mhurhangee/patent-ind-claim-en huggingface dataset:
Capacitive sensor comprising a sensor electrode , the sensor electrode being connected to a signal generation circuit for generating an output signal to the sensor electrode and the sensor electrode further being connected to a signal evaluation circuit configured to evaluate an input signal from the sensor electrode , the signal generation circuit comprising a signal generator being one of a noise generator, a pseudo-noise generator, a chirp signal generator or a frequency sweep signal generator, the signal evaluation circuit comprising a synchronous rectifier , the synchronous rectifier comprising a first switch , and a second switch , wherein the first switch and the second switch are connected to the signal generator and configured for alternating switching in phase with the input signal, wherein the signal generation circuit and the signal evaluation circuit both refer to a circuit ground . the signal generation circuit comprising a signal generator being one of a noise generator, a pseudo-noise generator, a chirp signal generator or a frequency sweep signal generator, the signal evaluation circuit comprising a synchronous rectifier , the synchronous rectifier comprising a first switch , and a second switch , wherein the first switch and the second switch are connected to the signal generator and configured for alternating switching in phase with the input signal, wherein the signal generation circuit and the signal evaluation circuit both refer to a circuit ground .
A thermal contact device comprising: a thermal contact die embedded in a moldable plastic material , the thermal contact die comprising: a number of resistors integrated into the thermal contact die ; and a number of heater drivers integrated into the thermal contact die and electronically coupled to the resistors , wherein the heating drivers are integrated circuits, wherein the moldable plastic material is coplanar with a thermal contact side of the thermal contact device wherein the moldable material comprises at least one gradient edge along a medium feed path. a thermal contact die embedded in a moldable plastic material , the thermal contact die comprising: a number of resistors integrated into the thermal contact die ; and a number of heater drivers integrated into the thermal contact die and electronically coupled to the resistors , wherein the heating drivers are integrated circuits, a number of resistors integrated into the thermal contact die ; and a number of heater drivers integrated into the thermal contact die and electronically coupled to the resistors , wherein the heating drivers are integrated circuits, wherein the moldable plastic material is coplanar with a thermal contact side of the thermal contact device wherein the moldable material comprises at least one gradient edge along a medium feed path.
A method of providing virtualized credential information, comprising: determining whether a relying party device has access to a network/cloud infrastructure that contains the virtualized credential information; a license holder device providing at least some of the virtualized credential information directly to the relying party device in response to the relying party device not having access to the network/cloud infrastructure , wherein how much and which of the virtualized credential data provided by the license holder device directly to the relying party device is negotiated between the relying party device and the license holder device ; and displaying at least a subset of the at least some of the virtualized credential data on a screen of the device of the relying party . determining whether a relying party device has access to a network/cloud infrastructure that contains the virtualized credential information; a license holder device providing at least some of the virtualized credential information directly to the relying party device in response to the relying party device not having access to the network/cloud infrastructure , wherein how much and which of the virtualized credential data provided by the license holder device directly to the relying party device is negotiated between the relying party device and the license holder device ; and displaying at least a subset of the at least some of the virtualized credential data on a screen of the device of the relying party .
A tape comprising: a substrate having an adhesive layer applied thereto, the substrate and the adhesive, together, providing at least one masking edge; and an edge coating applied to the at least one masking edge, the edge coating including a flocculating agent; wherein the flocculating agent is an ionic polymer; and wherein the edge coating further includes a cure additive selected from the group consisting of an acidic acrylate oligomer, ethylene glycol dimethacrylate, hexamethoxy methyl melamine, n-methylol acrylamide, and polyester acrylate oligomer. a substrate having an adhesive layer applied thereto, the substrate and the adhesive, together, providing at least one masking edge; and an edge coating applied to the at least one masking edge, the edge coating including a flocculating agent; wherein the flocculating agent is an ionic polymer; and wherein the edge coating further includes a cure additive selected from the group consisting of an acidic acrylate oligomer, ethylene glycol dimethacrylate, hexamethoxy methyl melamine, n-methylol acrylamide, and polyester acrylate oligomer.
A computer-implemented method comprising: receiving, from a requesting device , a request to provide a video, the request including an indication that at least a proper subset of the video is to be enhanced using at least one machine learning model; ascertaining downstream bandwidth to the requesting device; determining that at least the proper subset of the video is to be enhanced based at least in part on the ascertained bandwidth; selecting at least one machine learning model to be used to enhance at least the proper subset of the video, wherein selecting comprises determining that the ascertained bandwidth supports enhancement using the at least one machine learning model; enhancing at least the proper subset of the video using the selected at least one machine learning model; and outputting the video including the at least proper subset of the video that had been enhanced. receiving, from a requesting device , a request to provide a video, the request including an indication that at least a proper subset of the video is to be enhanced using at least one machine learning model; ascertaining downstream bandwidth to the requesting device; determining that at least the proper subset of the video is to be enhanced based at least in part on the ascertained bandwidth; selecting at least one machine learning model to be used to enhance at least the proper subset of the video, wherein selecting comprises determining that the ascertained bandwidth supports enhancement using the at least one machine learning model; enhancing at least the proper subset of the video using the selected at least one machine learning model; and outputting the video including the at least proper subset of the video that had been enhanced.
Retracting device for retracting a hose , the device comprising: - a frame; - at least one drive roller connected to the frame for driving the hose for retraction; - a first and a second pressing element operatively connected to the at least one drive roller and suitable for pulling the hose upward in co-action with the at least one drive roller; and - an activating element operatively connected to the two pressing elements, characterized in that the actuating element is suitable for activating the pressing elements such that no more than one pressing element presses against the drive roller, wherein the device further comprises displacing means configured for enabling relative movement between the drive roller and the pressing elements. - a frame; - at least one drive roller connected to the frame for driving the hose for retraction; - a first and a second pressing element operatively connected to the at least one drive roller and suitable for pulling the hose upward in co-action with the at least one drive roller; and - an activating element operatively connected to the two pressing elements, characterized in that the actuating element is suitable for activating the pressing elements such that no more than one pressing element presses against the drive roller, wherein the device further comprises displacing means configured for enabling relative movement between the drive roller and the pressing elements.
A method at a network element comprising: generating and maintaining, in a memory of the network element, a location profile of a target mobile device based on location information provided by the target mobile device at the same time period within each of a plurality of time cycles, and received by the network element using a communication subsystem of the network element, wherein the location profile is generated by computing, using a processor of the network element, an average and a standard deviation of the location for each time period within the time cycle during a learning phase and wherein the learning phase is continued until the standard deviation calculated for each time period within a cycle is less than a threshold, the location profile including an expected location and an error range for each time period of the received location information; receiving , using the communication subsystem, a current location of the target mobile device ; comparing the current location of the target mobile device with the location profile; and providing , using the communication subsystem, a notification to an observer device if the current location of the target mobile device deviates from the location profile, the notification including a deviation distance value. generating and maintaining, in a memory of the network element, a location profile of a target mobile device based on location information provided by the target mobile device at the same time period within each of a plurality of time cycles, and received by the network element using a communication subsystem of the network element, wherein the location profile is generated by computing, using a processor of the network element, an average and a standard deviation of the location for each time period within the time cycle during a learning phase and wherein the learning phase is continued until the standard deviation calculated for each time period within a cycle is less than a threshold, the location profile including an expected location and an error range for each time period of the received location information; receiving , using the communication subsystem, a current location of the target mobile device ; comparing the current location of the target mobile device with the location profile; and providing , using the communication subsystem, a notification to an observer device if the current location of the target mobile device deviates from the location profile, the notification including a deviation distance value.
Imaging optics for material machining by means of laser radiation, consisting of: a collimator optics for collimating a divergent working laser beam and a focusing optics for focusing a working laser beam on a workpiece to be machined, characterised in that the collimating optics comprises a first movable lens or lens group with positive focal length for imaging a working laser beam source in a virtual intermediate focal point and a second movable lens or lens group with negative focal length for imaging the virtual intermediate focal point to infinity, and wherein only the first lens or lens group and the second lens or lens group are movable. a collimator optics for collimating a divergent working laser beam and a focusing optics for focusing a working laser beam on a workpiece to be machined, characterised in that the collimating optics comprises a first movable lens or lens group with positive focal length for imaging a working laser beam source in a virtual intermediate focal point and a second movable lens or lens group with negative focal length for imaging the virtual intermediate focal point to infinity, and wherein only the first lens or lens group and the second lens or lens group are movable.
A marine diesel cylinder lubricating oil composition comprising: (a) at least 40 wt. % of an oil of lubricating viscosity, based on the total weight of the marine diesel cylinder lubricating oil composition; and (b) from 0.01 to 10 wt. % of a phenol-based detergent, based on the total weight of the marine diesel cylinder lubricating oil composition, wherein the phenol-based detergent is an alkaline earth metal phenol-based detergent; wherein the marine diesel cylinder lubricating oil composition has a BN of from 155 to 210 mg KOH/g in accordance with ASTM Standard No. D2896, and further wherein the marine diesel cylinder lubricating oil composition comprises less than 1.65 wt. % of unsulfurized tetrapropenyl phenol and its unsulfurized metal salt. (a) at least 40 wt. % of an oil of lubricating viscosity, based on the total weight of the marine diesel cylinder lubricating oil composition; and (b) from 0.01 to 10 wt. % of a phenol-based detergent, based on the total weight of the marine diesel cylinder lubricating oil composition, wherein the phenol-based detergent is an alkaline earth metal phenol-based detergent;
A remanufacturing method of a used developer accommodating unit including a frame member , and a flexible container configured to accommodate developer and provided with a plurality of openings for discharging the developer into the frame member , the frame member being configured to accommodate the flexible container, the remanufacturing method being characterized by : refilling developer into the flexible container accommodated inside the frame member .
A sub-sampling phase-locked loop comprising a digital-to-time converter , a sampler module , an interpolator , and an oscillator ; wherein the digital-to-time converter is configured to provide a first delay signal S DLY1 at a first point in time t 1 and a second delay signal S DLY2 at a second point in time t 2 to the sampler module , wherein the first point in time t 1 is before a first ideal sampling instant for an oscillator output signal S OUT and the second point in time t 2 is after a second ideal sampling instant for the oscillator output signal S OUT ; wherein the sampler module is configured to provide a first sample S 1 of the oscillator output signal S OUT at the first point in time t 1 based on the first delay signal S DLY1 and a second sample S 2 of the oscillator output signal S OUT at the second point in time t 2 based on the second delay signal S DLY2 , wherein the interpolator is configured to provide a sampler signal S SAMPL by interpolating the first sample S 1 and the second sample S 2 , wherein the voltage controlled oscillator is configured to control the oscillator output signal S OUT based on the sampler signal S SAMPL , and provide the oscillator output signal S OUT to the sampler module . wherein the digital-to-time converter is configured to provide a first delay signal S DLY1 at a first point in time t 1 and a second delay signal S DLY2 at a second point in time t 2 to the sampler module , wherein the first point in time t 1 is before a first ideal sampling instant for an oscillator output signal S OUT and the second point in time t 2 is after a second ideal sampling instant for the oscillator output signal S OUT ; wherein the sampler module is configured to provide a first sample S 1 of the oscillator output signal S OUT at the first point in time t 1 based on the first delay signal S DLY1 and a second sample S 2 of the oscillator output signal S OUT at the second point in time t 2 based on the second delay signal S DLY2 , wherein the interpolator is configured to provide a sampler signal S SAMPL by interpolating the first sample S 1 and the second sample S 2 , wherein the voltage controlled oscillator is configured to control the oscillator output signal S OUT based on the sampler signal S SAMPL , and provide the oscillator output signal S OUT to the sampler module .
An optically clear adhesive sheet comprising: a cured product of a thermosetting polyurethane composition, which is a non-acrylic-modified cured product, the thermosetting polyurethane composition containing an olefin-based polyol component, a polyisocyanate component and a polyethylene oxide unit, the ethylene oxide unit content being 0.1 wt% or more and 5 wt% or less of the whole thermosetting polyurethane composition, the optically clear adhesive sheet exhibiting a moisture absorption of 1.0 wt% or lower after being subjected to a test in a high-temperature, high-humidity environment for eight hours and exhibiting a haze of 1.5% or lower after being subjected to the test in a high-temperature, high-humidity environment for 100 hours, wherein the test in a high-temperature, high-humidity environment is performed at a temperature of 85°C and a humidity of 85%. a cured product of a thermosetting polyurethane composition, which is a non-acrylic-modified cured product, the thermosetting polyurethane composition containing an olefin-based polyol component, a polyisocyanate component and a polyethylene oxide unit, the ethylene oxide unit content being 0.1 wt% or more and 5 wt% or less of the whole thermosetting polyurethane composition, the optically clear adhesive sheet exhibiting a moisture absorption of 1.0 wt% or lower after being subjected to a test in a high-temperature, high-humidity environment for eight hours and exhibiting a haze of 1.5% or lower after being subjected to the test in a high-temperature, high-humidity environment for 100 hours, wherein the test in a high-temperature, high-humidity environment is performed at a temperature of 85°C and a humidity of 85%.
An exhaust mixer arrangement configured to be mounted at an exhaust of a gas turbine engine , comprising: an exhaust cone ; a lobed exhaust mixer surrounding at least a portion of the exhaust cone ; a cover mounted to an outer surface of the exhaust cone , the cover and the outer surface of the exhaust cone defining a dead-end cavity therebetween; a stiffener ring ; and a plurality of circumferentially spaced-apart struts interconnecting at least a number of lobes of the lobed exhaust mixer to the stiffener ring , characterised in that : the stiffener ring is disposed in the dead-end cavity ; and the cover comprises an annular cover plate having circumferentially spaced-apart slots defined therein for receiving the plurality of circumferentially spaced-apart struts . an exhaust cone ; a lobed exhaust mixer surrounding at least a portion of the exhaust cone ; a cover mounted to an outer surface of the exhaust cone , the cover and the outer surface of the exhaust cone defining a dead-end cavity therebetween; a stiffener ring ; and a plurality of circumferentially spaced-apart struts interconnecting at least a number of lobes of the lobed exhaust mixer to the stiffener ring , characterised in that : the stiffener ring is disposed in the dead-end cavity ; and the cover comprises an annular cover plate having circumferentially spaced-apart slots defined therein for receiving the plurality of circumferentially spaced-apart struts . the stiffener ring is disposed in the dead-end cavity ; and the cover comprises an annular cover plate having circumferentially spaced-apart slots defined therein for receiving the plurality of circumferentially spaced-apart struts .
Rotor control system for actuating pitch of pitch adjustable rotor blades of a wind turbine comprising a tower , the rotor control system comprises a pitch actuating unit (PAU) for determining a pitch modification signal (θ mod,1,2,3 ) to be applied to a pitch actuator for actuating the pitch of the pitch adjustable rotor blades based on a pitch actuation signal; wherein the pitch modification signal is based on an m-blade coordinate transformation, the m-blade coordinate transformation (T) taking as input a first signal (S1) and a second signal (S2); and wherein the second signal is determined by filtering the first signal with a signal filter with a quadrature phase shift filter phase response. wherein the pitch modification signal is based on an m-blade coordinate transformation, the m-blade coordinate transformation (T) taking as input a first signal (S1) and a second signal (S2); and wherein the second signal is determined by filtering the first signal with a signal filter with a quadrature phase shift filter phase response.
A method, performed by a wireless device , for supporting positioning of the wireless device in a wireless communication network , the wireless device being comprised in the wireless communication network , the method comprising: - receiving , from a first network node , a positioning request, wherein the wireless device is served in the wireless communication network by the first network node when receiving the positioning request, wherein the positioning request requests the wireless device to initiate a multilateration positioning procedure, and wherein the positioning request is sent by a first positioning node associated with the first network node and comprised in the wireless communication network , and in response to the received positioning request, characterised by : - sending to a second network node comprised in the wireless communication network , a positioning access request indicating that the access request relates to a multilateration positioning and requesting the second network node to estimate a Timing Advance, TA, for the wireless device , and - sending , to the second network node , an obtained device identifier and an obtained source identifier, the obtained device identifier identifying the wireless device , and the obtained source identifier identifying the first network node . - receiving , from a first network node , a positioning request, wherein the wireless device is served in the wireless communication network by the first network node when receiving the positioning request, wherein the positioning request requests the wireless device to initiate a multilateration positioning procedure, and wherein the positioning request is sent by a first positioning node associated with the first network node and comprised in the wireless communication network , and in response to the received positioning request, characterised by : - sending to a second network node comprised in the wireless communication network , a positioning access request indicating that the access request relates to a multilateration positioning and requesting the second network node to estimate a Timing Advance, TA, for the wireless device , and - sending , to the second network node , an obtained device identifier and an obtained source identifier, the obtained device identifier identifying the wireless device , and the obtained source identifier identifying the first network node . - sending to a second network node comprised in the wireless communication network , a positioning access request indicating that the access request relates to a multilateration positioning and requesting the second network node to estimate a Timing Advance, TA, for the wireless device , and - sending , to the second network node , an obtained device identifier and an obtained source identifier, the obtained device identifier identifying the wireless device , and the obtained source identifier identifying the first network node .