mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum drawer device comprising a drawer that can be moved linearly into a sliding movement direction (S) having at least one drawer interior (R) that can be closed by means of a cover designed in an airtight fashion with a lifting movement into a lifting direction (H) extending perpendicularly along the sliding movement direction (S) controlled by means of electric lifting means , wherein the cover has at least one air channel leading into the inside of the cover, wherein the air channel is operatively connected with electric evacuation means in such way that when putting on the cover , air can be pumped out of the at least one drawer interior (R) by way of the at least one air channel , characterized in that at least one seal fitting (D) is arranged circumferentially along the entire inner periphery at the drawer walls of the drawer on the cover side and that at least one seal fitting (D) extends clamped between two drawer walls of the drawer along the side directed to the cover such that in a closed position of the vacuum drawer device or, respectively, the drawer , the cover comes to rest on the seal fittings (D) and an evacuation of the underlying drawer interior (R) can be achieved.
A timepiece comprising: a high-load rotation position detection unit that detects a high-load rotation position that is a rotation position of a wheel when a rotational load of a rotor that transmits its rotation to the wheel to rotate a pointer clockwise is greater than that during normal hand movement; and a drive signal output unit that outputs a sub-drive signal having energy greater than that of a main drive signal that is output during the normal hand movement and less than that of an auxiliary drive signal that is output when the rotor does not rotate by the main drive signal in a case where the rotation position of the wheel is the high-load rotation position, characterised in that the timepiece further comprises: a rotation detection control unit that stops a rotation detection process for detecting a rotation state of the rotor based on an induced voltage output to a coil that generates magnetic flux for rotating the rotor in a case where the rotation position of the wheel is the high-load rotation position. a high-load rotation position detection unit that detects a high-load rotation position that is a rotation position of a wheel when a rotational load of a rotor that transmits its rotation to the wheel to rotate a pointer clockwise is greater than that during normal hand movement; and a drive signal output unit that outputs a sub-drive signal having energy greater than that of a main drive signal that is output during the normal hand movement and less than that of an auxiliary drive signal that is output when the rotor does not rotate by the main drive signal in a case where the rotation position of the wheel is the high-load rotation position, characterised in that the timepiece further comprises: a rotation detection control unit that stops a rotation detection process for detecting a rotation state of the rotor based on an induced voltage output to a coil that generates magnetic flux for rotating the rotor in a case where the rotation position of the wheel is the high-load rotation position.
Gas distribution assembly suitable for being mounted in a gas cooking appliance, comprising a gas distribution duct suitable for being connected to a gas connection, at least one gas regulating valve mounted on said gas distribution duct , a support associated with said gas regulating valve which is supported on the gas distribution duct , and attachment means for attaching an attachment area (A) of each gas regulating valve to an attachment area (B) of the respective support , the attachment means comprising at least one screw , one of the attachment areas (A, B) comprising a through hole which the screw goes through, the other attachment area (A, B) comprising a threaded hole and the end of the screw being screwed into said threaded hole , characterized in that the attachment means comprise a sleeve with an inner threaded section , the screw being screwed in the inner threaded section of the sleeve , the screw with the incorporated sleeve being introduced through the through hole , the sleeve being arranged between the through hole and the threaded hole , and the sleeve comprising stop means that comprise a flange which is supported on the contour of the through hole , with the flange acting as the head of the screw .
A process for reducing the hydrophobic functional group-containing volatile organic compound content and hydrophilic volatile organic compound content of recycled polyolefin comprising, in the given order, the steps of: (a) treating recycled polyolefin, which contains hydrophobic functional group-containing volatile organic compounds and hydrophilic volatile organic compounds, with an aqueous solution A of an inorganic oxoacid, wherein said aqueous solution A has a pH-value of 2.0 or lower, (b) removing aqueous solution A of step (a) from the recycled polyolefin, (c) treating the recycled polyolefin of step (b) with an aqueous solution B having a pH-value of 7.0 or higher, (d) removing aqueous solution B of step (c) from the recycled polyolefin, (e) optionally drying, extruding and/or aerating the recycled polyolefin, thereby obtaining a recycled polyolefin with reduced content of hydrophobic functional group-containing volatile organic compounds and hydrophilic volatile organic compounds, wherein volatile organic compounds are defined as organic compounds having an initial boiling point (b.p.) of less than or equal to 250 °C when measured at a standard atmospheric pressure of 101.3 kPa, hydrophobic compounds are defined as those compounds having a logP (octanol/water) value of greater than 1.0, and hydrophilic compounds are defined as those compounds having a logP (octanol/water) value of lower than or equal to 1.0. (a) treating recycled polyolefin, which contains hydrophobic functional group-containing volatile organic compounds and hydrophilic volatile organic compounds, with an aqueous solution A of an inorganic oxoacid, wherein said aqueous solution A has a pH-value of 2.0 or lower, (b) removing aqueous solution A of step (a) from the recycled polyolefin, (c) treating the recycled polyolefin of step (b) with an aqueous solution B having a pH-value of 7.0 or higher, (d) removing aqueous solution B of step (c) from the recycled polyolefin, (e) optionally drying, extruding and/or aerating the recycled polyolefin, thereby obtaining a recycled polyolefin with reduced content of hydrophobic functional group-containing volatile organic compounds and hydrophilic volatile organic compounds, wherein volatile organic compounds are defined as organic compounds having an initial boiling point (b.p.) of less than or equal to 250 °C when measured at a standard atmospheric pressure of 101.3 kPa, hydrophobic compounds are defined as those compounds having a logP (octanol/water) value of greater than 1.0, and hydrophilic compounds are defined as those compounds having a logP (octanol/water) value of lower than or equal to 1.0.
A rotational coupling device , comprising: a rotor configured for rotation about a rotational axis ; a brake plate disposed on a first axial side of the rotor ; an armature disposed on a second axial side of the rotor opposite the brake plate ; an electromagnet disposed on a first axial side of the armature opposite the rotor and the brake plate ; a spacer disposed axially between the brake plate and the electromagnet and radially outwardly of the rotor and the armature ; and, means , supported on a radially inner surface of the spacer , for sealing an interface between the armature and the electromagnet and preventing particulates on a second axial side of the armature facing the rotor from travelling to the first axial side of the armature . a rotor configured for rotation about a rotational axis ; a brake plate disposed on a first axial side of the rotor ; an armature disposed on a second axial side of the rotor opposite the brake plate ; an electromagnet disposed on a first axial side of the armature opposite the rotor and the brake plate ; a spacer disposed axially between the brake plate and the electromagnet and radially outwardly of the rotor and the armature ; and, means , supported on a radially inner surface of the spacer , for sealing an interface between the armature and the electromagnet and preventing particulates on a second axial side of the armature facing the rotor from travelling to the first axial side of the armature .
A method for correcting a measured pseudorange obtained by a receiver for satellite navigation, the receiver comprising a delay-lock-loop (DLL) including a DLL filter and a discriminator for calculating a discriminator value D, wherein the measured pseudorange is an estimation of a true pseudorange, the method comprising the steps of : • downconverting an RF signal emitted by a satellite to a baseband or to an IF frequency, to thereby obtain a downconverted signal containing at least a pseudo-random noise (PRN) code representative of the satellite, • sampling the downconverted signal to thereby obtain a discrete-time signal at a given sampling frequency F s , • synchronizing a local replica of the PRN code with the sampled signal on the basis of the discriminator value filtered by the DLL filter , and determining the measured pseudorange cτ r from the synchronized local replica, wherein τ r is the time delay of the synchronized local replica and c is the speed of light, with τ r an estimate of the time delay τ s of the incoming code from the satellite, and with Δτ = τ r - τ s so that the pseudorange error is equal to cΔτ, wherein the receiver is configured to determine a correction term cΔτ b for the pseudorange error wherein the correction term is a periodic function of the measured or the true pseudorange with a period equal to cT s , with T s equal to 1/F s , wherein Δτ b is the value of Δτ for which the discriminator value D is zero, and wherein the method comprises the steps of : - determining cΔτ b at the measured pseudorange, - filtering cΔτ b by a low-pass filter having essentially the same characteristics as the DLL filter , - subtracting the filtered cΔτ b value from cτ r to obtain a corrected pseudorange value. • downconverting an RF signal emitted by a satellite to a baseband or to an IF frequency, to thereby obtain a downconverted signal containing at least a pseudo-random noise (PRN) code representative of the satellite, • sampling the downconverted signal to thereby obtain a discrete-time signal at a given sampling frequency F s , • synchronizing a local replica of the PRN code with the sampled signal on the basis of the discriminator value filtered by the DLL filter , and determining the measured pseudorange cτ r from the synchronized local replica, wherein τ r is the time delay of the synchronized local replica and c is the speed of light, with τ r an estimate of the time delay τ s of the incoming code from the satellite, and with Δτ = τ r - τ s so that the pseudorange error is equal to cΔτ, - determining cΔτ b at the measured pseudorange, - filtering cΔτ b by a low-pass filter having essentially the same characteristics as the DLL filter , - subtracting the filtered cΔτ b value from cτ r to obtain a corrected pseudorange value.
An elevator system in a building having a plurality of levels with a respective plurality of lobbies , including a first level having a first lobby and a second level having a second lobby , the system including a first elevator for transporting a passenger with a first mobile device between the plurality of lobbies , the system comprising a controller that communicates with the first mobile device and responsively controls the first elevator to provide elevator service to the passenger , the controller being configured to render a plurality of determinations including: a first determination that the passenger is seeking to engage a tenant , whom is a building tenant, a second determination to provide directional information between a current location of the passenger and the first lobby , a third determination to assign the first elevator to transport the passenger from the first lobby to the second lobby to engage the tenant , the controller being configured to effect a plurality of transmissions including: a first transmission to the first mobile device to effect the second determination, and a second transmission to the first elevator to effect the third determination; characterized in that : when rendering the second determination the controller communicates with a second mobile device with the tenant to determine a location of the tenant within the building . the system comprising a controller that communicates with the first mobile device and responsively controls the first elevator to provide elevator service to the passenger , the controller being configured to render a plurality of determinations including: a first determination that the passenger is seeking to engage a tenant , whom is a building tenant, a second determination to provide directional information between a current location of the passenger and the first lobby , a third determination to assign the first elevator to transport the passenger from the first lobby to the second lobby to engage the tenant , a first determination that the passenger is seeking to engage a tenant , whom is a building tenant, a second determination to provide directional information between a current location of the passenger and the first lobby , a third determination to assign the first elevator to transport the passenger from the first lobby to the second lobby to engage the tenant , the controller being configured to effect a plurality of transmissions including: a first transmission to the first mobile device to effect the second determination, and a second transmission to the first elevator to effect the third determination; characterized in that : when rendering the second determination the controller communicates with a second mobile device with the tenant to determine a location of the tenant within the building . a first transmission to the first mobile device to effect the second determination, and a second transmission to the first elevator to effect the third determination; characterized in that : when rendering the second determination the controller communicates with a second mobile device with the tenant to determine a location of the tenant within the building .
A method for relay communication, comprising: selecting (S210), by a remote device, a target public land mobile network, PLMN; and selecting (S220), by the remote device, a target relay device based on the target PLMN, wherein the selecting (S210), by the remote device, the target PLMN, comprising: obtaining, by a non-access layer, NAS layer, of the remote device, at least one PLMN available for selection from a proximity-based service, ProSe, layer of the remote device, and selecting, by the NAS layer of the remote device, the target PLMN from the at least one PLMN, and wherein the method further comprises: determining, by the ProSe layer of the remote device, the at least one PLMN based on serving PLMNs of one or more relay devices, PLMNs of a cell of the one or more relay devices, and at least one authorized PLMN of the remote device. selecting (S210), by a remote device, a target public land mobile network, PLMN; and selecting (S220), by the remote device, a target relay device based on the target PLMN, wherein the selecting (S210), by the remote device, the target PLMN, comprising: obtaining, by a non-access layer, NAS layer, of the remote device, at least one PLMN available for selection from a proximity-based service, ProSe, layer of the remote device, and selecting, by the NAS layer of the remote device, the target PLMN from the at least one PLMN, and wherein the method further comprises: determining, by the ProSe layer of the remote device, the at least one PLMN based on serving PLMNs of one or more relay devices, PLMNs of a cell of the one or more relay devices, and at least one authorized PLMN of the remote device. obtaining, by a non-access layer, NAS layer, of the remote device, at least one PLMN available for selection from a proximity-based service, ProSe, layer of the remote device, and selecting, by the NAS layer of the remote device, the target PLMN from the at least one PLMN, and wherein the method further comprises: determining, by the ProSe layer of the remote device, the at least one PLMN based on serving PLMNs of one or more relay devices, PLMNs of a cell of the one or more relay devices, and at least one authorized PLMN of the remote device.
A method of calculating an envelope amplitude in a fill level measurement by a level sensor, the method comprising the steps of: forming a bandpass-filtered intermediate frequency signal from a received signal of the level sensor; sampling at least a portion of the intermediate frequency signal at discrete points in time; converting the samples of the sampled intermediate frequency signal to digital samples; calculating a new value for a first digital sample of the digital samples by rotating the phase of the sample of the sampled portion of the intermediate frequency signal by a predetermined angle; calculating the envelope amplitude from the first digital sample and the new value calculated by rotating the phase. forming a bandpass-filtered intermediate frequency signal from a received signal of the level sensor; sampling at least a portion of the intermediate frequency signal at discrete points in time; converting the samples of the sampled intermediate frequency signal to digital samples; calculating a new value for a first digital sample of the digital samples by rotating the phase of the sample of the sampled portion of the intermediate frequency signal by a predetermined angle; calculating the envelope amplitude from the first digital sample and the new value calculated by rotating the phase.
A method for encapsulating a material comprising the steps of: (a1) providing an aqueous solution or suspension of the material that is to be encapsulated, (b1) warming the aqueous solution or suspension to a temperature that is sufficient to enable dissolution of a first biocompatible polymer in the aqueous solution or suspension without adversely affecting the properties of the material to be encapsulated, (c1) dissolving the first biocompatible polymer in the aqueous solution or suspension, or (a2) providing an aqueous solution or suspension of a first biocompatible polymer, (b2) warming the aqueous solution or suspension of first biocompatible polymer to a temperature that is sufficient to enable dissolution or suspension, in the aqueous solution, of the material to be encapsulated without adversely affecting the properties of said material, (c2) dissolving or suspending the material to be encapsulated in the aqueous solution or suspension, and (d) de-aerating the solution or suspension obtained in step (c1) or (c2), (e) emulsifying the solution or suspension obtained in (d) in a biocompatible oil comprising a surfactant to create microdroplets, (f) hardening the microdroplets by dropwise addition of an aqueous solution comprising Zn 2+ ions and a second biocompatible polymer to the emulsion obtained in (e) to form microcapsules, characterised in that the first biocompatible polymer is an alginate and the second biocompatible polymer is chitosan. (a1) providing an aqueous solution or suspension of the material that is to be encapsulated, (b1) warming the aqueous solution or suspension to a temperature that is sufficient to enable dissolution of a first biocompatible polymer in the aqueous solution or suspension without adversely affecting the properties of the material to be encapsulated, (c1) dissolving the first biocompatible polymer in the aqueous solution or suspension, or (a2) providing an aqueous solution or suspension of a first biocompatible polymer, (b2) warming the aqueous solution or suspension of first biocompatible polymer to a temperature that is sufficient to enable dissolution or suspension, in the aqueous solution, of the material to be encapsulated without adversely affecting the properties of said material, (c2) dissolving or suspending the material to be encapsulated in the aqueous solution or suspension, and (d) de-aerating the solution or suspension obtained in step (c1) or (c2), (e) emulsifying the solution or suspension obtained in (d) in a biocompatible oil comprising a surfactant to create microdroplets, (f) hardening the microdroplets by dropwise addition of an aqueous solution comprising Zn 2+ ions and a second biocompatible polymer to the emulsion obtained in (e) to form microcapsules, characterised in that the first biocompatible polymer is an alginate and the second biocompatible polymer is chitosan.
A fuel system for an aircraft , the fuel system comprising: a fuel tank ; a valve ; a valve actuator with a control input , wherein the valve actuator is configured to open the valve in response to command signals on the control input , and the valve is configured so that opening of the valve ventilates the fuel tank causing fuel vapour to be released from the fuel tank via the valve ; a control system coupled to the control input , wherein the control system is configured to generate command signals and apply the command signals to the control input; and a control-parameter system configured to obtain one or more control-parameters, wherein the control system comprises an automated control system which is coupled to the control-parameter system , and the automated control system is configured to automatically generate the command signals on a basis of the one or more control-parameters, and characterised in that the one or more control-parameters comprise: a. a control-parameter indicative of an environmental condition local to the fuel tank, wherein the environmental condition is an air composition, or b. a control-parameter indicative of a location of the aircraft compared with a geographical database of: population density, air quality, or local regulations, or c. a control-parameter indicative of future route planning of the aircraft , or d. a control-parameter indicative of whether fuel vapour emissions from the fuel system have exceeded or will exceed a threshold. a. a control-parameter indicative of an environmental condition local to the fuel tank, wherein the environmental condition is an air composition, or b. a control-parameter indicative of a location of the aircraft compared with a geographical database of: population density, air quality, or local regulations, or c. a control-parameter indicative of future route planning of the aircraft , or d. a control-parameter indicative of whether fuel vapour emissions from the fuel system have exceeded or will exceed a threshold.