inner face to the outer face of the bandage of at least 500 g/m 2 per 24 hours, characterized in that said soft yarn is single monofilament nylon and said hydrophobic yarn is single monofilament polypropylene, said knitted fabric further includes elastic yarns including segmented polyester or polyether-/polyurethane knitted or laid in with wales of said knitted fabric.
A process for the production of dry synthetic natural gas from solid or liquid, carbonaceous fuel, comprising the following process steps carried out one after the other: a) gasification of the fuel to a raw synthesis gas substantially consisting of carbon monoxide and dioxide, methane and hydrogen, b) cooling of the gas, separation of solids and the gas condensate, c) raw gas conversion, d) separation of hydrogen sulfide, carbon dioxide and steam from the raw synthesis gas by washing with methanol as solvent, wherein the methanol is circulated via a regenerating means for separating hydrogen sulfide, carbon dioxide and water from the methanol, wherein the regenerating means also comprises a methanol-water separation column, e) catalytically supported conversion of the carbon monoxide and dioxide contained in the gas and of hydrogen to synthetic natural gas, substantially consisting of methane and steam, f) predrying of the gas by condensation of moisture by means of cooling and/or cold water, characterized in the following steps: g) addition of methanol to the gas, h) separation of the steam from the gas by cooling the gas and condensing out the steam by forming a water-methanol mixture, i) separation of the water-methanol mixture from the gas, heating of the gas to the desired discharge temperature, and hence obtaining a dried synthetic natural gas, wherein the water-methanol mixture separated in step i) is introduced into the regenerating means of step d) and treated in the methanol-water separation column. a) gasification of the fuel to a raw synthesis gas substantially consisting of carbon monoxide and dioxide, methane and hydrogen, b) cooling of the gas, separation of solids and the gas condensate, c) raw gas conversion, d) separation of hydrogen sulfide, carbon dioxide and steam from the raw synthesis gas by washing with methanol as solvent, wherein the methanol is circulated via a regenerating means for separating hydrogen sulfide, carbon dioxide and water from the methanol, wherein the regenerating means also comprises a methanol-water separation column, e) catalytically supported conversion of the carbon monoxide and dioxide contained in the gas and of hydrogen to synthetic natural gas, substantially consisting of methane and steam, f) predrying of the gas by condensation of moisture by means of cooling and/or cold water, g) addition of methanol to the gas, h) separation of the steam from the gas by cooling the gas and condensing out the steam by forming a water-methanol mixture, i) separation of the water-methanol mixture from the gas, heating of the gas to the desired discharge temperature, and hence obtaining a dried synthetic natural gas,
Process for producing a flexible textile electrically conductive sheetlike element comprising the following steps: a) providing a textile carrier layer; b) applying a crosslinkable aqueous polymer dispersion containing electrically conductive particles to the surface of the textile carrier layer and c) curing the polymer dispersion to produce an electrically conductive layer, characterized in that, before the applying of the crosslinkable polymer dispersion, at least one main surface of the textile carrier layer is smoothed such that, after smoothing, it has an Sz value of 1.0 mm or less, determined according to DIN EN ISO 25178-2:2012, preferably of 0.5 mm or less, wherein the crosslinkable polymer dispersion is directly applied to the smoothed surface of the textile carrier layer. a) providing a textile carrier layer; b) applying a crosslinkable aqueous polymer dispersion containing electrically conductive particles to the surface of the textile carrier layer and c) curing the polymer dispersion to produce an electrically conductive layer,