mhurhangee/ep-ind-claims huggingface dataset:
A quick coupling furniture hinge for a quick arrangement of a door of a furniture element onto a base furniture element, wherein the hinge comprises a hinge pot arrangeable in the furniture door and a hinge arm pivotably fastened thereon; the hinge arm being provided with a mounting element fixed in the hinge arm, via which mounting element the hinge arm is fastened to a base mounting panel of the hinge that is fixable on the base furniture element, the mounting element comprising at each of its ends a pivotable assembly (8,9), both assemblies co-operating independently from each other with the base mounting panel, whereby the pivotable assembly disposed at the end close to the turning point of the hinge arm comprises a lath and a push spring, characterised in that the lath has a chamfered shape at both ends (17, 17') and is pivotably disposed with each of its ends (17, 17') in cut-outs (18, 18') arranged in side walls of the mounting element, said cut-outs (18, 18') being shaped as upside-down triangles, the push spring being U-shaped and fastened in each side wall of the mounting element and pushing said pivotable lath to a final locked position, whereby the lath is being pivoted due to the push spring.
A method, performed by a source network node operative in a wireless communication network, of transferring service of a terminal to a target network node, wherein the source network node has a Quality of Experience, QoE, Measurement configured for the terminal by a first Measurement Initiating node, characterized by: in response to a pending transfer of service of the terminal from the source network node to a target network node, sending QoE Measurement parameters related to the QoE Measurement to the target network node; receiving from the target network node, feedback indicating whether the QoE Measurement will be continued or terminated; and notifying the first Measurement Initiating node whether the QoE Measurement will be continued by the terminal or terminated following the transfer of servicing the terminal from the source to the target network node. in response to a pending transfer of service of the terminal from the source network node to a target network node, sending QoE Measurement parameters related to the QoE Measurement to the target network node; receiving from the target network node, feedback indicating whether the QoE Measurement will be continued or terminated; and notifying the first Measurement Initiating node whether the QoE Measurement will be continued by the terminal or terminated following the transfer of servicing the terminal from the source to the target network node.
Electronic smoking device comprising: a flow channel comprising an incoming airflow opening, an incoming airflow pathway, a sensor assembly, and an outgoing airflow opening; wherein the flow channel is configured to direct an airflow from the incoming airflow opening, through the incoming airflow pathway, over the sensor assembly, and through the outgoing airflow opening, wherein the flow channel is sized and configured to create a laminar flow of air in the incoming airflow pathway before the airflow reaches the sensor assembly, and wherein the sensor assembly comprises a support structure and a sensor, characterized in that the sensor is coupled directly to the support structure, and the sensor assembly further comprises a first layer and a second layer coupled to the support structure, the first layer being arranged between the support structure and the second layer, wherein the first layer and the second layer create an upper surface, and wherein the upper surface comprises a height above the support structure similar to a height of the sensor, the height of the sensor extending above the support structure. a flow channel comprising an incoming airflow opening, an incoming airflow pathway, a sensor assembly, and an outgoing airflow opening; wherein the flow channel is configured to direct an airflow from the incoming airflow opening, through the incoming airflow pathway, over the sensor assembly, and through the outgoing airflow opening, wherein the flow channel is sized and configured to create a laminar flow of air in the incoming airflow pathway before the airflow reaches the sensor assembly, and wherein the sensor assembly comprises a support structure and a sensor, characterized in that the sensor is coupled directly to the support structure, and the sensor assembly further comprises a first layer and a second layer coupled to the support structure, the first layer being arranged between the support structure and the second layer, wherein the first layer and the second layer create an upper surface, and wherein the upper surface comprises a height above the support structure similar to a height of the sensor, the height of the sensor extending above the support structure.
Method for operating a self-locking or self-conducting power semiconductor element, wherein - a threshold voltage change of a threshold voltage of the power semiconductor element is determined compared with a reference threshold voltage and - a switch-on gate voltage (V on), which is applied between a gate terminal and a source terminal of the power semiconductor element in order to switch on the power semiconductor element, is changed by the threshold voltage change compared with a reference switch-on gate voltage which corresponds to the reference threshold voltage, characterised in that in order to determine the threshold voltage change, a test drain source voltage (V Test) is measured, which occurs with a test switch-off gate voltage and a test return current between a drain terminal of the power semiconductor element and the source terminal, and as a threshold voltage change a deviation in the test drain source voltage (V Test) from a reference drain source voltage is determined, which occurs with the test switch-off gate voltage and the test return current between the drain terminal and the source terminal, if the threshold voltage of the power semiconductor element agrees with the reference threshold voltage. - a threshold voltage change of a threshold voltage of the power semiconductor element is determined compared with a reference threshold voltage and - a switch-on gate voltage (V on), which is applied between a gate terminal and a source terminal of the power semiconductor element in order to switch on the power semiconductor element, is changed by the threshold voltage change compared with a reference switch-on gate voltage which corresponds to the reference threshold voltage,
A method for manufacturing a three-dimensional object, the method characterized by comprising steps of: a) providing a digital description of the object as a set of voxels; b) sequentially creating an actual set of voxels corresponding to the digital set of voxels; wherein at least one voxel comprises a composition comprising between 20 and 100 wt. % of a polymer selected from the group consisting of nonionic PEG homopolymers, PEG copolymers, and mixtures thereof; the polymer having an average molecular weight of between 1,000 and 95,000 AMU, as determined by gel permeation chromatography with multi-angle light scattering and refractive index detectors, and between 0 and 65 wt. % of a filler, wherein the filler is a solid at a temperature of greater than 75 C, wherein the composition has a Melt Flow Index of between 0.1 and 50 g/10 min when measured at 70 C under a 1.2 kg load using a half-die according to ASTM D1238-13. a) providing a digital description of the object as a set of voxels; b) sequentially creating an actual set of voxels corresponding to the digital set of voxels; wherein at least one voxel comprises a composition comprising between 20 and 100 wt. % of a polymer selected from the group consisting of nonionic PEG homopolymers, PEG copolymers, and mixtures thereof; the polymer having an average molecular weight of between 1,000 and 95,000 AMU, as determined by gel permeation chromatography with multi-angle light scattering and refractive index detectors, and between 0 and 65 wt. % of a filler, wherein the filler is a solid at a temperature of greater than 75 C, wherein the composition has a Melt Flow Index of between 0.1 and 50 g/10 min when measured at 70 C under a 1.2 kg load using a half-die according to ASTM D1238-13.
A composition comprising: a) bifenthrin; b) at least one plant growth promoter selected from the group consisting of lipo-chitooligosaccharides and formononetin; c) attapulgite; and d) a dispersant consisting of a lignosulfonate, tridecyl alcohol ethoxylated phosphate potassium salt and an alkylpolyglycoside. a) bifenthrin; b) at least one plant growth promoter selected from the group consisting of lipo-chitooligosaccharides and formononetin; c) attapulgite; and d) a dispersant consisting of a lignosulfonate, tridecyl alcohol ethoxylated phosphate potassium salt and an alkylpolyglycoside.
A method for managing a connectivity object for a mobile device (200; 320, 330), comprising: obtaining a tree structure that includes connectivity parameters associated with the mobile device as part of the tree structure, wherein the connectivity object is a proxy object, and wherein the tree structure includes a WAP subtree defined under the proxy object; and sending at least a portion of the tree structure to the mobile device; wherein updates to the connectivity parameters within the tree structure are made by sending to the mobile device just the affected portion of the tree structure. obtaining a tree structure that includes connectivity parameters associated with the mobile device as part of the tree structure, wherein the connectivity object is a proxy object, and wherein the tree structure includes a WAP subtree defined under the proxy object; and sending at least a portion of the tree structure to the mobile device; wherein updates to the connectivity parameters within the tree structure are made by sending to the mobile device just the affected portion of the tree structure.
Method for identifying a leak in a compressed air system of a vehicle, in which leak-induced pressure changes are determined using sensor means arranged in the region between an inlet non-return valve of a system-input-side compressed air line and a working pressure accumulator, frequency changes in a measurement signal generated by the sensor means being determined as a measure of a leak in the compressed air system by means of an electronic evaluation unit, which frequency changes are used to generate a leak message, characterized in that the identification of a leak by means of the electronic evaluation unit is suspended as long as the consumption of air is in a defined normal range, which is signaled to the electronic evaluation unit by means of a vehicle communication system.
Method for verifying an association between a user device and a group of user devices sharing a common subscription, said user device being adapted to communicate with a specific service provider using signalling messages sent through the Internet, comprising: - intercepting the signalling messages sent from the user device to the specific service provider; - deriving an involved service provider from an incoming message; - verifying whether this service provider is on a list of service providers; - only if the service provider is on said list, adapting each signalling message with information to include a guarantee to the service provider that the message is sent from a location allowed by the common subscription; and sending each adapted signalling message through the Internet to the specific service provider. - intercepting the signalling messages sent from the user device to the specific service provider; - deriving an involved service provider from an incoming message; - verifying whether this service provider is on a list of service providers; - only if the service provider is on said list, adapting each signalling message with information to include a guarantee to the service provider that the message is sent from a location allowed by the common subscription; and sending each adapted signalling message through the Internet to the specific service provider.
A trigger apparatus for a powered device, such as a power tool, the powered device comprising a trigger operable (200; 1200) by a user to move from a first position to at least one second position (P2-1... P2-N) so as to control an operation of the powered device, the trigger apparatus comprising: a linear Hall effect sensor for measuring a change in a magnetic field associated with the trigger being moved from the first position to the at least one second position, and configured to generate a sensor signal for controlling the operation of the powered device based on the change in the magnetic field; a power module configured to power, the linear Hall effect sensor, upon reception of an activation signal for indicating that the trigger apparatus is to be activated; an activation switch configured to generate the activation signal, when the trigger is moved from the first position, wherein the activation switch is a microswitch; and a controller configured to receive the sensor signal and for generating one or more control signals (C1; C2; C3) to control the operation of the powered device, wherein the power module is configured to power the controller upon reception of the activation signal, and wherein the controller is configured to generate a second activation signal for causing the power module to continue to power the controller for a specific duration. a linear Hall effect sensor for measuring a change in a magnetic field associated with the trigger being moved from the first position to the at least one second position, and configured to generate a sensor signal for controlling the operation of the powered device based on the change in the magnetic field; a power module configured to power, the linear Hall effect sensor, upon reception of an activation signal for indicating that the trigger apparatus is to be activated; an activation switch configured to generate the activation signal, when the trigger is moved from the first position, wherein the activation switch is a microswitch; and a controller configured to receive the sensor signal and for generating one or more control signals (C1; C2; C3) to control the operation of the powered device, wherein the power module is configured to power the controller upon reception of the activation signal, and wherein the controller is configured to generate a second activation signal for causing the power module to continue to power the controller for a specific duration.
Valve actuating device comprising: - a body with a bore (22 1) and a bottom (22 2); - an actuating element sealingly housed in the bore (22 1) of the body and forming a first chamber with the bottom (22 2) of the body; - a piston with a portion (26 1) sealingly extending through a bore (24 1) in the actuating element, said portion (26 1) and bore (24 1) delimiting a second actuating chamber; - an auxiliary fluid in the first and second chambers (25, 27); - an auxiliary fluid passage between the first and second chambers (25, 27) so that a movement of the piston in the bore (24 1) of the actuating element can increase the pressure in the first chamber and move the actuating element; characterized in that the fluid passage between the first and second chambers (25, 27) comprises a restriction and a check-valve, both arranged in parallel, so as to limit the flow of the auxiliary fluid from the second chamber to the first chamber. - a body with a bore (22 1) and a bottom (22 2); - an actuating element sealingly housed in the bore (22 1) of the body and forming a first chamber with the bottom (22 2) of the body; - a piston with a portion (26 1) sealingly extending through a bore (24 1) in the actuating element, said portion (26 1) and bore (24 1) delimiting a second actuating chamber; - an auxiliary fluid in the first and second chambers (25, 27); - an auxiliary fluid passage between the first and second chambers (25, 27) so that a movement of the piston in the bore (24 1) of the actuating element can increase the pressure in the first chamber and move the actuating element;
A method of communicating, which comprises: generating a coded orthogonal frequency division multiplexed signal communications signal as a plurality of subcarriers by modulating communications data, inserting pilot and Peak-to-Average Power Ratio carriers and mapping carriers to an Inverse Fast Fourier Transform in a matrix operation; and turning ON and OFF selected subcarriers while also frequency hopping and spreading the selected ON subcarriers over the frequency domain based on a desired fixed or variable sample rate, applying a spreading function followed by an Inverse Fast Fourier Transform to spread the subcarriers over the frequency domain; converting the signal from digital to analog; removing spectral lines through a Bandwidth Adjust DAC Sample Rate circuit; subjecting the signal to a pseudo-random frequency hopping algorithm operative as a frequency-up converter. generating a coded orthogonal frequency division multiplexed signal communications signal as a plurality of subcarriers by modulating communications data, inserting pilot and Peak-to-Average Power Ratio carriers and mapping carriers to an Inverse Fast Fourier Transform in a matrix operation; and turning ON and OFF selected subcarriers while also frequency hopping and spreading the selected ON subcarriers over the frequency domain based on a desired fixed or variable sample rate, applying a spreading function followed by an Inverse Fast Fourier Transform to spread the subcarriers over the frequency domain; converting the signal from digital to analog; removing spectral lines through a Bandwidth Adjust DAC Sample Rate circuit; subjecting the signal to a pseudo-random frequency hopping algorithm operative as a frequency-up converter.
LED lamp potting method comprising the steps of: - introducing a configured lamp to be potted using an optically transparent potting compound into an at least partly optically transparent potting mould, wherein the potting mould is arranged in a vacuum chamber and the lamp is secured in the potting mould such that the lamp does not touch the walls of the potting mould; - introducing an optically transparent potting compound into the potting mould until at least the lamp is enclosed; - detecting a quantity and quality of the absence of bubbles in the optically transparent potting compound by means of an optical sensor or image detector, wherein - the pressure in the vacuum chamber is controlled to influence the bubbles and/or - a pivoting/tilting device for moving either the vacuum chamber and the potting mould or the potting mould is controlled to expel detected gas/air bubbles from the optically transparent potting compound. - introducing a configured lamp to be potted using an optically transparent potting compound into an at least partly optically transparent potting mould, wherein the potting mould is arranged in a vacuum chamber and the lamp is secured in the potting mould such that the lamp does not touch the walls of the potting mould; - introducing an optically transparent potting compound into the potting mould until at least the lamp is enclosed; - detecting a quantity and quality of the absence of bubbles in the optically transparent potting compound by means of an optical sensor or image detector, wherein - the pressure in the vacuum chamber is controlled to influence the bubbles and/or - a pivoting/tilting device for moving either the vacuum chamber and the potting mould or the potting mould is controlled to expel detected gas/air bubbles from the optically transparent potting compound.
A method for producing a non-planar microelectronic component, especially a concave component, involving: ▪ superposing a layer that contains an active flexible circuit (16, 20, 24) above a cavity shaped according to the desired profile of said component, said cavity being formed in substrate; and ▪ applying a pressure difference either side of said layer thereby causing slumping of the flexible circuit (16, 20, 24) into the cavity therefore causing the circuit to assume the shape of the cavity; characterized in that superposition of the flexible circuit (16, 20, 24) and the cavity is realized: ▪ by filling said cavity with a material capable of being selectively removed relative to substrate and flexible circuit (16, 20, 24); ▪ then fitting or forming flexible circuit (16, 20, 24) on cavity thus filled; ▪ then forming at least one feedthrough to access the filled cavity; and ▪ by selectively etching the material that fills cavity through at least one feedthrough in order to remove said material. ▪ superposing a layer that contains an active flexible circuit (16, 20, 24) above a cavity shaped according to the desired profile of said component, said cavity being formed in substrate; and ▪ applying a pressure difference either side of said layer thereby causing slumping of the flexible circuit (16, 20, 24) into the cavity therefore causing the circuit to assume the shape of the cavity; ▪ by filling said cavity with a material capable of being selectively removed relative to substrate and flexible circuit (16, 20, 24); ▪ then fitting or forming flexible circuit (16, 20, 24) on cavity thus filled; ▪ then forming at least one feedthrough to access the filled cavity; and ▪ by selectively etching the material that fills cavity through at least one feedthrough in order to remove said material.
A terminal apparatus for communicating with a first base station apparatus and a second base station apparatus, the terminal apparatus comprising: a receiver unit (111-1, 111-2) configured to receive, from the first base station apparatus, data control information related to data transmission and reception of the terminal apparatus and instruction information indicating a destination of data transmission to a base station apparatus; and a determination unit configured to determine, based on the instruction information, the second base station apparatus, as a data transmission destination, for data to which bearer split is configured by the data control information, wherein the bearer split is related to two or more RLC layers corresponding to a certain radio bearer. a receiver unit (111-1, 111-2) configured to receive, from the first base station apparatus, data control information related to data transmission and reception of the terminal apparatus and instruction information indicating a destination of data transmission to a base station apparatus; and a determination unit configured to determine, based on the instruction information, the second base station apparatus, as a data transmission destination, for data to which bearer split is configured by the data control information, wherein the bearer split is related to two or more RLC layers corresponding to a certain radio bearer.