mhurhangee/patent-ind-claim-en huggingface dataset:
A device , comprising: a cover ; a printed wiring board ; a first conductive portion of the cover of the device; a first antenna feed configured to a first radio frequency band; a second antenna feed configured to a second radio frequency band; first and second slots on the printed wiring board , the first and second antenna feeds being respectively coupled to the first and second slots and the slots being coupled to the first conductive portion; a first capacitive component coupled to the printed wiring board and a first side of the first conductive portion; and a second capacitive component coupled to the printed wiring board and a second side of the first conductive portion that is opposite the first side; wherein the first and the second capacitive components are configured between the printed wiring board and the first conductive portion. a cover ; a printed wiring board ; a first conductive portion of the cover of the device; a first antenna feed configured to a first radio frequency band; a second antenna feed configured to a second radio frequency band; first and second slots on the printed wiring board , the first and second antenna feeds being respectively coupled to the first and second slots and the slots being coupled to the first conductive portion; a first capacitive component coupled to the printed wiring board and a first side of the first conductive portion; and a second capacitive component coupled to the printed wiring board and a second side of the first conductive portion that is opposite the first side; wherein the first and the second capacitive components are configured between the printed wiring board and the first conductive portion. a first conductive portion of the cover of the device; a first antenna feed configured to a first radio frequency band; a second antenna feed configured to a second radio frequency band; first and second slots on the printed wiring board , the first and second antenna feeds being respectively coupled to the first and second slots and the slots being coupled to the first conductive portion; a first capacitive component coupled to the printed wiring board and a first side of the first conductive portion; and a second capacitive component coupled to the printed wiring board and a second side of the first conductive portion that is opposite the first side; wherein the first and the second capacitive components are configured between the printed wiring board and the first conductive portion.
A differential signature object detection system, the system comprising: at least one target sensor , wherein the at least one target sensor is configured to measure acoustical signals within a first band around a target frequency, the target frequency corresponding to a signature frequency emitted by a target object; at least one offset sensor , wherein the at least one offset sensor is configured to measure acoustical signals within a second band around an offset frequency, the offset frequency being offset from the target frequency, wherein the second band is narrow such that the target frequency is not within the second band; and a controller coupled to the at least one target sensor and the at least one offset sensor , wherein the controller is configured to: compare a signal output of the at least one target sensor with an output of the signal output of the at least one offset sensor to calculate a differential measurement that comprises a difference in signal peak intensity; compare the differential measurement to a reference signal, wherein the reference signal comprises a threshold indicative of a presence of a characteristic signature peak associated with the target object; and produce an output based on the comparison between the differential measurement and the reference signal. at least one target sensor , wherein the at least one target sensor is configured to measure acoustical signals within a first band around a target frequency, the target frequency corresponding to a signature frequency emitted by a target object; at least one offset sensor , wherein the at least one offset sensor is configured to measure acoustical signals within a second band around an offset frequency, the offset frequency being offset from the target frequency, wherein the second band is narrow such that the target frequency is not within the second band; and a controller coupled to the at least one target sensor and the at least one offset sensor , wherein the controller is configured to: compare a signal output of the at least one target sensor with an output of the signal output of the at least one offset sensor to calculate a differential measurement that comprises a difference in signal peak intensity; compare the differential measurement to a reference signal, wherein the reference signal comprises a threshold indicative of a presence of a compare a signal output of the at least one target sensor with an output of the signal output of the at least one offset sensor to calculate a differential measurement that comprises a difference in signal peak intensity; compare the differential measurement to a reference signal, wherein the reference signal comprises a threshold indicative of a presence of a characteristic signature peak associated with the target object; and
An electric water heater , in particular an electronic instantaneous water heater, hot water system, drinking water heat pump, small water heater, wall mounted cylinder, floor mounted cylinder and/or automatic water boiler, comprising: - a flow channel including a heating section , - a heating element , in particular a bare wire heating element, disposed in the region of the heating section, - a measuring sensor having two spaced apart electrodes reaching into the flow channel, and which is configured for measuring a resistance of a fluid flowing through the flow channel by applying an AC voltage across the two spaced apart electrodes ; and - an electronic control device for controlling the electric water heater, wherein the electronic control device is configured to control a heating output of the heating element in dependence of the measured resistance, in particular to interrupt the heating output when a threshold value of the resistance is not met and/or exceeded, wherein the flow channel includes an upstream section , the heating section and a downstream section , characterised in that the measuring sensor is disposed in the downstream section . - a flow channel including a heating section , - a heating element , in particular a bare wire heating element, disposed in the region of the heating section, - a measuring sensor having two spaced apart electrodes reaching into the flow channel, and which is configured for measuring a resistance of a fluid flowing through the flow channel by applying an AC voltage across the two spaced apart electrodes ; and - an electronic control device for controlling the electric water heater, wherein the electronic control device is configured to control a heating output of the heating element in dependence of the measured resistance, in particular to interrupt the heating output when a threshold value of the resistance is not met and/or exceeded,
Closure plug for a drain opening of a drain channel of a sink, a tub or the like, comprising, along a longitudinal axis from top to bottom, an upper closure part which is visible from the top in the drain opening; a container open towards an upper and a lower end, the upper end of which is connected to the closure part and sealed against it, the container having, at its upper end, an outer closure rim protruding towards the outside, which is formed so as to fit the drain opening in order to perform a closure function and which has a lateral wall with at least one through opening , which are adapted to absorb a substance or agent which is slowly consumed in water and to exchange water and fragrances with the drain channel via the through opening ; a bottom closing the lower end of the container , the bottom being the lowest part of the closure plug along the longitudinal axis and being formed on the outside as an abutment for a closure and opening arm of the drain channel; characterized in that the container is adjustable in length along its longitudinal axis so as to be adaptable, in the operational state, to a basic height of the closure and opening arm in the drain channel; the container having, along its longitudinal axis, an upper container part and a lower container part adapted such that an upper container wall of the upper container part and a lower container wall of the lower container part are insertable and slidable with respect to each other along the longitudinal axis such that the substance or agent is prevented from falling out of the container , and have a mutually communicating lock-in mechanism so as to generate, when sliding along the longitudinal axis, a greater retention force with respect to each other at predefined heights than at other heights, so as to lock at the predefined heights.
A method for reprogramming an animal differentiated somatic cell to an undifferentiated pluripotent stem cell, comprising the steps of: (a) isolating the nucleus, DNA, or chromatin from said differentiated somatic cell and encapsulating said nucleus, DNA, or chromatin in a new nuclear envelope in vitro using a cell-free extract from undifferentiated cells to form a remodelled nucleus, wherein the cell-free extract is capable of forming nuclear envelopes around naked DNA or chromatin, wherein the cell-free extract is an extract from embryonic stem cells, an extract from embryonic germ cells, an extract from embryonal carcinoma cells or an extract from oocytes; and (b) transferring or fusing the resulting remodelled nucleus from step (a) into the enucleated cytoplasm of an undifferentiated embryonic cell selected from an embryonic stem cell, an embryonic germ cell or an embryonal carcinoma cell to form an undifferentiated pluripotent stem cell and allowing the resulting undifferentiated pluripotent stem cell to grow. (a) isolating the nucleus, DNA, or chromatin from said differentiated somatic cell and encapsulating said nucleus, DNA, or chromatin in a new nuclear envelope in vitro using a cell-free extract from undifferentiated cells to form a remodelled nucleus, wherein the cell-free extract is capable of forming nuclear envelopes around naked DNA or chromatin, wherein the cell-free extract is an extract from embryonic stem cells, an extract from embryonic germ cells, an extract from embryonal carcinoma cells or an extract from oocytes; and (b) transferring or fusing the resulting remodelled nucleus from step (a) into the enucleated cytoplasm of an undifferentiated embryonic cell selected from an embryonic stem cell, an embryonic germ cell or an embryonal carcinoma cell to form an undifferentiated pluripotent stem cell and allowing the resulting undifferentiated pluripotent stem cell to grow.
A multimedia information presentation method, comprising: obtaining (S101) current first environment characteristic information of a terminal in a screen-off state; determining (S102), according to the first environment characteristic information and a preset first mapping relationship between environment characteristic information and multimedia information, first multimedia information corresponding to the first environment characteristic information; and presenting (S103) the first multimedia information corresponding to the first environment characteristic information to a user, where the terminal keeps in the screen-off state when presenting the first multimedia information to the user, and does not enter a lock screen state or an unlock state, wherein the first environment characteristic information comprises temperature information of an environment in which the terminal is located, and the first mapping relationship comprises a mapping relationship between different temperature information and multimedia information, characterized in that the presenting (S103) the first multimedia information corresponding to the first environment characteristic information to a user specifically comprises: playing, by using a loudspeaker, the first multimedia information corresponding to the first environment characteristic information for the user. obtaining (S101) current first environment characteristic information of a terminal in a screen-off state; determining (S102), according to the first environment characteristic information and a preset first mapping relationship between environment characteristic information and multimedia information, first multimedia information corresponding to the first environment characteristic information; and presenting (S103) the first multimedia information corresponding to the first environment characteristic information to a user, where the terminal keeps in the screen-off state when presenting the first multimedia information to the user, and does not enter a lock screen state or an unlock state, wherein the first environment characteristic information comprises temperature information of an environment in which the terminal is located, and the first mapping relationship comprises a mapping relationship between different temperature information and multimedia information, characterized in that the presenting (S103) the first multimedia information corresponding to the first environment characteristic information to a user specifically comprises: playing, by using a loudspeaker, the first multimedia information corresponding to the first environment characteristic information for the user.
A method of improving the efficiency of an electrically small antenna , the method comprising the following steps: • selecting an antenna; • electrically feeding said selected antenna ; • quantifying the energy stored in the selected antenna at a given transmission frequency; • determining the nature of the antenna as a function of the quantified stored energy, this determination comprising comparing said quantity of stored energy with an energy threshold, the antenna being of electric nature if the quantified stored energy is below the energy threshold, and otherwise being of magnetic nature ; and • selecting a metamaterial inclusion for associating with the selected antenna in order to improve its efficiency, the selection being made from a list of inclusions as a function of the nature of the selected antenna . • selecting an antenna; • electrically feeding said selected antenna ; • quantifying the energy stored in the selected antenna at a given transmission frequency; • determining the nature of the antenna as a function of the quantified stored energy, this determination comprising comparing said quantity of stored energy with an energy threshold, the antenna being of electric nature if the quantified stored energy is below the energy threshold, and otherwise being of magnetic nature ; and • selecting a metamaterial inclusion for associating with the selected antenna in order to improve its efficiency, the selection being made from a list of inclusions as a function of the nature of the selected antenna .
A user terminal comprising: a transmission processing section configured to generate an SC-FDMA, Single Carrier Frequency Division Multiple Access, signal by: dividing N Fr symbols of a given time region of an input signal into N blk blocks each comprising M symbols, where M is the DFT size, the input signal having a symbol rate equal to or lower than a Nyquist rate of the input signal; subjecting each of N blk +z blocks, where z>0, of M symbols to OQAM, Offset Quadrature Amplitude Modulation, mapping; and multiplexing the N blk +z OQAM-mapped blocks such that the N blk +z blocks of M symbols each, are mapped in said time region, by partially overlapping adjacent blocks in the time domain; and subjecting the resulting N blk blocks of M symbols to SC-FDMA generation; and a transmission section configured to transmit the SC-FDMA signal to a radio base station. a transmission processing section configured to generate an SC-FDMA, Single Carrier Frequency Division Multiple Access, signal by: dividing N Fr symbols of a given time region of an input signal into N blk blocks each comprising M symbols, where M is the DFT size, the input signal having a symbol rate equal to or lower than a Nyquist rate of the input signal; subjecting each of N blk +z blocks, where z>0, of M symbols to OQAM, Offset Quadrature Amplitude Modulation, mapping; and multiplexing the N blk +z OQAM-mapped blocks such that the N blk +z blocks of M symbols each, are mapped in said time region, by partially overlapping adjacent blocks in the time domain; and subjecting the resulting N blk blocks of M symbols to SC-FDMA generation; and dividing N Fr symbols of a given time region of an input signal into N blk blocks each comprising M symbols, where M is the DFT size, the input signal having a symbol rate equal to or lower than a Nyquist rate of the input signal; subjecting each of N blk +z blocks, where z>0, of M symbols to OQAM, Offset Quadrature Amplitude Modulation, mapping; and multiplexing the N blk +z OQAM-mapped blocks such that the N blk +z blocks of M symbols each, are mapped in said time region, by partially overlapping adjacent blocks in the time domain; and subjecting the resulting N blk blocks of M symbols to SC-FDMA generation; and a transmission section configured to transmit the SC-FDMA signal to a radio base station.
A camshaft cover for a double-cylinder engine, having an integral structure, and comprising a first shaft cover portion , a second shaft cover portion , a first connecting portion and a second connecting portion , wherein the first connecting portion and the second connecting portion are connected between the first shaft cover portion and the second shaft cover portion , and spaced apart axially, wherein an oil gallery is arranged in the camshaft cover , each of a bottom of the first shaft cover portion and a bottom of the second shaft cover portion is provided with at least two shaft holes spaced apart axially, and oil holes in communication with the oil gallery are formed at the at least two shaft holes, respectively, characterized in that a projection of the oil hole in a plane perpendicular to the camshaft cover has an arc shape. wherein an oil gallery is arranged in the camshaft cover , each of a bottom of the first shaft cover portion and a bottom of the second shaft cover portion is provided with at least two shaft holes spaced apart axially, and oil holes in communication with the oil gallery are formed at the at least two shaft holes, respectively, characterized in that a projection of the oil hole in a plane perpendicular to the camshaft cover has an arc shape.
A gas turbine engine comprising: a high speed spool and a low speed spool ; and a low speed power takeoff driven by said low speed spool and a high speed power takeoff driven by said high speed spool , said low speed power takeoff driving a plurality of low speed driven accessories about low speed spool drive axes (Y 1 ,Y 2 ,Y 3 ,Y 4 ) and said high speed power takeoff driving a plurality of high speed driven accessories about high speed spool drive axes (X 1 ,X 2 ,X 3 ), characterised in that : said low speed spool drive axes (Y 1 ...Y 4 ) are generally tangential to a circumferential envelope (E) defined about a center axis (C) of said engine , said high speed spool drive axes (X 1 ...X 3 ) are generally tangential to a circumferential envelope (E) defined about said center axis (C), said plurality of low speed driven accessories are intermeshed with and configured for rotation by said low speed power takeoff about said low speed spool drive axes (Y 1 ...Y 4 ), and said plurality of high speed driven accessories are intermeshed with and configured for rotation by said high speed power takeoff about said high speed spool drive axes (X 1 ...X 3 ). a high speed spool and a low speed spool ; and a low speed power takeoff driven by said low speed spool and a high speed power takeoff driven by said high speed spool , said low speed power takeoff driving a plurality of low speed driven accessories about low speed spool drive axes (Y 1 ,Y 2 ,Y 3 ,Y 4 ) and said high speed power takeoff driving a plurality of high speed driven accessories about high speed spool drive axes (X 1 ,X 2 ,X 3 ), characterised in that : said low speed spool drive axes (Y 1 ...Y 4 ) are generally tangential to a circumferential envelope (E) defined about a center axis (C) of said engine , said high speed spool drive axes (X 1 ...X 3 ) are generally tangential to a circumferential envelope (E) defined about said center axis (C), said plurality of low speed driven accessories are intermeshed with and configured for rotation by said low speed power takeoff about said low speed spool drive axes (Y 1 ...Y 4 ), and said plurality of high speed driven accessories are intermeshed with and configured for rotation by said high speed power takeoff about said high speed spool drive axes (X 1 ...X 3 ).
A process for preparing an anhydrous crystalline polymorph of S-equol, represented by the structure: the process comprising reacting bis-pivaloyl-S-equol with a base, optionally in the presence of one or more solvents, followed by a crystallization step; wherein the anhydrous crystalline polymorph is characterized by an X-ray powder diffraction pattern having characteristic peaks expressed in degrees 2Θ at 11.49, 18.64, 18.89, 19.85, 21.09, 22.00 and 26.69 when determined using a diffractometer in reflection geometry in the range from degrees 2 Θ = 3 - 35 with increments of 0.0167 using Cu radiation at 20 °C.
Dating system for injection molds, comprising: - a marking element that engraves a determined date; said marking element comprising interchangeable inserts that indicate said determined date, said determined date being defined by letters and/or numbers, forming a line, wherein said interchangeable inserts are removably mounted on a support , characterized in that the dating system also comprises a handling tool to place and remove said interchangeable inserts , wherein said handling tool comprises a recess for one or more interchangeable inserts , and a stop for retaining said interchangeable inserts in said recess . - a marking element that engraves a determined date; said marking element comprising interchangeable inserts that indicate said determined date, said determined date being defined by letters and/or numbers, forming a line, wherein said interchangeable inserts are removably mounted on a support , characterized in that the dating system also comprises a handling tool to place and remove said interchangeable inserts , wherein said handling tool comprises a recess for one or more interchangeable inserts , and a stop for retaining said interchangeable inserts in said recess .