mhurhangee/patent-ind-claim-en huggingface dataset:
Method for connecting an accessory device in a vehicle , the method comprising: receiving data communication from the accessory device by a communication device of the vehicle via a first data communication connection; forwarding the data communication of the accessory device by the communication device to a server via a second data communication connection; receiving control information for the accessory device by the communication device from the server via the second data communication connection, the control information comprising connection parameters for connecting the accessory device in the vehicle ; connecting the accessory device in the vehicle on the basis of the control information; characterized by: receiving data to be processed from the accessory device via the first data communication connection, the data to be processed comprising sensor data of the accessory device and/or actuator data of the accessory device or for the accessory device; and forwarding the data to be processed to the server via the second data communication connection in order to effect processing of the data to be processed by the server . receiving data communication from the accessory device by a communication device of the vehicle via a first data communication connection; forwarding the data communication of the accessory device by the communication device to a server via a second data communication connection; receiving control information for the accessory device by the communication device from the server via the second data communication connection, the control information comprising connection parameters for connecting the accessory device in the vehicle ; connecting the accessory device in the vehicle on the basis of the control information; characterized by: receiving data to be processed from the accessory device via the first data communication connection, the data to be processed comprising sensor data of the accessory device and/or actuator data of the accessory device or for the accessory device; and forwarding the data to be processed to the server via the second data communication connection in order to effect processing of the data to be processed by the server . receiving data to be processed from the accessory device via the first data communication connection, the data to be processed comprising sensor data of the accessory device and/or actuator data of the accessory device or for the accessory device; and forwarding the data to be processed to the server via the second data communication connection in order to effect processing of the data to be processed by the server .
A method for producing a colored polarizing film of a desired color, wherein the method for producing the polarizing film comprises swelling a polyvinyl alcohol film with water, uniaxially stretching it, dyeing it with a dichroic organic dye composition and a coloration organic dye composition, and drying it, wherein the dichroic organic dye composition comprises a combination of three or more dichroic organic azo dyes having a dichroic ratio of 13 or higher, used in an amount to keep the degree of polarization at 90% or more, and wherein the coloration organic dye composition comprises a combination of dyes having an extremely low dichroic ratio of 4 or less or substantially having no dichroic ratio, used in an amount yielding a desired dyed color, wherein the dichroic ratio is the value measured in the maximum absorption wavelength of a polarizing film produced by using a dye or dichroic dye instead of iodine under the manufacturing conditions where the polarizing film produced by using iodine shows a dichroic ratio measured at 600 nm of 80.
A distributed antenna system, comprising: a master unit configured to be interfaced with a wireless communications network and perform a bidirectional simultaneous digital radio frequency distribution of a wireless signal; and a plurality of remote units configured to be coupled to the master unit and each perform a wireless transmission or reception of a split radio frequency signal to or from terminals located within a coverage, wherein the master unit and the plurality of remote units are configured to transmit or receive digital radio frequency signals in a wavelet transform domain, the distributed antenna system characterized in that : the master unit is configured to determine whether the digital radio frequency signal, transmitted by each of the remote units, is normal through distribution pattern or characteristics of wavelet coefficients of the digital radio frequency signal based on the digital radio frequency signals transformed to a wavelet domain, and merge the digital radio frequency signals. a master unit configured to be interfaced with a wireless communications network and perform a bidirectional simultaneous digital radio frequency distribution of a wireless signal; and a plurality of remote units configured to be coupled to the master unit and each perform a wireless transmission or reception of a split radio frequency signal to or from terminals located within a coverage, wherein the master unit and the plurality of remote units are configured to transmit or receive digital radio frequency signals in a wavelet transform domain, the distributed antenna system characterized in that : the master unit is configured to determine whether the digital radio frequency signal, transmitted by each of the remote units, is normal through distribution pattern or characteristics of wavelet coefficients of the digital radio frequency signal based on the digital radio frequency signals transformed to a wavelet domain, and merge the digital radio frequency signals.
An aerosol delivery system comprising: a first aerosol delivery device comprising a first engagement mechanism, a first power supply, and a first vaporiser, wherein the first vaporiser is arranged to selectively receive power from the first power supply to generate a first aerosol from a first aerosol precursor material for user inhalation; and a second aerosol delivery device comprising a second engagement mechanism, a second power supply, and a second vaporiser, wherein the second vaporiser is arranged to selectively receive power from the second power supply to generate a second aerosol from a second aerosol precursor material for user inhalation; wherein the first engagement mechanism of the first aerosol delivery device and the second engagement mechanism of the second aerosol delivery device are arranged to releasably co-engage with one another to selectively couple the first aerosol delivery device to the second aerosol delivery device so the first aerosol delivery device and the second aerosol delivery device may be used together to deliver the first and second aerosols to a single user when they are coupled together and may be used independently to deliver the first and second aerosols to different users when they are not coupled together. a first aerosol delivery device comprising a first engagement mechanism, a first power supply, and a first vaporiser, wherein the first vaporiser is arranged to selectively receive power from the first power supply to generate a first aerosol from a first aerosol precursor material for user inhalation; and a second aerosol delivery device comprising a second engagement mechanism, a second power supply, and a second vaporiser, wherein the second vaporiser is arranged to selectively receive power from the second power supply to generate a second aerosol from a second aerosol precursor material for user inhalation; wherein the first engagement mechanism of the first aerosol delivery device and the second engagement mechanism of the second aerosol delivery device are arranged to releasably co-engage with one another to selectively couple the first aerosol delivery device to the second aerosol delivery device so the first aerosol delivery device and the second aerosol delivery device may be used together to deliver the first and second aerosols to a single user when they are coupled together and may be used independently to deliver the first and second aerosols to different users when they are not coupled together.
An adhesive article comprising: a backing having a first major surface and a second major surface opposite the first major surface; a primer layer located on the first major surface of the backing, the primer layer being derived from a primer precursor, the primer precursor comprising a poly(meth)acrylate siloxane; and a silicone-based adhesive located on the primer layer on the first major surface of the backing, such that the primer layer is located between the first major surface of the backing and the adhesive. a backing having a first major surface and a second major surface opposite the first major surface; a primer layer located on the first major surface of the backing, the primer layer being derived from a primer precursor, the primer precursor comprising a poly(meth)acrylate siloxane; and a silicone-based adhesive located on the primer layer on the first major surface of the backing, such that the primer layer is located between the first major surface of the backing and the adhesive.
A method of injecting an offset into an iterative determination of a filter coefficient, c i (n), of a plurality of filter coefficients, {c i (n)}, of an adaptive filter using resources sharing, wherein only a subset of filter coefficients of the plurality of filter coefficients, {c i (n)}, is adjusted in one cycle, said method comprising: adjusting (S140) the filter coefficient, c i (n), in an iterative procedure according to an adaptive convergence algorithm (120, 120.1 to 120.L/k); during the iterative procedure: monitoring (S120, S200) the development of the determined filter coefficient, c i (n); determining (S130, S300) an offset, Off i , based on a monitored change of the filter coefficient, c i (n); and injecting (S130, S340) the determined offset, Off i , into the iterative procedure at each first time period, T 1 , if the determined filter coefficient, c i (n), has not reached the steady state. adjusting (S140) the filter coefficient, c i (n), in an iterative procedure according to an adaptive convergence algorithm (120, 120.1 to 120.L/k); during the iterative procedure: monitoring (S120, S200) the development of the determined filter coefficient, c i (n); determining (S130, S300) an offset, Off i , based on a monitored change of the filter coefficient, c i (n); and injecting (S130, S340) the determined offset, Off i , into the iterative procedure at each first time period, T 1 , if the determined filter coefficient, c i (n), has not reached the steady state. monitoring (S120, S200) the development of the determined filter coefficient, c i (n); determining (S130, S300) an offset, Off i , based on a monitored change of the filter coefficient, c i (n); and injecting (S130, S340) the determined offset, Off i , into the iterative procedure at each first time period, T 1 , if the determined filter coefficient, c i (n), has not reached the steady state.
A process for treating product fluid streams in an arrangement of two or more reactors, in particular in reactors on the laboratory scale, i.e. a laboratory catalysis apparatus, having two or more reaction spaces arranged in parallel, wherein (a) a starting fluid stream comprising a liquid feed selected from the class of heavy residue oils and hydrogen or another reaction gas and carrier gas is fed into each of the individual reaction spaces, wherein the heavy residue oil comprises both sulfur-comprising compounds and nitrogen-comprising compounds, where the sulfur content is in the range from 0.5 to 7% by weight and a nitrogen content is in the range from 0.1 to 5% by weight, based on the total liquid feed, wherein the amount of starting fluid fed in has an LHSV in the range from 0.05 to 10 h -1 and each individual reaction space has an internal volume in the range from 1 to 50 ml, and (b) the product fluid streams exiting from the individual reaction spaces are each transferred into a separate separator, and wherein the process has the characteristic feature that at least one inert gas is fed into the individual regions at the outlet side of the reaction space, specifically between the separators and outlet-side flow restrictors, and the ratio of the volume flow of inert gas (V IG ) to the volume flow of the product fluid stream (V PFS ), V IG /V PFS , is ≥ 10. (a) a starting fluid stream comprising a liquid feed selected from the class of heavy residue oils and hydrogen or another reaction gas and carrier gas is fed into each of the individual reaction spaces, wherein the heavy residue oil comprises both sulfur-comprising compounds and nitrogen-comprising compounds, where the sulfur content is in the range from 0.5 to 7% by weight and a nitrogen content is in the range from 0.1 to 5% by weight, based on the total liquid feed, wherein the amount of starting fluid fed in has an LHSV in the range from 0.05 to 10 h -1 and each individual reaction space has an internal volume in the range from 1 to 50 ml, and (b) the product fluid streams exiting from the individual reaction spaces are each transferred into a separate separator, and
A synergistic combination of (i) Nitazoxanide (NTZ), a deuterated derivative of NTZ (NTZ-D), Tizoxanide (TZ) or Tizoxanide glucuronide (TZG), or a pharmaceutically acceptable salt of NTZ, NTZ-D, TZ or TZG; and (ii) at least one statin selected in the group consisting of pitavastatin, fluvastatin, simvastatin, atorvastatin, lovastatin and pravastatin. (i) Nitazoxanide (NTZ), a deuterated derivative of NTZ (NTZ-D), Tizoxanide (TZ) or Tizoxanide glucuronide (TZG), or a pharmaceutically acceptable salt of NTZ, NTZ-D, TZ or TZG; and (ii) at least one statin selected in the group consisting of pitavastatin, fluvastatin, simvastatin, atorvastatin, lovastatin and pravastatin.
A binary cycle power system for generating electrical power comprising a heat exchanger for evaporating a first fluid , a turbine converter , an electrical generator , and a first condenser for condensing the evaporated first fluid, wherein the turbine converter is configured to convert energy of the evaporated first fluid to mechanical energy and the electrical generator is configured to generate the electrical power from the mechanical energy, and wherein the heat exchanger is a second condenser , which is a part of a heat pump and configured to transfer heat from a second fluid circulating in a closed channel system of the heat pump into the first fluid circulating in another closed channel system so that the first fluid evaporates, characterized in that the system further comprises a pressure control for controlling absolute pressure inside the closed channel systems to optimize boiling points of the first and second fluids for available heat and a part of the closed channel system of the heat pump is configured to be immersed into a water of river, lake, or sea to allow the heat to be extracted from the water of the river, lake, or sea and transferred to the second fluid, which circulates in the partly immersed closed channel system. a turbine converter , an electrical generator , and a first condenser for condensing the evaporated first fluid, wherein the turbine converter is configured to convert energy of the evaporated first fluid to mechanical energy and the electrical generator is configured to generate the electrical power from the mechanical energy, and wherein the heat exchanger is a second condenser , which is a part of a heat pump and configured to transfer heat from a second fluid circulating in a closed channel system of the heat pump into the first fluid circulating in another closed channel system so that the first fluid evaporates, characterized in that the system further comprises a pressure control for controlling absolute pressure inside the closed channel systems to optimize boiling points of the first and second fluids for available heat and a part of the closed channel system of the heat pump is configured to be immersed into a water of river, lake, or sea to allow the heat to be extracted from the water of the river, lake, or sea and transferred to the second fluid, which circulates in the partly immersed closed channel system.
A powered handpiece for imparting to a cannula of a medical device a reciprocal movement of amplitude (Δx) along a longitudinal axis (X), the powered handpiece comprising a housing at least partially enclosing, (a) a hollow tube extending along the longitudinal axis (X) between an inlet end and an outlet end , configured for translating back and forth along the longitudinal axis (X) by a distance (ΔX) relative to the housing , the inlet end being configured for coaxially coupling the hollow tube to a hollow cannula , (b) a ring rigidly coupled to the hollow tube and comprising an opening defined on a plane (X, Y), having a length, L, measured along a first transverse axis (Y) and a width, W, measured along the longitudinal axis (X), wherein Y ⊥ X, (c) a cam mounted on a rotation axle parallel to a second transverse axis (Z) normal to the plane (X, Y) (i.e., X ⊥ Y ⊥ Z), offset from a centroid (C) of the cam on the plane (X, Y) by a distance (δP), and set at a fixed position relative to the housing , the cam being engaged in the opening , wherein upon rotation about the rotation axle, the cam is configured for rotating within the ring and defining a largest radius of rotation (p) defined on the plane (X, Y), and wherein the largest radius of rotation (p) is not more than half the length, L, of the opening (p ≤ 1⁄2 L) and is larger than the width, W, of the opening, wherein the rotation of the cam engaged in the opening of the ring drives a reciprocal translation of the hollow tube back and forth along the longitudinal axis (X) by the distance (ΔX) relative to the housing . (a) a hollow tube extending along the longitudinal axis (X) between an inlet end and an outlet end , configured for translating back and forth along the longitudinal axis (X) by a distance (ΔX) relative to the housing , the inlet end being configured for coaxially coupling the hollow tube to a hollow cannula , (b) a ring rigidly coupled to the hollow tube and comprising an opening defined on a plane (X, Y), having a length, L, measured along a first transverse axis (Y) and a width, W, measured along the longitudinal axis (X), wherein Y ⊥ X, (c) a cam mounted on a rotation axle parallel to a second transverse axis (Z) normal to the plane (X, Y) (i.e., X ⊥ Y ⊥ Z), offset from a centroid (C) of the cam on the plane (X, Y) by a distance (δP), and set at a fixed position relative to the housing , the cam being engaged in the opening , wherein upon rotation about the rotation axle, the cam is configured for rotating within the ring and defining a largest radius of rotation (p) defined on the plane (X, Y), and wherein the largest radius of rotation (p) is not more than half the length, L, of the opening (p ≤ 1⁄2 L) and is larger than the width, W, of the opening,
A network of equipment interconnected by switches (50 to 55) incorporating routing tables, comprising a routing table manager, characterised in that said routing table manager implements two modes of operation: - an offline mode of operation in which all the routing tables are calculated initially, then loaded subsequently into the switches (50 to 55), at least when booting up the network, - an online mode of operation in which, in case of an event rendering an element of the network unusable or operational, only the routing tables impacted by said event are recomputed and loaded into the switches (50 to 55). - an offline mode of operation in which all the routing tables are calculated initially, then loaded subsequently into the switches (50 to 55), at least when booting up the network, - an online mode of operation in which, in case of an event rendering an element of the network unusable or operational, only the routing tables impacted by said event are recomputed and loaded into the switches (50 to 55).
A brake valve arrangement configured to be used in a trailer electronic braking system comprising a braking device capable of generating a braking force on a wheel on the trailer, a brake force into the brake cylinders being controllable by a braking ECU, which braking ECU is connected to a standards compliant communication bus on said trailer and is adapted to receive data inputs from sensors on the trailer, wherein the brake valve is provided with a pneumatic circuit having a plurality of inputs characterised in that said inputs are arranged to be substantially co-planar, wherein a connector plate is provided in the brake valve arrangement, which plate is provided with a plurality of pneumatic through connections having an inlet and outlet , wherein the respective outlets are adapted to be connected to the co-planar inlets on the valve, wherein a plurality of the inputs on the connector plate connect to a first input on the valve.
A method for modifying, by a central unit, CU, of a base station, BS, a QoS flow to DRB mapping rule in a wireless communication system, the method comprising: modifying the QoS flow to DRB mapping rule; determining whether or not the modified QoS flow to DRB mapping rule is related to reflective mapping; and based on the determination that the modified QoS flow to DRB mapping rule is not related to the reflective mapping, transmitting the modified QoS flow to DRB mapping rule to a user equipment, UE, wherein the CU includes a central unit-control plane, CU-CP, and at least one central unit-user plane, CU-UP, wherein the modified QoS flow to DRB mapping rule is transmitted from the CU-CP to the at least one CU-UP, and wherein based on the determination that the modified QoS flow to DRB mapping rule is related to the reflective mapping, the modified QoS flow to DRB mapping rule is not transmitted to the UE. modifying the QoS flow to DRB mapping rule; determining whether or not the modified QoS flow to DRB mapping rule is related to reflective mapping; and based on the determination that the modified QoS flow to DRB mapping rule is not related to the reflective mapping, transmitting the modified QoS flow to DRB mapping rule to a user equipment, UE, wherein the CU includes a central unit-control plane, CU-CP, and at least one central unit-user plane, CU-UP, wherein the modified QoS flow to DRB mapping rule is transmitted from the CU-CP to the at least one CU-UP, and