mhurhangee/ep-ind-claims huggingface dataset:
Method for detecting a deactivation of a filling device during a filling process of an operating fluid container whose operating fluid container interior can be filled with an operating fluid via a filling pipe opening into said interior, wherein a pressure sensor for determining a pressure within the filling pipe is arranged in the filling pipe, wherein the method has the following method steps: - acquiring the time profile of pressure values acquired by means of the pressure sensor; and - outputting a filling stop signal in accordance with the time profile of the pressure values. - acquiring the time profile of pressure values acquired by means of the pressure sensor; and - outputting a filling stop signal in accordance with the time profile of the pressure values.
A method of accessing the contents of a droplet of an emulsion in a microfluidic system, the method comprising: flowing the emulsion alongside a continuous, non-emulsive stream of second fluid such that said droplet coalesces with said stream of second fluid, extracting said contents and incorporating said contents into said stream, wherein said flowing provides an interface between said emulsion and said stream of second fluid, and wherein said extracting comprises applying an electric field across said interface to alter a trajectory of said droplet of said emulsion to cause said droplet to coalescence with the stream of second fluid, and wherein said applying an electric field is performed using a pair of electrodes (112a, 112b) disposed laterally either side of the stream of emulsion and the stream of second fluid; and accessing said contents of said droplet in said second stream. flowing the emulsion alongside a continuous, non-emulsive stream of second fluid such that said droplet coalesces with said stream of second fluid, extracting said contents and incorporating said contents into said stream, wherein said flowing provides an interface between said emulsion and said stream of second fluid, and wherein said extracting comprises applying an electric field across said interface to alter a trajectory of said droplet of said emulsion to cause said droplet to coalescence with the stream of second fluid, and wherein said applying an electric field is performed using a pair of electrodes (112a, 112b) disposed laterally either side of the stream of emulsion and the stream of second fluid; and wherein said flowing provides an interface between said emulsion and said stream of second fluid, and wherein said extracting comprises applying an electric field across said interface to alter a trajectory of said droplet of said emulsion to cause said droplet to coalescence with the stream of second fluid, and wherein said applying an electric field is performed using a pair of electrodes (112a, 112b) disposed laterally either side of the stream of emulsion and the stream of second fluid; and accessing said contents of said droplet in said second stream.
A communication method, comprising: sending, by a policy control function, PCF, authorization information to an access and mobility management function, AMF, or session management function, SMF, wherein a target object of the authorization information is a terminal device, wherein the authorization information is used to indicate whether to authorize the terminal device to serve as a relay terminal device and/or a remote terminal device communicating through a relay terminal, wherein the authorization information is determined by the PCF according to authorization assistance information received from a unified data management, UDM; wherein the authorization information comprises: for a specific network slice, whether the terminal device is authorized to serve as a relay terminal device and/or a remote terminal device communicating through a relay terminal. sending, by a policy control function, PCF, authorization information to an access and mobility management function, AMF, or session management function, SMF, wherein a target object of the authorization information is a terminal device, wherein the authorization information is used to indicate whether to authorize the terminal device to serve as a relay terminal device and/or a remote terminal device communicating through a relay terminal, wherein the authorization information is determined by the PCF according to authorization assistance information received from a unified data management, UDM; wherein the authorization information comprises: for a specific network slice, whether the terminal device is authorized to serve as a relay terminal device and/or a remote terminal device communicating through a relay terminal.
A method to support Voice Call Continuity, denoted VCC, for emergency calls in a wireless access environment, comprising: receiving, at a serving domain, a message containing emergency and domain transfer information from a user equipment, denoted UE, wherein the emergency and/or domain transfer information indicates that the UE can support VCC and that the UE is originating a new emergency call or requesting a domain transfer for an existing call; determining, at the serving domain, a need for emergency call origination or domain transfer based on the emergency and domain transfer information; and performing, at the serving domain, the emergency call origination or the domain transfer based on the determining step. receiving, at a serving domain, a message containing emergency and domain transfer information from a user equipment, denoted UE, wherein the emergency and/or domain transfer information indicates that the UE can support VCC and that the UE is originating a new emergency call or requesting a domain transfer for an existing call; determining, at the serving domain, a need for emergency call origination or domain transfer based on the emergency and domain transfer information; and performing, at the serving domain, the emergency call origination or the domain transfer based on the determining step.
In-mold labels for use as an inserted material and for adhering to an outer peripheral wall of a container main-body concurrently when the main body is being molded, said labels comprising an adhesive layer to be adhered directly to this outer peripheral wall, wherein the adhesive layer has depressed portions that are formed by embossing and are disposed in a regular pattern on the surface adhered to the peripheral wall surface of the container main body, characterized in that each of the depressed portions has a square shape in a plan view and is surrounded by a flat portion in a lattice pattern, wherein the depressed portions comprise: an average depth in a range of 0.02 to 0.1 mm, an average number in a range of 25 to 2,500 per square cm of a unit surface area of a label, and a total of spatial volumes in a range of 0.001 to 0.005 cubic cm per square cm of the unit surface area of the label. an average depth in a range of 0.02 to 0.1 mm, an average number in a range of 25 to 2,500 per square cm of a unit surface area of a label, and a total of spatial volumes in a range of 0.001 to 0.005 cubic cm per square cm of the unit surface area of the label.
A wearable computing device comprising: a heat removal system incorporated into the device, the heat removal system comprising: a conduit loop including a flexible portion; characterized by: a dispersion of particles of an electrical conductor in a heat transfer fluid disposed within the conduit loop; a pair of electrodes to introduce a flow of electric current through the particles in the dispersion; and one or more magnets to introduce a magnetic field within the conduit loop in a region of the pair of electrodes, such that the electrodes are operable to apply an electromagnetic pumping force on the particles in the dispersion, and wherein the flexible portion of the conduit loop is positioned within a flexible portion of the device. a conduit loop including a flexible portion; characterized by: a dispersion of particles of an electrical conductor in a heat transfer fluid disposed within the conduit loop; a pair of electrodes to introduce a flow of electric current through the particles in the dispersion; and one or more magnets to introduce a magnetic field within the conduit loop in a region of the pair of electrodes, such that the electrodes are operable to apply an electromagnetic pumping force on the particles in the dispersion, and wherein the flexible portion of the conduit loop is positioned within a flexible portion of the device. a dispersion of particles of an electrical conductor in a heat transfer fluid disposed within the conduit loop; a pair of electrodes to introduce a flow of electric current through the particles in the dispersion; and one or more magnets to introduce a magnetic field within the conduit loop in a region of the pair of electrodes, such that the electrodes are operable to apply an electromagnetic pumping force on the particles in the dispersion, and wherein the flexible portion of the conduit loop is positioned within a flexible portion of the device.
A method for controlling a motor, the method comprising: obtaining electrical signals of the motor with a signal unit, the electrical signals comprising a motor torque and an angular velocity; calculating a voltage phase angle of a voltage vector with a calculating component, in which a command torque, the motor torque, the angular velocity and a voltage amplitude of the voltage vector are inputs of the calculating component, in which the voltage phase angle is a variable and the voltage amplitude is a constant; characterized in limiting via a first limiter the command torque by an available maximum curve torque of the motor; limiting via a second limiter the voltage phase angle φ by φ max and φ min to ensure the voltage phase angle φ is in a monotonous range; limiting via a third limiter a sine value of the voltage phase angle via a third limiter by sinφ max and sinφ min, to ensure a gain function K(ω, φ) is larger than zero; modulating, with a modulator, the voltage phase angle and the voltage amplitude to form a switching signal for controlling an inverter; converting with the inverter a direct current voltage to the voltage vector according to the switching signal; and applying the voltage vector to the motor; wherein the motor torque generated from the motor changes linearly with respect to the voltage phase angle at a certain value of the angular velocity of the motor depending on the angular velocity co and the certain monotonous range of the voltage phase angle obtained from a derivative of the motor torque with respect to the voltage phase angle. obtaining electrical signals of the motor with a signal unit, the electrical signals comprising a motor torque and an angular velocity; calculating a voltage phase angle of a voltage vector with a calculating component, in which a command torque, the motor torque, the angular velocity and a voltage amplitude of the voltage vector are inputs of the calculating component, in which the voltage phase angle is a variable and the voltage amplitude is a constant; characterized in limiting via a first limiter the command torque by an available maximum curve torque of the motor; limiting via a second limiter the voltage phase angle φ by φ max and φ min to ensure the voltage phase angle φ is in a monotonous range; limiting via a third limiter a sine value of the voltage phase angle via a third limiter by sinφ max and sinφ min, to ensure a gain function K(ω, φ) is larger than zero; modulating, with a modulator, the voltage phase angle and the voltage amplitude to form a switching signal for controlling an inverter; converting with the inverter a direct current voltage to the voltage vector according to the switching signal; and applying the voltage vector to the motor; wherein the motor torque generated from the motor changes linearly with respect to the voltage phase angle at a certain value of the angular velocity of the motor depending on the angular velocity co and the certain monotonous range of the voltage phase angle obtained from a derivative of the motor torque with respect to the voltage phase angle.
A method for purification of a triacylglyceride oil, wherein the quantity of organic chlorinated precursors of monochloropropandiol esters (MCPDEs) is reduced in the purified triacylglyceride oil compared to the starting triacylglyceride oil, comprising the steps: (a) concentrating insoluble components in liquid triacylglyceride oil, for example microparticles, segregated droplets and sediments by (i). applying a centrifugational force on the triacylglyceride oil whilst maintaining the triacylglyceride oil above its melting temperature; and (ii). allowing the insoluble components to settle for at least 4 hours by gravitational force whilst maintaining the triacylglyceride oil above its melting temperature; (b) separating the triacylglyceride oil from the insoluble components; wherein step a(ii) is performed and then step a(i) is performed. (a) concentrating insoluble components in liquid triacylglyceride oil, for example microparticles, segregated droplets and sediments by (i). applying a centrifugational force on the triacylglyceride oil whilst maintaining the triacylglyceride oil above its melting temperature; and (ii). allowing the insoluble components to settle for at least 4 hours by gravitational force whilst maintaining the triacylglyceride oil above its melting temperature; (i). applying a centrifugational force on the triacylglyceride oil whilst maintaining the triacylglyceride oil above its melting temperature; and (ii). allowing the insoluble components to settle for at least 4 hours by gravitational force whilst maintaining the triacylglyceride oil above its melting temperature; (b) separating the triacylglyceride oil from the insoluble components;
A treatment probe for treating an eye of a patient, the eye having a sclera, the treatment probe comprising: an elongate body defining a handle having a proximal end and a distal end; a treatment fiber housed in the elongate body and configured for delivering treatment light energy to the eye from a distal end of the treatment fiber; and a contact member disposed on an end of the elongate body, the contact member including: a contact surface for positioning on a surface of the eye; two side edges that are positioned on opposite sides of the contact surface; characterised in that the probe further comprises a fluid channel; wherein the contact surface conforms to the shape of the sclera and the two side edges are shaped to direct fluid on the surface of the eye toward the fluid channel when the contact member is moved laterally across the surface of the eye such that the fluid aggregates within the fluid channel and contacts the distal end of the treatment fiber. an elongate body defining a handle having a proximal end and a distal end; a treatment fiber housed in the elongate body and configured for delivering treatment light energy to the eye from a distal end of the treatment fiber; and a contact member disposed on an end of the elongate body, the contact member including: a contact surface for positioning on a surface of the eye; two side edges that are positioned on opposite sides of the contact surface; a contact surface for positioning on a surface of the eye; two side edges that are positioned on opposite sides of the contact surface; characterised in that the probe further comprises a fluid channel; wherein the contact surface conforms to the shape of the sclera and the two side edges are shaped to direct fluid on the surface of the eye toward the fluid channel when the contact member is moved laterally across the surface of the eye such that the fluid aggregates within the fluid channel and contacts the distal end of the treatment fiber.
The toothbrush comprising bristles of synthetic fibers, characterized in that activated carbon particles from charcoal having average diameters greater than or equal to 100 μm are incorporated into the synthetic fibers, whereby the amount of activated carbon particles in the bristles is greater than or equal to 40 vol %.
A connector for coupling radiation from a radiation source into an optical fiber for medical applications comprising: an outer body (102, 202, 302) for handling said connector; a spring-loaded ferrule (106, 206, 306); and an inner body (104, 204, 304) which holds said ferrule (106, 206, 306) and moves longitudinally within said outer body (102, 202, 302), wherein the ferrule (106, 206, 306) is mounted completely inside the inner body and wherein the position of the ferrule (106, 206, 306) is moved into the outer body (102, 202, 302), when the optical fiber is not connected to the radiation source; characterized by the connector further comprising a collet chuck (108, 308) through which said optical fiber is introduced, wherein the ferrule (106, 206, 306) compresses the collet chuck (108, 308) closed around the optical fiber. an outer body (102, 202, 302) for handling said connector; a spring-loaded ferrule (106, 206, 306); and an inner body (104, 204, 304) which holds said ferrule (106, 206, 306) and moves longitudinally within said outer body (102, 202, 302), wherein the ferrule (106, 206, 306) is mounted completely inside the inner body and wherein the position of the ferrule (106, 206, 306) is moved into the outer body (102, 202, 302), when the optical fiber is not connected to the radiation source; characterized by the connector further comprising a collet chuck (108, 308) through which said optical fiber is introduced, wherein the ferrule (106, 206, 306) compresses the collet chuck (108, 308) closed around the optical fiber.
A method for multiplying a strain of Trichoderma, which comprises: - the inoculating, with a stock suspension of Trichoderma propagules, of a first sterilized culture medium containing between about 25% and about 50% by weight of wood fibers, water, nutritive substances and a pH modifier, said fibers having an air content by volume in the range of from about 55% to about 90%, said medium being free of fungal contaminants and having a bacterial contaminant content of less than or equal to 10 2 CFU/g; - the culturing of the culture medium thus inoculated so as to obtain a primary inoculum in which the multiplication factor of the propagules reaches 2 × 10 4 to 10 5. - the inoculating, with a stock suspension of Trichoderma propagules, of a first sterilized culture medium containing between about 25% and about 50% by weight of wood fibers, water, nutritive substances and a pH modifier, said fibers having an air content by volume in the range of from about 55% to about 90%, said medium being free of fungal contaminants and having a bacterial contaminant content of less than or equal to 10 2 CFU/g; - the culturing of the culture medium thus inoculated so as to obtain a primary inoculum in which the multiplication factor of the propagules reaches 2 × 10 4 to 10 5.
A method for manufacturing an array substrate of a fringe-field switching, FFS, type thin film transistor liquid crystal display, TFT-LCD, comprising: Step 1: in a first patterning process, forming a first transparent conductive film and a first metal film on a transparent substrate sequentially, and then patterning the stack of the first transparent conductive film and the first metal film so as to form patterns including gate lines, gate electrodes, common electrodes and common electrode lines; Step 2: in a second patterning process, forming a gate insulating film, a semiconductor film and an impurity-doped semiconductor film sequentially, and then patterning the stack of the gate insulating film, the semiconductor film and the impurity-doped semiconductor film so as to form patterns including gate connection holes in the PAD region, a semiconductor layer and a portion of the impurity-doped semiconductor film covering only the semiconductor layer; and Step 3: in a third patterning process, forming a second metal film, patterning the second metal film, then forming a second transparent conductive film and performing a lifting-off process so as to remove a portion of the second transparent conductive film, and etching the second metal film after the patterning and the portion of the impurity-doped semiconductor film so as to form patterns including source electrodes, drain electrodes, an impurity-doped semiconductor layer and pixel electrodes. Step 1: in a first patterning process, forming a first transparent conductive film and a first metal film on a transparent substrate sequentially, and then patterning the stack of the first transparent conductive film and the first metal film so as to form patterns including gate lines, gate electrodes, common electrodes and common electrode lines; Step 2: in a second patterning process, forming a gate insulating film, a semiconductor film and an impurity-doped semiconductor film sequentially, and then patterning the stack of the gate insulating film, the semiconductor film and the impurity-doped semiconductor film so as to form patterns including gate connection holes in the PAD region, a semiconductor layer and a portion of the impurity-doped semiconductor film covering only the semiconductor layer; and Step 3: in a third patterning process, forming a second metal film, patterning the second metal film, then forming a second transparent conductive film and performing a lifting-off process so as to remove a portion of the second transparent conductive film, and etching the second metal film after the patterning and the portion of the impurity-doped semiconductor film so as to form patterns including source electrodes, drain electrodes, an impurity-doped semiconductor layer and pixel electrodes.
An audio output apparatus comprising: an electricity-to-sound converter arranged in a housing and configured to reproduce a first audio signal; a sound collector arranged at an outside of said housing and configured to pick up sound outside said housing and output a second audio signal; and a sound leakage evaluating means configured to evaluate leakage of a sound reproduced by said electricity-to-sound converter into outside of said housing on the basis of said first audio signal and said second audio signal and to generate a sound leakage suppression start execution signal if sound leakage suppression is demanded on the basis of a decision result of the sound leakage evaluation means; a controller configured to suppress the leakage into the outside of said housing of the sound reproduced by said electricity-to-sound converter from said first audio signal; wherein said sound leakage suppression start execution signal is supplied to the controller; characterized in that said sound leakage evaluating means is configured to evaluate an external noise component and to generate a sound leakage suppression control stop signal if said sound leakage evaluating means evaluates that the sound picked up by the sound collector is mostly made up of the external noise component, and said sound leakage suppression control stop signal is supplied to the controller. an electricity-to-sound converter arranged in a housing and configured to reproduce a first audio signal; a sound collector arranged at an outside of said housing and configured to pick up sound outside said housing and output a second audio signal; and a sound leakage evaluating means configured to evaluate leakage of a sound reproduced by said electricity-to-sound converter into outside of said housing on the basis of said first audio signal and said second audio signal and to generate a sound leakage suppression start execution signal if sound leakage suppression is demanded on the basis of a decision result of the sound leakage evaluation means; a controller configured to suppress the leakage into the outside of said housing of the sound reproduced by said electricity-to-sound converter from said first audio signal; wherein said sound leakage suppression start execution signal is supplied to the controller;