mhurhangee/patent-ind-claim-en huggingface dataset:
A glucose sensor insertion assembly for positioning an on-body patch device including sensor and sensor electronics assembly, the insertion assembly comprising: an insertion device comprising a housing , an introducer , a bias mechanism , and a cap configured to provide a closure or seal on an open end of the insertion device ; and an integrated glucose sensor and sensor electronics assembly provided within the housing ; wherein the introducer is configured to pierce the skin surface of a user and position the glucose sensor in fluid contact with a body fluid of the user; wherein the insertion device is configured to move the introducer and the integrated glucose sensor and sensor electronics assembly within the housing towards the skin surface of the user in a direction substantially perpendicular to the skin surface ; wherein the bias mechanism is configured to retract the introducer from an insertion position to a retracted position in which the introducer is entirely retained within the housing ; wherein the glucose sensor insertion assembly is configured such that when the insertion device is removed from the skin surface , the sensor electronics assembly is retained on the skin surface , while the position of the glucose sensor is maintained in fluid contact with the body fluid of the user under the skin surface ; and wherein the sensor electronics assembly is configured to communicate with a reader device or receiver unit via a Bluetooth enabled communication link. an insertion device comprising a housing , an introducer , a bias mechanism , and a cap configured to provide a closure or seal on an open end of the insertion device ; and an integrated glucose sensor and sensor electronics assembly provided within the housing ; wherein the introducer is configured to pierce the skin surface of a user and position the glucose sensor in fluid contact with a body fluid of the user; wherein the insertion device is configured to move the introducer and the integrated glucose sensor and sensor electronics assembly within the housing towards the skin surface of the user in a direction substantially perpendicular to the skin surface ; wherein the bias mechanism is configured to retract the introducer from an insertion position to a retracted position in which the introducer is entirely retained within the housing ; wherein the glucose sensor insertion assembly is configured such that when the insertion device is removed from the skin surface , the sensor electronics assembly is retained on the skin surface , while the position of the glucose sensor is maintained in fluid contact with the body fluid of the user under the skin surface ; and wherein the sensor electronics assembly is configured to communicate with a reader device or receiver unit via a Bluetooth enabled communication link.
A method for producing a wood material panel , wherein the method comprises the following steps: (a) scattering a multitude of wood particles to produce a particulate cake, wherein at least one adhesive is applied to at least some of the wood particles prior to and/or during scattering, (b) pressing the particulate cake under an increased pressure and at an increased temperature to form a wood material panel , characterized by the fact that different quantities of at least one additive are introduced at different positions within the particulate cake during the scattering of the wood particles. (a) scattering a multitude of wood particles to produce a particulate cake, wherein at least one adhesive is applied to at least some of the wood particles prior to and/or during scattering, (b) pressing the particulate cake under an increased pressure and at an increased temperature to form a wood material panel ,
An apparatus for adaptively treating a tumor with an alternating electric field, the apparatus comprising: an electrical impedance tomography device for measuring an impedance of the tumor; an AC signal generator having a controllable output frequency; and at least one pair of electrodes (E1, E2) operatively connected to the AC signal generator for applying an alternating electric field at the output frequency to the tumor selectively to destroy cells in the tumor; characterized by : the electrical impedance tomography device using a frequency of between 1 kHz and 1 MHz to determine a size of cells in the tumor from the measured impedance of the tumor; and a processor configured to estimate the size of cells in the tumor based on the measured impedance of the tumor and setting the frequency of the AC signal generator based on the estimated size of cells in the tumor. an electrical impedance tomography device for measuring an impedance of the tumor; an AC signal generator having a controllable output frequency; and at least one pair of electrodes (E1, E2) operatively connected to the AC signal generator for applying an alternating electric field at the output frequency to the tumor selectively to destroy cells in the tumor; characterized by : the electrical impedance tomography device using a frequency of between 1 kHz and 1 MHz to determine a size of cells in the tumor from the measured impedance of the tumor; and a processor configured to estimate the size of cells in the tumor based on the measured impedance of the tumor and setting the frequency of the AC signal generator based on the estimated size of cells in the tumor. the electrical impedance tomography device using a frequency of between 1 kHz and 1 MHz to determine a size of cells in the tumor from the measured impedance of the tumor; and a processor configured to estimate the size of cells in the tumor based on the measured impedance of the tumor and setting the frequency of the AC signal generator based on the estimated size of cells in the tumor.
A method for prioritizing data streams, the method comprising: identifying, by a reprioritizer of a first intermediary device deployed between a first node and a second node, a first compression characteristic of a first packet in a first data stream, the first data stream having a first traffic priority level; identifying, by the reprioritizer, a second compression characteristic of a second packet in a second data stream, the second data stream having a second traffic priority level less than the first traffic priority level; increasing, by the reprioritizer, the second traffic priority level of the second data stream to greater than the first traffic priority level of the first data stream responsive to a comparison between the first compression characteristic and the second compression characteristic; starting, by the reprioritizer, a timer based at least on the comparison between the first compression characteristic and the second compression characteristic; and resetting, based on expiration of the timer maintained by the reprioritizer, the second traffic priority level of the second data stream to be less than the first traffic priority level of the first data stream. identifying, by a reprioritizer of a first intermediary device deployed between a first node and a second node, a first compression characteristic of a first packet in a first data stream, the first data stream having a first traffic priority level; identifying, by the reprioritizer, a second compression characteristic of a second packet in a second data stream, the second data stream having a second traffic priority level less than the first traffic priority level; increasing, by the reprioritizer, the second traffic priority level of the second data stream to greater than the first traffic priority level of the first data stream responsive to a comparison between the first compression characteristic and the second compression characteristic; starting, by the reprioritizer, a timer based at least on the comparison between the first compression characteristic and the second compression characteristic; and resetting, based on expiration of the timer maintained by the reprioritizer, the second traffic priority level of the second data stream to be less than the first traffic priority level of the first data stream.
A method of producing a compound of formula (C): the method comprising the following step: (a) reacting, in acetonitrile as solvent, a compound of formula (A): with a bridging element of the form ZCH 2 CH 2 Z, wherein P is an arylsulfonate protecting group and Z is a halogen selected from: Cl; Br; and, I. (a) reacting, in acetonitrile as solvent, a compound of formula (A): with a bridging element of the form ZCH 2 CH 2 Z, wherein P is an arylsulfonate protecting group and Z is a halogen selected from: Cl; Br; and, I.
A light strip system having a plurality of illuminants arranged in a row, wherein the illuminants are electrically and mechanically couplable to one another, wherein a female plug connector is provided at the one illuminant and a male plug connector is provided at the other illuminant for the electrical coupling of two illuminants , wherein, for the provision of a mechanical and an electrical coupling by the two electrical plug connectors, the two plug connectors can be brought into engagement with one another such that the two plug connectors are connected to one another by shape matching in at least the longitudinal direction of the light strip, and wherein the male plug connector has a first housing having male plug contacts , with the male plug contacts being arranged in a cutout of the first housing , characterized in that the housing of the male plug connector has a phase selector switch by which a desired conductor L1, L2, or L3 can be controlled.
An apparatus configured to be employed within a base station, the apparatus comprising a processor configured to: generate a license assisted access, LAA, burst comprising a channel reservation signal, a LAA preamble, one or more downlink, DL, control channel messages, and one or more data payloads; generate LAA burst control information associated with the LAA burst, wherein the LAA burst control information comprises a length of the LAA burst and a request to send, RTS, message comprising receiver address information that indicates at least one UE designated to respond to the RTS message with a clear to send, CTS, message, said at least one UE indicated via a bitmap that associates UEs with a bit indicating whether a CTS message is requested as feedback; and generate a physical layer encoding of the LAA burst control information; and transmitter circuitry configured to transmit the physical layer encoding of the LAA burst control information via an unlicensed carrier. a processor configured to: generate a license assisted access, LAA, burst comprising a channel reservation signal, a LAA preamble, one or more downlink, DL, control channel messages, and one or more data payloads; generate LAA burst control information associated with the LAA burst, generate a license assisted access, LAA, burst comprising a channel reservation signal, a LAA preamble, one or more downlink, DL, control channel messages, and one or more data payloads; generate LAA burst control information associated with the LAA burst, wherein the LAA burst control information comprises a length of the LAA burst and a request to send, RTS, message comprising receiver address information that indicates at least one UE designated to respond to the RTS message with a clear to send, CTS, message, said at least one UE indicated via a bitmap that associates UEs with a bit indicating whether a CTS message is requested as feedback; and generate a physical layer encoding of the LAA burst control information; and transmitter circuitry configured to transmit the physical layer encoding of the LAA burst control information via an unlicensed carrier. generate a physical layer encoding of the LAA burst control information; and transmitter circuitry configured to transmit the physical layer encoding of the LAA burst control information via an unlicensed carrier.
A control method for a fuel cell system including a solid oxide fuel cell configured to generate power upon receipt of supply of an anode gas and a cathode gas, the control method comprising: an anode protection execution determination process of performing execution determination of an anode protection process of applying a predetermined protection current to the fuel cell in order to restrain catalyst oxidation in an anode of the fuel cell , characterized in that in the anode protection execution determination process, an internal impedance of the fuel cell at an anode response frequency at which an anode reaction resistance of the fuel cell is detectable is acquired, and based on the internal impedance at the anode response frequency, whether the anode protection process is to be executed or not is determined, wherein the anode response frequency corresponds to a low-frequency side anode reaction resistance peak (P 2A ) and/or a high-frequency side anode reaction resistance peak (P 3A ) in an internal impedance curve representing a variation in the internal impedance of the fuel cell with respect to a predetermined frequency range of a high-frequency alternate current signal superimposed on a direct current signal of the fuel cell . an anode protection execution determination process of performing execution determination of an anode protection process of applying a predetermined protection current to the fuel cell in order to restrain catalyst oxidation in an anode of the fuel cell , characterized in that in the anode protection execution determination process, an internal impedance of the fuel cell at an anode response frequency at which an anode reaction resistance of the fuel cell is detectable is acquired, and based on the internal impedance at the anode response frequency, whether the anode protection process is to be executed or not is determined, wherein the anode response frequency corresponds to a low-frequency side anode reaction resistance peak (P 2A ) and/or a high-frequency side anode reaction resistance peak (P 3A ) in an internal impedance curve representing a variation in the internal impedance of the fuel cell with respect to a predetermined frequency range of a high-frequency alternate current signal superimposed on a direct current signal of the fuel cell .
A method of controlling a lithographic system comprising a radiation source and a lithographic apparatus, wherein: the radiation source is configured to provide radiation to the lithographic apparatus; the lithographic apparatus is configured to use the radiation for imaging a pattern onto multiple target areas on a layer of photo-resist on a semiconductor substrate; the imaging requires a pre-determined dose of radiation; the method comprises setting a level of a power of the radiation in dependence on a magnitude of the pre-determined dose; characterized in that a total length of time for the imaging onto the multiple target areas includes: a first length of time for the imaging onto the multiple target areas in a first pass of the semiconductor substrate; and a second length of time for the imaging onto one or more specific ones of the multiple target areas in a second pass of the semiconductor substrate, the one or more specific target areas having failed to receive the pre-determined dose in the first pass; and wherein the method comprises: setting the level of the power of the radiation so as to keep the total length of time substantially at, or near, a minimum value. the radiation source is configured to provide radiation to the lithographic apparatus; the lithographic apparatus is configured to use the radiation for imaging a pattern onto multiple target areas on a layer of photo-resist on a semiconductor substrate; the imaging requires a pre-determined dose of radiation; the method comprises setting a level of a power of the radiation in dependence on a magnitude of the pre-determined dose; characterized in that a total length of time for the imaging onto the multiple target areas includes: a first length of time for the imaging onto the multiple target areas in a first pass of the semiconductor substrate; and a second length of time for the imaging onto one or more specific ones of the multiple target areas in a second pass of the semiconductor substrate, the one or more specific target areas having failed to receive the pre-determined dose in the first pass; a first length of time for the imaging onto the multiple target areas in a first pass of the semiconductor substrate; and a second length of time for the imaging onto one or more specific ones of the multiple target areas in a second pass of the semiconductor substrate, the one or more specific target areas having failed to receive the pre-determined dose in the first pass; and wherein the method comprises: setting the level of the power of the radiation so as to keep the total length of time substantially at, or near, a minimum value.
A cooking plate mountable into an opening of a resting surface , in particular of a surface of a kitchen worktop, wherein the cooking plate comprises: a component box for housing functional components of the cooking plate , which has a base and side walls , wherein at least one of the side walls is connected to a resting fin that can rest on the resting surface in a mounted state of the cooking plate in the opening , and a positioning device with at least a limiter limiting the minimum distance from the side wall to an opening edge in the mounted state of the cooking plate in the opening , wherein the limiter is adjustable in at least two fixed positions for limiting the minimum distance from the side wall of the component box to the edge of the opening , characterized in that the at least one limiter is made on at least a resting fin , wherein at least a limiter is made as at least a flange arranged at the perimeter of the resting fin that can be folded downwards according to the direction of installation of the cooking plate , thereby fixing the minimum distance to the side wall of the component box or wherein at least one limiter is made as at least an inner die-cutting point of the resting fin that can be folded downwards according to the direction of installation of the cooking plate , thereby fixing the minimum distance to the side wall of the component box . a component box for housing functional components of the cooking plate , which has a base and side walls , wherein at least one of the side walls is connected to a resting fin that can rest on the resting surface in a mounted state of the cooking plate in the opening , and a positioning device with at least a limiter limiting the minimum distance from the side wall to an opening edge in the mounted state of the cooking plate in the opening , wherein the limiter is adjustable in at least two fixed positions for limiting the minimum distance from the side wall of the component box to the edge of the opening , characterized in that the at least one limiter is made on at least a resting fin , wherein at least a limiter is made as at least a flange arranged at the perimeter of the resting fin that can be folded downwards according to the direction of installation of the cooking plate , thereby fixing the minimum distance to the side wall of the component box or wherein at least one limiter is made as at least an inner die-cutting point of the resting fin that can be folded downwards according to the direction of installation of the cooking plate , thereby fixing the minimum distance to the side wall of the component box .
A composition for use in promoting mucous membrane permeation of a therapeutically active ingredient, comprising at least one peptide selected from the group consisting of: a peptide comprising amino acid sequence represented by SEQ ID NO: 1; a peptide comprising amino acid sequence represented by SEQ ID NO: 2; a peptide comprising amino acid sequence represented by SEQ ID NO: 3; a peptide comprising amino acid sequence represented by SEQ ID NO: 4; a peptide comprising amino acid sequence represented by SEQ ID NO: 5; a peptide comprising amino acid sequence represented by SEQ ID NO: 12; a peptide comprising amino acid sequence represented by SEQ ID NO: 14; and a peptide comprising amino acid sequence represented by SEQ ID NO: 15.
A display apparatus with integrated touch screen, the display apparatus comprising: a light emitting device layer on a substrate ; an encapsulation layer on the light emitting device layer; a touch electrode layer on the encapsulation layer; an insulation layer on the touch electrode layer, wherein the insulation layer comprises a scattering surface including a micro lens pattern. a light emitting device layer on a substrate ; an encapsulation layer on the light emitting device layer; a touch electrode layer on the encapsulation layer; an insulation layer on the touch electrode layer, wherein the insulation layer comprises a scattering surface including a micro lens pattern.
Electrolytic cell, comprising the components: (a) at least one tubular cathode; (b) at least one rod-shaped or tubular anode which comprises a conductive carrier coated with a conductive diamond layer; (c) at least one inlet tube; (d) at least one outlet tube; and (e) at least two distributor apparatuses, wherein the distributor apparatuses have at least one connection point for at least one inlet or outlet tube and a connection point for the anode, and wherein the first distributor apparatus is designed to distribute electrolyte from the inlet tube into an electrolyte space and the second distributor apparatus is designed to collect converted electrolyte and to discharge said electrolyte via the outlet tube, and wherein the electrolyte space is formed as an annular gap between the inner anode and the outer cathode. (a) at least one tubular cathode; (b) at least one rod-shaped or tubular anode which comprises a conductive carrier coated with a conductive diamond layer; (c) at least one inlet tube; (d) at least one outlet tube; and (e) at least two distributor apparatuses, wherein the distributor apparatuses have at least one connection point for at least one inlet or outlet tube and a connection point for the anode, and wherein the first distributor apparatus is designed to distribute electrolyte from the inlet tube into an electrolyte space and the second distributor apparatus is designed to collect converted electrolyte and to discharge said electrolyte via the outlet tube, and wherein the electrolyte space is formed as an annular gap between the inner anode and the outer cathode.
An augmented reality, AR, or virtual reality, VR, device , the AR or VR device comprising: a waveguide , comprising an input region configured to receive light incident along a first direction, and an output region , wherein the waveguide is configured such that a first portion of the light passes along the waveguide, in a direction substantially perpendicular to the first direction, by total internal reflection towards the output region where it is outcoupled to a viewer to thereby form an image; a projector arranged adjacent to the waveguide, the projector for projecting the light into the waveguide at the input region; a housing for holding the projector and the waveguide with respect to one another, characterized by the housing comprising an aperture , the aperture arranged adjacent to the input region and spaced therefrom along the first direction on an opposite side of the input region in relation to the projector. a waveguide , comprising an input region configured to receive light incident along a first direction, and an output region , wherein the waveguide is configured such that a first portion of the light passes along the waveguide, in a direction substantially perpendicular to the first direction, by total internal reflection towards the output region where it is outcoupled to a viewer to thereby form an image; a projector arranged adjacent to the waveguide, the projector for projecting the light into the waveguide at the input region; a housing for holding the projector and the waveguide with respect to one another, characterized by the housing comprising an aperture , the aperture arranged adjacent to the input region and spaced therefrom along the first direction on an opposite side of the input region in relation to the projector.