mhurhangee/patent-ind-claim-en huggingface dataset:
A compound represented by the following formula : wherein R 1 is a hydrogen atom or a methyl group, R 2 is a monovalent hydrocarbon group having 1 to 6 carbon atoms, R 3 is a hydrogen atom or a methyl group and, L is a divalent hydrocarbon group having 2 to 10 carbon atoms and, optionally, having an ether bond.
Cooking hob comprising a control unit and a cooking panel, wherein - the control unit comprises at least one display formed as an input-output device, - at least a part of the display is touch-sensitive and/or formed as a touch screen, - the display is switchable between a cooking mode and a recipe mode, - the display includes at least one area , - in the cooking mode the area illustrates symbols and/or touch switches for controlling the cooking hob by a user, - in the recipe mode the area illustrates information as a two-dimensional representation for the user, and - the representation of information on the area is controlled or controllable by at least one symbol and/or touch switch on said area , - the control unit includes a switch button for switching over between the cooking mode and the recipe mode, characterized in that - the control unit comprises an on-off switch arranged outside and/or besides the display , - the display is an integrated part of the cooking panel, and - the on-off switch is arranged on said cooking panel. - the control unit comprises at least one display formed as an input-output device, - at least a part of the display is touch-sensitive and/or formed as a touch screen, - the display is switchable between a cooking mode and a recipe mode, - the display includes at least one area , - in the cooking mode the area illustrates symbols and/or touch switches for controlling the cooking hob by a user, - in the recipe mode the area illustrates information as a two-dimensional representation for the user, and - the representation of information on the area is controlled or controllable by at least one symbol and/or touch switch on said area , - the control unit includes a switch button for switching over between the cooking mode and the recipe mode, characterized in that - the control unit comprises an on-off switch arranged outside and/or besides the display , - the display is an integrated part of the cooking panel, and - the on-off switch is arranged on said cooking panel.
An aperiodic Zero Power Channel State Information Reference Signal ZP CSI-RS resource set determination method, performed by a User Equipment, UE, and comprising receiving (S11) a Physical Downlink Control Channel PDCCH, wherein the PDCCH schedules K time slots for transmitting a Physical Downlink Shared Channel PDSCH; the method being characterized by : extracting (S12) an indication information of the aperiodic ZP CSI-RS resource set from the PDCCH, wherein the indication information has a preset number of bits; extracting (S13) ⌈ log 2 J ⌉ bits from the indication information to obtain an extraction result, and determining a selected aperiodic ZP CSI-RS resource set according to the extraction result, where J is a number of available aperiodic ZP CSI-RS resource sets; and determining (S14), according to a comparison result between the number of bits of the indication information and ⌈ log 2 J ⌉ , a position of a ZP CSI-RS resource indicated by the selected aperiodic ZP CSI-RS resource set in the K time slots; wherein K is a positive integer and J is a positive integer. receiving (S11) a Physical Downlink Control Channel PDCCH, wherein the PDCCH schedules K time slots for transmitting a Physical Downlink Shared Channel PDSCH; the method being characterized by : extracting (S12) an indication information of the aperiodic ZP CSI-RS resource set from the PDCCH, wherein the indication information has a preset number of bits; extracting (S13) ⌈ log 2 J ⌉ bits from the indication information to obtain an extraction result, and determining a selected aperiodic ZP CSI-RS resource set according to the extraction result, where J is a number of available aperiodic ZP CSI-RS resource sets; and determining (S14), according to a comparison result between the number of bits of the indication information and ⌈ log 2 J ⌉ , a position of a ZP CSI-RS resource indicated by the selected aperiodic ZP CSI-RS resource set in the K time slots; wherein K is a positive integer and J is a positive integer. extracting (S12) an indication information of the aperiodic ZP CSI-RS resource set from the PDCCH, wherein the indication information has a preset number of bits; extracting (S13) ⌈ log 2 J ⌉ bits from the indication information to obtain an extraction result, and determining a selected aperiodic ZP CSI-RS resource set according to the extraction result, where J is a number of available aperiodic ZP CSI-RS resource sets; and determining (S14), according to a comparison result between the number of bits of the indication information and ⌈ log 2 J ⌉ , a position of a ZP CSI-RS resource indicated by the selected aperiodic ZP CSI-RS resource set in the K time slots; wherein K is a positive integer and J is a positive integer.
Method for controlling an aircraft with a rotary wing , said aircraft having a power plant comprising at least two engines burning fuel and a transmission chain connected to the rotary wing , each engine having a power shaft connected to the transmission chain , the method comprising an energy-saving phase (MODECENER) applicable on the ground and comprising at least one energy-saving period (STPASY), this energy-saving period (STPASY) comprising controlling, at an active rating, with a control system , one active engine from the at least two engines , in order to ensure rotation of the rotary wing , the active engine producing, at the active rating and with its power shaft , a non-zero active driving power, the energy-saving period (STPASY) comprising, together with the control of the active engine at the active rating, use of the control system to stop or use of the control system to control, at an inactive rating, each inactive engine from the at least two engines that is not the active engine, the inactive engine at the inactive rating producing, with its power shaft , a non-zero power that is less than the active driving power or zero power, characterized in that during which said energy-saving phase (MODECENER) comprises at least two alternating operating phases (PHASALT), each alternating operating phase (PHASALT) comprising an energy-saving period (STPASY) and a joint operation period (STPAEO), said joint operation period (STPAEO) comprising controlling the engines at the active rating with the control system .
A self-emulsifying drug delivery formulation for improved oral delivery of tocotrienols, said formulation comprising: a fat-soluble compound selected from tocotrienols; two emulsifiers each selected from the group consisting of nonionic surfactants, wherein the emulsifiers are sorbitan monolaurate (Span 20) and polyoxyethylene sorbitan 20 monooleate (Polysorbate 80); and an oil carrier selected from the group consisting of glycerides, characterized in that the amount of emulsifiers is 10% to 60%, by weight of the formulation, wherein the amount of oil carrier is 6% to 56%, by weight of the formulation, and wherein the oil carrier is glycerol trioleate oil, wherein said glycerol trioleate oil includes the main triglycerides of triolein, wherein said glycerol trioleate oil comprises of the amount of triolein 55% to 99% by weight of said glycerol trioleate oil. a fat-soluble compound selected from tocotrienols; two emulsifiers each selected from the group consisting of nonionic surfactants, wherein the emulsifiers are sorbitan monolaurate (Span 20) and polyoxyethylene sorbitan 20 monooleate (Polysorbate 80); and an oil carrier selected from the group consisting of glycerides, characterized in that the amount of emulsifiers is 10% to 60%, by weight of the formulation, wherein the amount of oil carrier is 6% to 56%, by weight of the formulation, and wherein the oil carrier is glycerol trioleate oil, wherein said glycerol trioleate oil includes the main triglycerides of triolein, wherein said glycerol trioleate oil comprises of the amount of triolein 55% to 99% by weight of said glycerol trioleate oil.
System for the environmental monitoring of precipitation events , comprising a central unit and one or more remote measuring units operatively connected to the central unit , in which the measuring unit or units comprise: - at least one receiver adapted to receive a radio signal transmitted by one or more microwave transmitters and to measure the power of the electrical signal generated by the reception of the radio signal p m , v dB ; - a transmitting system to transmit to the central unit a datum associated with the measured power, a piece of information about the transmitter (v) from which the radio signal was received and a piece of information about the measuring unit (m), and wherein the central unit comprises: a receiver for receiving data transmitted by the remote measuring unit or units ; - a processor unit operatively connected to the receiver and configured for calculating, on the basis of the data transmitted by the remote measuring unit or units , the attenuation of the radio signal p m , v 0 , dB − p m , v dB that crosses an observation zone from a plurality of different directions (m-v, m'-v'), said directions (m-v, m'-v') being defined each by a different pair of measuring unit (m) and microwave transmitter (v), in which pair the measuring unit (m) and the microwave transmitter (v) have a different position relative to the other measuring units (m) and the other transmitters; (v) the spatial distribution of precipitation events in said zone being reconstructed, based on the radio attenuations of the radio signals transmitted and received along said directions (m-v) between the different pairs of measuring units (m) and microwave transmitters (v). - at least one receiver adapted to receive a radio signal transmitted by one or more microwave transmitters and to measure the power of the electrical signal generated by the reception of the radio signal p m , v dB ; - a transmitting system to transmit to the central unit a datum associated with the measured power, a piece of information about the transmitter (v) from which the radio signal was received and a piece of information about the measuring unit (m), and wherein the central unit comprises: a receiver for receiving data transmitted by the remote measuring unit or units ; - a processor unit operatively connected to the receiver and configured for calculating, on the basis of the data transmitted by the remote measuring unit or units , the attenuation of the radio signal p m , v 0 , dB − p m , v dB that crosses an observation zone from a plurality of different directions (m-v, m'-v'), said directions (m-v, m'-v') being defined each by a different pair of measuring unit (m) and microwave transmitter (v), in which pair the measuring unit (m) and the microwave transmitter (v) have a different position relative to the other measuring units (m) and the other transmitters; (v) the spatial distribution of precipitation events in said zone being reconstructed, based on the radio attenuations of the radio signals transmitted and received along said directions (m-v) between the different pairs of measuring units (m) and microwave transmitters (v).
A biological corrosion inhibitor for a metal, comprising 3-methylglutaraldehyde as an effective ingredient, which is in a form of aqueous liquid having a total concentration of the effective ingredients in the range of 0.01 ppm to 3000 ppm.
A computer graphics animation method, wherein user inputs are received by a computer graphics application and motion paths of elements of a model in a 3D space are output corresponding to the user inputs, the method comprising: providing, to a display device , a display environment for presentation of the 3D space on the display device ; providing, to the display device , a camera view of a body in the display environment , the body including a reference point present in the 3D space, wherein the reference point is a point on, or relative to, a portion of the body ; associating one or more control mechanisms with the body , wherein a control mechanism of the one or more control mechanisms corresponds to a corresponding input parameter that defines movement of a corresponding portion of the body and/or a rate of movement in time of the portion of the body for changes in value of the corresponding input parameter; associating user inputs as inputs to the one or more control mechanisms, wherein changes in values of the plurality of input parameters specify animation details; providing, to the display device , in the camera view of the body , a motion path for the reference point; receiving motion path user inputs corresponding to values of the motion path in the 3D space; and computing, using an inverse mapping, the values of the motion path in the 3D space into the values of the plurality of input parameters wherein when the body is animated, the values of the plurality of input parameters in the parameter space are such that the reference point follows the motion path in the 3D space. providing, to a display device , a display environment for presentation of the 3D space on the display device ; providing, to the display device , a camera view of a body in the display environment , the body including a reference point present in the 3D space, wherein the reference point is a point on, or relative to, a portion of the body ; associating one or more control mechanisms with the body , wherein a control mechanism of the one or more control mechanisms corresponds to a corresponding input parameter that defines movement of a corresponding portion of the body and/or a rate of movement in time of the portion of the body for changes in value of the corresponding input parameter; associating user inputs as inputs to the one or more control mechanisms, wherein changes in values of the plurality of input parameters specify animation details; providing, to the display device , in the camera view of the body , a motion path for the reference point; receiving motion path user inputs corresponding to values of the motion path in the 3D space; and computing, using an inverse mapping, the values of the motion path in the 3D space into the values of the plurality of input parameters wherein when the body is animated, the values of the plurality of input parameters in the parameter space are such that the reference point follows the motion path in the 3D space.
A touch window with a touch sensor, the touch window comprising: a touch member of which a front surface is configured to be pressed by a user; a plurality of conductive printed portions printed on a rear surface of the touch member , the conductive printed portions being configured to respectively contact a plurality of conductive electrodes (P) of the touch sensor; and a non-conductive film attached to the rear surface of the touch member and in which one or more through-holes are formed, wherein the conductive electrodes (P) are compression springs and located on a rear surface of the conductive printed portions , wherein a front surface of the conductive printed portions is a surface printed on the rear surface of the touch member , wherein a capacitance is measured between the conductive electrodes (P) and a finger, wherein inner surfaces of the one or more through-holes are configured to respectively surround the conductive printed portions , and wherein the conductive printed portions and the non-conductive film have different thicknesses from each other such that surface condensation (W) on the conductive printed portions and surface condensation (W) on the non-conductive film are spaced apart from each other, wherein the inner surfaces of the one or more through-holes protrude further from the rear surface of the touch member than the conductive printed portions . a touch member of which a front surface is configured to be pressed by a user; a plurality of conductive printed portions printed on a rear surface of the touch member , the conductive printed portions being configured to respectively contact a plurality of conductive electrodes (P) of the touch sensor; and a non-conductive film attached to the rear surface of the touch member and in which one or more through-holes are formed, wherein the conductive electrodes (P) are compression springs and located on a rear surface of the conductive printed portions , wherein a front surface of the conductive printed portions is a surface printed on the rear surface of the touch member , wherein a capacitance is measured between the conductive electrodes (P) and a finger, wherein inner surfaces of the one or more through-holes are configured to respectively surround the conductive printed portions , and wherein the conductive printed portions and the non-conductive film have different thicknesses from each other such that surface condensation (W) on the conductive printed portions and surface condensation (W) on the non-conductive film are spaced apart from each other, wherein the inner surfaces of the one or more through-holes protrude further from the rear surface of the touch member than the conductive printed portions .
Zinc-iron rechargeable flow battery , comprising: - a first half-cell (102; 202) comprising a first electrolyte (116; 216) in which Zn 2+ ions are dissolved, derived from dissolution of zinc sulfamate (Zn(SO 3 NH 2 ) 2 ), zinc carbonate (ZnCOs) or a combination thereof, and an electrode (108; 208) disposed within the first half-cell, said first half-cell connected in a closed-loop configuration through a first pump (124; 224) to a first external tank (120; 220) containing the first electrolyte; - a second half-cell (104; 304) comprising a second electrolyte (118; 318) in which Fe 2+ and Fe 3+ ions are dissolved and one electrode (110; 310) disposed within the second half-cell, said second half-cell connected in a closed-loop configuration through a second pump (126; 326) to a second external tank (122; 322) containing the second electrolyte; and - a separator between the two half-cells. - a first half-cell (102; 202) comprising a first electrolyte (116; 216) in which Zn 2+ ions are dissolved, derived from dissolution of zinc sulfamate (Zn(SO 3 NH 2 ) 2 ), zinc carbonate (ZnCOs) or a combination thereof, and an electrode (108; 208) disposed within the first half-cell, said first half-cell connected in a closed-loop configuration through a first pump (124; 224) to a first external tank (120; 220) containing the first electrolyte; - a second half-cell (104; 304) comprising a second electrolyte (118; 318) in which Fe 2+ and Fe 3+ ions are dissolved and one electrode (110; 310) disposed within the second half-cell, said second half-cell connected in a closed-loop configuration through a second pump (126; 326) to a second external tank (122; 322) containing the second electrolyte; and - a separator between the two half-cells.
A sensor assembly for monitoring filling heights of containers filled with liquids , a first and a second light barrier being provided, which are each mounted relative to a container located in a detection position at a detection height H which is matched to a desired filling height S of this container, wherein the first light barrier emits light beams with a light wavelength which has a significantly greater absorption for the liquid than the light beams emitted by the second light barrier at a second light wavelength, and wherein, during the detection of the container in an evaluation unit, a joint evaluation of reception signals generated in the light barriers is carried out, 6b) or signals derived therefrom, characterised in that one or each light barrier is designed as a reflection light barrier having a transmitter , a receiver and a reflector , wherein the container is arranged between the transmitter and the receiver on the one hand and the reflector on the other hand, wherein the light beams cross at a crossing point, wherein the crossing point lies in the region of the container.
An image sensor comprising: a sensor substrate including a plurality of first pixels , configured to sense light of a first wavelength, and a plurality of second pixel configured to sense light of a second wavelength; a spacer layer on the sensor substrate, the spacer layer being transparent; and a color separating lens array on the spacer layer, the color separating lens array being configured to condense the light of the first wavelength incident on the color separating lens array toward the plurality of first pixels and to condense the light of the second wavelength incident on the color separating lens array towards the plurality of second pixels, wherein the color separating lens array includes a first lens layer on the spacer layer, a second lens layer on the first lens layer, and a first etch prevention layer between the first lens layer and the second lens layer, wherein the first lens layer and the second lens layer include a plurality of first pixel corresponding regions corresponding to the plurality of first pixels and a plurality of second pixel corresponding regions corresponding to the plurality of second pixels, and wherein the first lens layer and the second lens layer include a plurality of nanoposts (NP) disposed in the plurality of first pixel corresponding regions and the plurality of second pixel corresponding regions. a sensor substrate including a plurality of first pixels , configured to sense light of a first wavelength, and a plurality of second pixel configured to sense light of a second wavelength; a spacer layer on the sensor substrate, the spacer layer being transparent; and a color separating lens array on the spacer layer, the color separating lens array being configured to condense the light of the first wavelength incident on the color separating lens array toward the plurality of first pixels and to condense the light of the second wavelength incident on the color separating lens array towards the plurality of second pixels, wherein the color separating lens array includes a first lens layer on the spacer layer, a second lens layer on the first lens layer, and a first etch prevention layer between the first lens layer and the second lens layer, wherein the first lens layer and the second lens layer include a plurality of first pixel corresponding regions corresponding to the plurality of first pixels and a plurality of second pixel corresponding regions corresponding to the plurality of second pixels, and wherein the first lens layer and the second lens layer include a plurality of nanoposts (NP) disposed in the plurality of first pixel corresponding regions and the plurality of second pixel corresponding regions.