mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting blocking of a microphone, applicable to a wireless earphone that is connected with a mobile terminal , the wireless earphone comprising a first wireless earphone and a second wireless earphone , the first wireless earphone having a first microphone, the mobile terminal having a second microphone, and the method comprising: determining (S201, S301, S401) a first charge power level of the first wireless earphone and a second charge power level of the second wireless earphone when both the first wireless earphone and the second wireless earphone are worn; performing (S202, S402) a first operation and a second operation in parallel when the first charge power level is greater than the second charge power level, wherein the first operation is to obtain first audio through the first microphone, and the second operation is to obtain second audio through the second microphone; determining (S203, S304, S403) a reference parameter of the second audio; and determining (S204, S404) that the first microphone is blocked in response to detecting that a first parameter of the first audio does not match the reference parameter. determining (S201, S301, S401) a first charge power level of the first wireless earphone and a second charge power level of the second wireless earphone when both the first wireless earphone and the second wireless earphone are worn; performing (S202, S402) a first operation and a second operation in parallel when the first charge power level is greater than the second charge power level, wherein the first operation is to obtain first audio through the first microphone, and the second operation is to obtain second audio through the second microphone; determining (S203, S304, S403) a reference parameter of the second audio; and determining (S204, S404) that the first microphone is blocked in response to detecting that a first parameter of the first audio does not match the reference parameter.
An automation device of a group of automation devices (101a-c), comprising: a communication interface for communicating with a further automation device (101b-c) of the group of automation devices (101a-c) via a communication network ; wherein the communication interface is configured to receive a status message of the further automation device (101b-c), which indicates a state or a change in state of the further automation device (101b-c); and a light source , which is configured to emit a light signal indicating the state or the change in state of the further automation device (101b-c) in response to the receiving of the status message, characterizing in that the automation device comprises a detection device , wherein the detection device is configured to detect a maintaining or operating of the automation device by a user, wherein the light source is configured to display the light signal in response to receiving of the status message when the detection device detects the maintaining or operating of the automation device . a communication interface for communicating with a further automation device (101b-c) of the group of automation devices (101a-c) via a communication network ; wherein the communication interface is configured to receive a status message of the further automation device (101b-c), which indicates a state or a change in state of the further automation device (101b-c); and a light source , which is configured to emit a light signal indicating the state or the change in state of the further automation device (101b-c) in response to the receiving of the status message, characterizing in that the automation device comprises a detection device , wherein the detection device is configured to detect a maintaining or operating of the automation device by a user, wherein the light source is configured to display the light signal in response to receiving of the status message when the detection device detects the maintaining or operating of the automation device .
Touchscreen, wherein by means of the touchscreen inputs into an electronic system are able to be realized by the touchscreen being touched by means of an input member and wherein the touchscreen comprises an electro-optical display and a first sensing device for determining the location at which the touchscreen is touched, and a second sensing device for determining a force applied to the touchscreen , wherein the position of the touchscreen with respect to a reference surface is variable by way of the force being applied to the surface of said touchscreen, wherein the second sensing device is configured in capacitive fashion and comprises an electrode , wherein the touchscreen comprises a spring element , wherein the spring element comprises a leaf spring and wherein the spring element is arranged at a distance from the electrode of the second sensing device , characterized in that the electrode of the second sensing device lies in a plane with electrodes of the display or in a plane with electrodes of the first sensing device , in that the leaf spring is offset, in that the spring element forms a second electrode of the second sensing device such that the electrode of the second sensing device together with the spring element forms a capacitor, and in that the spring element is electrically connected to an earth potential. wherein the touchscreen comprises a spring element , wherein the spring element comprises a leaf spring and wherein the spring element is arranged at a distance from the electrode of the second sensing device , characterized in that the electrode of the second sensing device lies in a plane with electrodes of the display or in a plane with electrodes of the first sensing device , in that the leaf spring is offset, in that the spring element forms a second electrode of the second sensing device such that the electrode of the second sensing device together with the spring element forms a capacitor, and in that the spring element is electrically connected to an earth potential.
A method for wireless communication, comprising: receiving configuration information identifying a subset of a set of wireless resources that contain frame format information for one or more subframes, the frame format information comprising one or more parameters for wireless communications using a shared radio frequency spectrum band, wherein the subset of the set of wireless resources comprises a physical hybrid automatic repeat request, HARQ, indicator channel, PHICH; and one of a physical control format indicator channel, PCFICH, and a physical downlink control channel, PDCCH; wherein a first portion of the frame format information is received on the PHICH and a second portion of the frame format information is received on the PCFICH or the PDCCH; monitoring the identified subset of the set of wireless resources; and receiving the frame format information on the identified subset of the set of wireless resources. receiving configuration information identifying a subset of a set of wireless resources that contain frame format information for one or more subframes, the frame format information comprising one or more parameters for wireless communications using a shared radio frequency spectrum band, wherein the subset of the set of wireless resources comprises a physical hybrid automatic repeat request, HARQ, indicator channel, PHICH; and one of a physical control format indicator channel, PCFICH, and a physical downlink control channel, PDCCH; wherein a first portion of the frame format information is received on the PHICH and a second portion of the frame format information is received on the PCFICH or the PDCCH; monitoring the identified subset of the set of wireless resources; and receiving the frame format information on the identified subset of the set of wireless resources.
A fluid burner head for a fluid combustion unit comprising a body which in turn comprises a hollow tube for conveying a fluid to be combusted into a combustion chamber and a cap which at least partly closes an upper end of the tube , the tube further comprising a lower end for receiving the fluid in the tube , a wall of the tube comprising a plurality of rows of holes , which rows extend around a longitudinal center axis (C) of the fluid burner head , an uppermost row of holes being the row of holes arranged closest to the cap , wherein the holes permit a flow of the fluid to be combusted from an interior to an exterior of the tube , the fluid burner head being characterized in that it further comprises an annular first projection extending around the longitudinal center axis (C) of the fluid burner head and projecting obliquely from an outer surface of the body and away from the lower end of the tube , above the uppermost row of holes of the tube , with an angle α relative to the longitudinal center axis (C) of the fluid burner head , wherein 0 < α < 90 degrees.
A method for reducing outgassing (evaporation of volatile organic compounds from the plastic and concomitant condensation of the volatile organic compounds on nearby cooler surfaces, which causes the hazing.) of a polyester having repeat units derived from 1,4-butanediol, comprising melt blending a polyester mixture comprising the polyester and 0.2 to 2 weight percent water, based on the weight of the polyester, wherein the polyester mixture further comprises 0.01 to 0.5 weight percent, based on the weight of the polyester, of a quencher, wherein the quencher is selected from the group consisting of phosphorous compounds, boric acid, aliphatic or aromatic carboxylic acids, carboxylic acid anhydrides, polyols, epoxies, or a combination thereof.
A method, comprising: receiving , at a service function forwarder (SFF, 202), a first packet to be provided to a service function cluster (SFC, 204), the first packet comprising a first service function (SF) label , the SFF being communicatively coupled to the SFC via multiple physical links; referencing a label forwarding table to identify a first physical link of the multiple physical links for the first SF label, wherein the label forwarding table comprises a plurality of labels, each of the plurality of labels being associated with at least one forwarding equivalence class (FEC) each FEC specifying a physical link and a virtual machine instantiated on the SFC, the first link being a first physical link determined from a first FEC in the label forwarding table; and forwarding the first packet to the SFC via the first physical link, the method further comprising, if the SFF detects a failure of the first physical link: selecting a second FEC in the label forwarding table, the second FEC specifying a second physical link and the same virtual machine as the first FEC; forwarding the first packet to the virtual machine specified in the first FEC via the second physical link. receiving , at a service function forwarder (SFF, 202), a first packet to be provided to a service function cluster (SFC, 204), the first packet comprising a first service function (SF) label , the SFF being communicatively coupled to the SFC via multiple physical links; referencing a label forwarding table to identify a first physical link of the multiple physical links for the first SF label, wherein the label forwarding table comprises a plurality of labels, each of the plurality of labels being associated with at least one forwarding equivalence class (FEC) each FEC specifying a physical link and a virtual machine instantiated on the SFC, the first link being a first physical link determined from a first FEC in the label forwarding table; and forwarding the first packet to the SFC via the first physical link, the method further comprising, if the SFF detects a failure of the first physical link: selecting a second FEC in the label forwarding table, the second FEC specifying a second physical link and the same virtual machine as the first FEC; forwarding the first packet to the virtual machine specified in the first FEC via the second physical link. selecting a second FEC in the label forwarding table, the second FEC specifying a second physical link and the same virtual machine as the first FEC; forwarding the first packet to the virtual machine specified in the first FEC via the second physical link.
A system , comprising: a balloon catheter having a shaft , an inflatable balloon fitted at a distal end of the shaft, and multiple electrodes disposed on the inflatable balloon; a display; and a processor configured to: receive signals that are indicative of respective electrode positions of the multiple electrodes in a three-dimensional space; compute the respective electrode positions of the multiple electrodes based on the received signals; from among a plurality of virtual planes defined by different respective groups of the electrode positions , select a virtual plane that contains a maximum number of the electrode positions to within a given tolerance; compute a new virtual plane from the electrode positions that are within the given tolerance of the selected virtual plane; project the electrode positions that are within the given tolerance of the selected virtual plane onto the new virtual plane; fit a circle to the projected electrode positions; and render to the display a 3D representation of the balloon catheter based on a position and orientation of the fitted virtual circle in the 3D space. a balloon catheter having a shaft , an inflatable balloon fitted at a distal end of the shaft, and multiple electrodes disposed on the inflatable balloon; a display; and a processor configured to: receive signals that are indicative of respective electrode positions of the multiple electrodes in a three-dimensional space; compute the respective electrode positions of the multiple electrodes based on the received signals; from among a plurality of virtual planes defined by different respective groups of the electrode positions , select a virtual plane that contains a maximum number of the electrode positions to within a given tolerance; compute a new virtual plane from the electrode positions that are within the given tolerance of the selected virtual plane; project the electrode positions that are within the given tolerance of the selected virtual plane onto the new virtual plane; fit a circle to the projected electrode positions; and render to the display a 3D representation of the balloon catheter based on a position and orientation of the fitted virtual circle in the 3D space. receive signals that are indicative of respective electrode positions of the multiple electrodes in a three-dimensional space; compute the respective electrode positions of the multiple electrodes based on the received signals; from among a plurality of virtual planes defined by different respective groups of the electrode positions , select a virtual plane that contains a maximum number of the electrode positions to within a given tolerance; compute a new virtual plane from the electrode positions that are within the given tolerance of the selected virtual plane; project the electrode positions that are within the given tolerance of the selected virtual plane onto the new virtual plane; fit a circle to the projected electrode positions; and render to the display a 3D representation of the balloon catheter based on a position and orientation of the fitted virtual circle in the 3D space.
A dishwasher comprising a body ; a washing tub that is disposed in the body and wherein the washing process is performed; and a heat pump which is arranged under the washing tub and which has a first heat exchanger enabling the water to be used in the washing step to be heated by drawing heat from the environment, a second heat exchanger transferring the heat received from the first heat exchanger to the washing water and a compressor fluidly connected to the first heat exchanger and the second heat exchanger so as to realize the refrigerant cycle, a closure member which is disposed on the lower edge of the body between the body and a mounting gap where the body is disposed and which prevents the air cooling down as the heat pump draws the heat of the ambient air from being delivered behind the body characterized by the closure member being a shutter mounted on the body so as to open in one direction.
An antibacterial biological implant comprising: a substrate made of a metal material; and an anodized coating provided on the substrate, the anodized coating comprising an iodine-rich layer located close to an interface between the anodized coating and the substrate; wherein the iodine-rich layer is located between a portion of the anodized coating other than the iodine-rich layer and the substrate; a portion of the anodized coating other than the iodine-rich layer is free of iodine; and the iodine-rich layer is in contact with the substrate. a substrate made of a metal material; and an anodized coating provided on the substrate, the anodized coating comprising an iodine-rich layer located close to an interface between the anodized coating and the substrate; wherein the iodine-rich layer is located between a portion of the anodized coating other than the iodine-rich layer and the substrate; a portion of the anodized coating other than the iodine-rich layer is free of iodine; and the iodine-rich layer is in contact with the substrate.
A method of controlling the power input to a HVDC transmission link , which HVDC transmission link is connected to an AC power plant comprising a plurality of variable-speed turbines by means of a first voltage source converter and to an AC grid by means of a second voltage source converter , which method comprises - using the second voltage source converter to perform voltage control of the HVDC transmission link during a no-fault mode of operation of the grid ; - monitoring a HVDC transmission link parameter (U WPP , U GRID ) to detect an unbalanced fault; and - using the first voltage source converter to regulate the output of the AC power plant on the basis of the monitored HVDC transmission link parameter (U WPP , U GRID ) in the event of an unbalanced fault, characterized in that the step of regulating the output of the AC power plant comprises the step of providing unbalanced multi-phase signals at a collector network of the AC power plant by generating an unbalanced three-phase AC voltage reference at the collector network of the AC power plant,whereby the unbalanced AC voltage reference comprises three voltage signals of different magnitudes. - using the second voltage source converter to perform voltage control of the HVDC transmission link during a no-fault mode of operation of the grid ; - monitoring a HVDC transmission link parameter (U WPP , U GRID ) to detect an unbalanced fault; and - using the first voltage source converter to regulate the output of the AC power plant on the basis of the monitored HVDC transmission link parameter (U WPP , U GRID ) in the event of an unbalanced fault,
A cooker comprising: a cooking chamber adapted for cooking food in it; a heat source adapted for heating the food in the cooking chamber ; a lighting device adapted for illuminating an inner portion of the cooking chamber ; an image sensor adapted for scanning the inner portion of the cooking chamber and the food; and a control part adapted for correcting a food image distorted by light from the lighting device , characterized in that : the control part is adapted to operate the image sensor and the lighting device to obtain an inner image of the cooking chamber by the image sensor after the lighting device is set into operation, to read an RGB color value from the inner image of the cooking chamber , and to correct the image of the food in the cooking chamber scanned by the image sensor by using a difference between the RGB color value of the inner image of the cooking chamber scanned by the image sensor and a preset reference RGB color value read from an inner image of the cooking chamber scanned by the image sensor when the inner portion of the cooking chamber is illuminated with white light, wherein the preset reference RGB color value is stored in a data storage . a cooking chamber adapted for cooking food in it; a heat source adapted for heating the food in the cooking chamber ; a lighting device adapted for illuminating an inner portion of the cooking chamber ; an image sensor adapted for scanning the inner portion of the cooking chamber and the food; and a control part adapted for correcting a food image distorted by light from the lighting device , to operate the image sensor and the lighting device to obtain an inner image of the cooking chamber by the image sensor after the lighting device is set into operation, to read an RGB color value from the inner image of the cooking chamber , and to correct the image of the food in the cooking chamber scanned by the image sensor by using a difference between the RGB color value of the inner image of the cooking chamber scanned by the image sensor and a preset reference RGB color value read from an inner image of the cooking chamber scanned by the image sensor when the inner portion of the cooking chamber is illuminated with white light, wherein the preset reference RGB color value is stored in a data storage .
A device (DG) for generating a polychromatic beam of photons, said device (DG) comprising a pulsed laser source (SL) that is able to deliver primary photons having at least one wavelength, forming means (MM) able to act on the primary photons to deliver an input beam, and a nonlinear crystal (CN) that is arranged to produce, from the input beam, a polychromatic output beam comprising secondary photons having several wavelengths, characterised in that it further comprises control means (MC) arranged to generate, in the nonlinear crystal (CN), at least one electric field that is synchronous with the input beam and able to induce, in the latter (CN), a phase mismatch via an electro-optical effect in order to convert the primary photons of the input beam into said secondary photons so as to form a super-continuum, said control means (MC) comprising: i. sampling means (MP) able to split the input beam into a main portion that is directed toward the nonlinear crystal (CN) and an auxiliary portion, ii. optoelectronic means (MO) able to generate an electric pulse on reception of each auxiliary portion of the input beam, iii. electrodes (Ej) that are placed against the nonlinear crystal (CN) and that are arranged to generate, in the latter (CN), the electric field on reception of each generated electric pulse, and iv. delaying means (MR) arranged to delay the primary photons of the main portion of the input beam so that they enter the nonlinear crystal (CN) synchronously with the generated electric field. i. sampling means (MP) able to split the input beam into a main portion that is directed toward the nonlinear crystal (CN) and an auxiliary portion, ii. optoelectronic means (MO) able to generate an electric pulse on reception of each auxiliary portion of the input beam, iii. electrodes (Ej) that are placed against the nonlinear crystal (CN) and that are arranged to generate, in the latter (CN), the electric field on reception of each generated electric pulse, and iv. delaying means (MR) arranged to delay the primary photons of the main portion of the input beam so that they enter the nonlinear crystal (CN) synchronously with the generated electric field.