mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication comprising: transmitting a registration message (305; 355) to a network (130-b-1; 130-b-2) to establish a secure connection based on a mutual authentication and key agreement (315; 365) with the network (130-b-1; 130-b-2)for at least non-access stratum, NAS, messages between the network (130-b-1; 130-b-2) and a wireless device (115-c-1; 115-c-2), the secure connection based at least in part on a wireless device identifier and security capabilities of the wireless device (115-c-1; 115-c-2) included in the registration message (305; 355); transmitting, over the secure connection, an attach request (325; 330; 370) including capabilities of the wireless device not included in the registration message (305; 355) to access the network (130-b-1; 130-b-2) subsequent to the mutual authentication and key agreement (315; 365); and exchanging NAS messages with the network (130-b-1; 130-b-2) over the secure connection. transmitting a registration message (305; 355) to a network (130-b-1; 130-b-2) to establish a secure connection based on a mutual authentication and key agreement (315; 365) with the network (130-b-1; 130-b-2)for at least non-access stratum, NAS, messages between the network (130-b-1; 130-b-2) and a wireless device (115-c-1; 115-c-2), the secure connection based at least in part on a wireless device identifier and security capabilities of the wireless device (115-c-1; 115-c-2) included in the registration message (305; 355); transmitting, over the secure connection, an attach request (325; 330; 370) including capabilities of the wireless device not included in the registration message (305; 355) to access the network (130-b-1; 130-b-2) subsequent to the mutual authentication and key agreement (315; 365); and exchanging NAS messages with the network (130-b-1; 130-b-2) over the secure connection.
A suspension comprising solid lipid nanoparticle (SLN) in an aqueous phase as a coloring composition in a food product, wherein the SLN comprise a. a core comprising: i. a lipid having a melting point above 40°C, and ii. an oil-soluble pigment b. a dual surfactant system comprising i. a polysorbate, and ii. a phospholipid wherein the ratio of polysorbate:phospholipid (i:ii) in said dual surfactant system is between 10:1 and 1:10 and the amount of pigment is 5-40% w/w of said SLN; wherein said suspension comprises: i. the lipid having a melting point above 40°C, in an amount of 10-35% w/w of the total suspension; and ii. the oil-soluble pigment, in an amount of 1-5% w/w of the total suspension; and iii. the dual surfactant system, in an amount of 1-25% w/w of the total suspension. a. a core comprising: i. a lipid having a melting point above 40°C, and ii. an oil-soluble pigment i. a lipid having a melting point above 40°C, and ii. an oil-soluble pigment b. a dual surfactant system comprising i. a polysorbate, and ii. a phospholipid i. a polysorbate, and ii. a phospholipid wherein the ratio of polysorbate:phospholipid (i:ii) in said dual surfactant system is between 10:1 and 1:10 and the amount of pigment is 5-40% w/w of said SLN; wherein said suspension comprises: i. the lipid having a melting point above 40°C, in an amount of 10-35% w/w of the total suspension; and ii. the oil-soluble pigment, in an amount of 1-5% w/w of the total suspension; and iii. the dual surfactant system, in an amount of 1-25% w/w of the total suspension. i. the lipid having a melting point above 40°C, in an amount of 10-35% w/w of the total suspension; and ii. the oil-soluble pigment, in an amount of 1-5% w/w of the total suspension; and iii. the dual surfactant system, in an amount of 1-25% w/w of the total suspension.
A method of removing arsenic from a liquid, comprising the steps of: providing an MXene, having the formula Ti 3 C 2 ; and adding the MXene to the liquid, the liquid comprising water and arsenic, and the MXene adsorbing arsenic from the liquid. providing an MXene, having the formula Ti 3 C 2 ; and adding the MXene to the liquid, the liquid comprising water and arsenic, and the MXene adsorbing arsenic from the liquid.
A positioning device that determines a position of a moving body , the positioning device comprising: an imaging unit that is configured to be mounted on the moving body and captures an image of surroundings of the moving body to acquire a captured image; a detector that is configured to be mounted on the moving body and detects motion of the moving body to output a detection signal indicating a detection result; a bias correction unit that processes the detection signal using a correction value for correcting a bias error included in the detection signal without depending on the motion of the moving body; a position computation unit that computes the position of the moving body based on the captured image acquired by the imaging unit and a detection signal processed by the bias correction unit; and a stationary determination unit that determines whether or not the moving body is stationary by detecting a period in which the moving body has a sufficiently small speed based on the results of the position computation unit, wherein the bias correction unit updates a correction value of the bias error based on a detection signal output by the detector when the stationary determination unit determines that the moving body is stationary, and does not update a correction value of the bias error based on a detection signal output by the detector when the stationary determination unit determines that the moving body is not stationary. an imaging unit that is configured to be mounted on the moving body and captures an image of surroundings of the moving body to acquire a captured image; a detector that is configured to be mounted on the moving body and detects motion of the moving body to output a detection signal indicating a detection result; a bias correction unit that processes the detection signal using a correction value for correcting a bias error included in the detection signal without depending on the motion of the moving body; a position computation unit that computes the position of the moving body based on the captured image acquired by the imaging unit and a detection signal processed by the bias correction unit; and a stationary determination unit that determines whether or not the moving body is stationary by detecting a period in which the moving body has a sufficiently small speed based on the results of the position computation unit, wherein the bias correction unit updates a correction value of the bias error based on a detection signal output by the detector when the stationary determination unit determines that the moving body is stationary, and does not update a correction value of the bias error based on a detection signal output by the detector when the stationary determination unit determines that the moving body is not stationary.
Apparatus for the automated removal of workpieces arranged in a container , having an object recognition device for detecting the workpieces and at least one gripper for gripping and removing the workpiece from the container, and having a controller for evaluating the data of the object recognition device, for path planning and for controlling the gripper, wherein the apparatus is set up in a modular manner from at least one handling module , at least one feed module , as well as an output module , wherein the handling module comprises the gripper kinematics , in particular a robot or an area gantry, the feed module comprises an arrangement for providing a container having workpieces, and the object recognition device , and the output module comprises at least one workpiece placement area , on which the workpieces are placed down in a separated manner and/or in a defined position, wherein the arrangement for providing a container having workpieces of the feed module is accessible from the outside, which makes possible the introduction of full containers into the feed module and the removal of empty containers out of the feed module, and wherein the output module , the handling module and the feed module each comprise cell walls (42, 43, 52 -54) which protect the working zone of the respective module against unauthorized entry, wherein the modules have mechanical connection points for connecting to one another. wherein the apparatus is set up in a modular manner from at least one handling module , at least one feed module , as well as an output module , wherein the handling module comprises the gripper kinematics , in particular a robot or an area gantry, the feed module comprises an arrangement for providing a container having workpieces, and the object recognition device , and the output module comprises at least one workpiece placement area , on which the workpieces are placed down in a separated manner and/or in a defined position, wherein the arrangement for providing a container having workpieces of the feed module is accessible from the outside, which makes possible the introduction of full containers into the feed module and the removal of empty containers out of the feed module, and wherein the output module , the handling module and the feed module each comprise cell walls (42, 43, 52 -54) which protect the working zone of the respective module against unauthorized entry, wherein the modules have mechanical connection points for connecting to one another.
A power tool , comprising: a housing ; a power output element for outputting power to drive a working attachment for performing a working function in a work area; a motor for driving the power output element to output power to drive the working attachment, wherein when the power output element is driven by the motor, the power output element is able to rotate or oscillate about a central axis ; and a surface light source device mountable to the housing for providing illumination to the work area when the working attachment is attached to the power output element, the surface light source device comprising a light exit surface allowing the surface light source device to emit light to the work area, wherein the surface light source device comprises a light guiding element formed with the light exit surface and a light incident surface for leading the light into the light guiding element and wherein a light emitting element is disposed at the light incident surface of the light guiding element, characterized in that the light guiding element surrounds the central axis and is formed with a gap in a surrounding direction and the light emitting element is disposed at the gap. a housing ; a power output element for outputting power to drive a working attachment for performing a working function in a work area; a motor for driving the power output element to output power to drive the working attachment, wherein when the power output element is driven by the motor, the power output element is able to rotate or oscillate about a central axis ; and a surface light source device mountable to the housing for providing illumination to the work area when the working attachment is attached to the power output element, the surface light source device comprising a light exit surface allowing the surface light source device to emit light to the work area, wherein the surface light source device comprises a light guiding element formed with the light exit surface and a light incident surface for leading the light into the light guiding element and wherein a light emitting element is disposed at the light incident surface of the light guiding element, characterized in that the light guiding element surrounds the central axis and is formed with a gap in a surrounding direction and the light emitting element is disposed at the gap.
A film capacitor comprising: a resin layer having a linear protrusion on a first surface and having a linear recess on a second surface ; and a metal layer provided on the first surface of the resin layer , characterized in that in the second surface of the resin layer , a total length of the linear recess per 1 cm 2 is 3 m or less, and an average depth of the linear recess is 0.01 μm or more and 1.3 μm or less. a resin layer having a linear protrusion on a first surface and having a linear recess on a second surface ; and a metal layer provided on the first surface of the resin layer , characterized in that in the second surface of the resin layer , a total length of the linear recess per 1 cm 2 is 3 m or less, and an average depth of the linear recess is 0.01 μm or more and 1.3 μm or less.
A computer implemented method of orthodontic treatment planning with a comparative orthodontic treatment planning tool, the method comprising: receiving a plurality of treatment plans configured to, in use, move teeth from an initial arrangement to a final arrangement, wherein each of the plurality of treatment plans comprises a plurality of stages, and wherein the final arrangements of each of the plurality of treatment plans differ from one another based on one or more treatment factors; simultaneously displaying, on a digital display, a treatment stage from a first treatment plan of the plurality of treatment plans and a treatment stage from a second treatment plan of the plurality of treatment plans, wherein the simultaneous displaying provides for comparison of the treatment stage from the first treatment plan and the treatment stage from the second treatment plan wherein the treatment stage from the first treatment plan and the treatment stage from the second treatment plan are displayed side-by-side; and providing for a user to select one of the first treatment plan and the second treatment plan based on said comparison of the treatment stage from the first treatment plan and the treatment stage from the second treatment plan. receiving a plurality of treatment plans configured to, in use, move teeth from an initial arrangement to a final arrangement, wherein each of the plurality of treatment plans comprises a plurality of stages, and wherein the final arrangements of each of the plurality of treatment plans differ from one another based on one or more treatment factors; simultaneously displaying, on a digital display, a treatment stage from a first treatment plan of the plurality of treatment plans and a treatment stage from a second treatment plan of the plurality of treatment plans, wherein the simultaneous displaying provides for comparison of the treatment stage from the first treatment plan and the treatment stage from the second treatment plan wherein the treatment stage from the first treatment plan and the treatment stage from the second treatment plan are displayed side-by-side; and providing for a user to select one of the first treatment plan and the second treatment plan based on said comparison of the treatment stage from the first treatment plan and the treatment stage from the second treatment plan.
Method for receiving a modulated signal, comprising the steps of: - receiving a signal modulated by a pulse position modulation (PPM) or a pulse width modulation (PWM) or a pulse amplitude modulation (PAM) or an on-off keying (OOK) amplitude modulation, corresponding to the transmission of a sequence of one or more consecutive digital symbols, - squaring the received signal, - projecting the square of the received signal onto multiple components of an analogue signal basis in order to obtain an analogue vector of dimension equal to the number of projection components, the components of the analogue signal basis being non-constant functions, - digitizing the analogue vector into a digital vector, - jointly demodulating the components of the digital vector by way of a maximum likelihood algorithm in order to estimate the transmitted sequence of one or more consecutive digital symbols. - receiving a signal modulated by a pulse position modulation (PPM) or a pulse width modulation (PWM) or a pulse amplitude modulation (PAM) or an on-off keying (OOK) amplitude modulation, corresponding to the transmission of a sequence of one or more consecutive digital symbols, - squaring the received signal, - projecting the square of the received signal onto multiple components of an analogue signal basis in order to obtain an analogue vector of dimension equal to the number of projection components, the components of the analogue signal basis being non-constant functions, - digitizing the analogue vector into a digital vector, - jointly demodulating the components of the digital vector by way of a maximum likelihood algorithm in order to estimate the transmitted sequence of one or more consecutive digital symbols.
An electrode assembly having a pressure-sensitive adhesive tape attached to an outer circumferential surface thereof, wherein the pressure-sensitive adhesive tape comprises: a substrate layer deforming in a longitudinal direction when coming in contact with a carbonate-based electrolyte; and a pressure-sensitive adhesive layer formed on one surface of the substrate layer in a direction parallel to the longitudinal direction of the substrate layer, the pressure-sensitive adhesive layer has a peel strength at room temperature (25°C) of 100gf/25mm or more, as measured at a peel angle of 180° and a peel rate of 5 mm/sec with respect to a glass plate, the substrate layer has a strain of 10% or more in the longitudinal direction according to the following Equation 1: Strain in longitudinal direction = L 2 − L 1 / L 1 × 100 wherein L 1 is an initial length of the substrate layer before the substrate layer comes in contact with the carbonate-based electrolyte; and L 2 is a length of the substrate layer which is measured after the substrate layer comes in contact with the carbonate-based electrolyte at room temperature (25°C) for 24 hours, the measurement method of the strain of the substrate layer in longitudinal direction being defined according to the method of the description, the measurement method of the peel strength of the pressure-sensitive adhesive layer being defined according to the method of the description, and the substrate layer comprises thermoplastic polyurethane. a substrate layer deforming in a longitudinal direction when coming in contact with a carbonate-based electrolyte; and a pressure-sensitive adhesive layer formed on one surface of the substrate layer in a direction parallel to the longitudinal direction of the substrate layer, the pressure-sensitive adhesive layer has a peel strength at room temperature (25°C) of 100gf/25mm or more, as measured at a peel angle of 180° and a peel rate of 5 mm/sec with respect to a glass plate, the substrate layer has a strain of 10% or more in the longitudinal direction according to the following Equation 1: Strain in longitudinal direction = L 2 − L 1 / L 1 × 100 wherein L 1 is an initial length of the substrate layer before the substrate layer comes in contact with the carbonate-based electrolyte; and L 2 is a length of the substrate layer which is measured after the substrate layer comes in contact with the carbonate-based electrolyte at room temperature (25°C) for 24 hours, the measurement method of the strain of the substrate layer in longitudinal direction being defined according to the method of the description, the measurement method of the peel strength of the pressure-sensitive adhesive layer being defined according to the method of the description, and the substrate layer comprises thermoplastic polyurethane.
A method for evaluating, by a user equipment, UE, conditions for traffic steering in a wireless communication system, wherein the UE is capable of the traffic steering between 3 rd generation partnership project, 3GPP, access network and a wireless local area network, WLAN, the method comprising: receiving, by the UE, signaling including at least one WLAN identifier from the 3GPP access network; receiving (S400), by the UE, radio access network, RAN, assistance information from the 3GPP access network; evaluating (S410) the conditions for the traffic steering, by the UE configured with a plurality of serving cells including a primary cell, PCell, only on the PCell based on the received RAN assistance information which is only applicable for a WLAN for which an identifier has been signaled to the UE; and when the conditions for the traffic steering are met on the PCell, performing, by the UE, the traffic steering between one or more serving cells other than the PCell and a WLAN identified by a WLAN identifier in the received signaling, wherein the RAN assistance information is applicable if access network discovery and selection function, ANDSF, policies are not applied to the UE. receiving, by the UE, signaling including at least one WLAN identifier from the 3GPP access network; receiving (S400), by the UE, radio access network, RAN, assistance information from the 3GPP access network; evaluating (S410) the conditions for the traffic steering, by the UE configured with a plurality of serving cells including a primary cell, PCell, only on the PCell based on the received RAN assistance information which is only applicable for a WLAN for which an identifier has been signaled to the UE; and when the conditions for the traffic steering are met on the PCell, performing, by the UE, the traffic steering between one or more serving cells other than the PCell and a WLAN identified by a WLAN identifier in the received signaling, wherein the RAN assistance information is applicable if access network discovery and selection function, ANDSF, policies are not applied to the UE.
A magnetic body inspection device for inspecting states of a plurality of magnetic bodies by a total magnetic flux method for measuring a magnetic flux inside a magnetic body (W), the magnetic body inspection device comprising: a plurality of detection coils each configured to detect a magnetic field of each of the plurality of magnetic bodies; one excitation unit provided for the plurality of magnetic bodies; a detection signal output unit configured to output a detection signal based on each magnetic field of the magnetic body, and a magnetic field application unit configured to apply a magnetic field to the magnetic body so that the magnetic field is applied to the magnetic body in a predetermined direction, wherein the plurality of detection coils is each configured to detect a change in the magnetic field of the magnetic body to which the magnetic field has been previously applied by the magnetic application unit. a plurality of detection coils each configured to detect a magnetic field of each of the plurality of magnetic bodies; one excitation unit provided for the plurality of magnetic bodies; a detection signal output unit configured to output a detection signal based on each magnetic field of the magnetic body, and a magnetic field application unit configured to apply a magnetic field to the magnetic body so that the magnetic field is applied to the magnetic body in a predetermined direction, wherein the plurality of detection coils is each configured to detect a change in the magnetic field of the magnetic body to which the magnetic field has been previously applied by the magnetic application unit.