mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna assembly , comprising: a blade antenna for communicating a first signal; a planar antenna array for communicating a second signal, the planar antenna array comprising: an array of antenna elements , the array of antenna elements comprising a plurality antenna elements arranged in rows using the blade antenna as a conductive ground plane; a Rotman lens , formed by using the blade antenna as the conductive ground plane, the Rotman lens having a set of Rotman lens array ports and a set of Rotman lens beam ports , each element of a respective row of the antenna elements communicatively coupled to a respective one port of the set of Rotman lens array ports ; a signal processor , having: a set of signal processor first ports , each signal processor first port communicatively coupled to a respective one of the set of Rotman lens beam ports ; a second signal processor port , the second signal processor port for communicating the second signal; and wherein the signal processor is configured to selectively couple the second signal processor port to one or more of the signal processor first ports . a blade antenna for communicating a first signal; a planar antenna array for communicating a second signal, the planar antenna array comprising: an array of antenna elements , the array of antenna elements comprising a plurality antenna elements arranged in rows using the blade antenna as a conductive ground plane; a Rotman lens , formed by using the blade antenna as the conductive ground plane, the Rotman lens having a set of Rotman lens array ports and a set of Rotman lens beam ports , each element of a respective row of the antenna elements communicatively coupled to a respective one port of the set of Rotman lens array ports ; an array of antenna elements , the array of antenna elements comprising a plurality antenna elements arranged in rows using the blade antenna as a conductive ground plane; a Rotman lens , formed by using the blade antenna as the conductive ground plane, the Rotman lens having a set of Rotman lens array ports and a set of Rotman lens beam ports , each element of a respective row of the antenna elements communicatively coupled to a respective one port of the set of Rotman lens array ports ; a signal processor , having: a set of signal processor first ports , each signal processor first port communicatively coupled to a respective one of the set of Rotman lens beam ports ; a second signal processor port , the second signal processor port for communicating the second signal; and wherein the signal processor is configured to selectively couple the second signal processor port to one or more of the signal processor first ports . a set of signal processor first ports , each signal processor first port communicatively coupled to a respective one of the set of Rotman lens beam ports ; a second signal processor port , the second signal processor port for communicating the second signal; and wherein the signal processor is configured to selectively couple the second signal processor port to one or more of the signal processor first ports .
A cleaning apparatus comprising, a substrate ; at least one electrode placed on top of said substrate ; a voltage application part which applies high-frequency alternating current voltage based on the reference frequency pre-set to said electrodes ; and a switching part which is configured to switch on/off the applied high frequency alternating current voltage at a lower frequency than said reference frequency, characterized in that : low-frequency alternating current voltage is generated by on/off switching by said switching part of said high-frequency alternating current voltage; wherein the cleaning apparatus is able to remove conductive and non-conductive droplets by means of said switching, and wherein said conductive and said non-conductive droplets oscillate by application of said high-frequency alternating current voltage and said low-frequency alternating current voltage simultaneously to said electrodes . a substrate ; at least one electrode placed on top of said substrate ; a voltage application part which applies high-frequency alternating current voltage based on the reference frequency pre-set to said electrodes ; and a switching part which is configured to switch on/off the applied high frequency alternating current voltage at a lower frequency than said reference frequency, characterized in that : low-frequency alternating current voltage is generated by on/off switching by said switching part of said high-frequency alternating current voltage; wherein the cleaning apparatus is able to remove conductive and non-conductive droplets by means of said switching, and wherein said conductive and said non-conductive droplets oscillate by application of said high-frequency alternating current voltage and said low-frequency alternating current voltage simultaneously to said electrodes . low-frequency alternating current voltage is generated by on/off switching by said switching part of said high-frequency alternating current voltage; wherein the cleaning apparatus is able to remove conductive and non-conductive droplets by means of said switching, and wherein said conductive and said non-conductive droplets oscillate by application of said high-frequency alternating current voltage and said low-frequency alternating current voltage simultaneously to said electrodes .
Torque tool with a display system , which is provided to measure and/or apply a torque, comprising a) a housing with a handle on one end, whereby a measurement gauge is arranged in the housing to detect the torque, b) a connecting member on the other end of the housing , which transfers the torque to a workpiece, c) a processor-controlled control unit to digitally process the data settings and/or measured data d) a display , which cooperates with the control unit and graphically displays content and/or data such as the current torque applied and/or the torque setting, whereby e) a transmission device and a separate display device are provided to transmit and display the graphic content and/or the data, characterized in that f) the display device is designed as a head-up display, which is formed by a projection screen on which the display is projected by means of a projector , wherein g) the projection screen is provided on a glasses-like holder , which projects the display by means of the projector directly in front of one eye of a user, and h) a camera is provided on the torque tool and/or the glasses-like holder , which detects the workpiece and for which the torque tool is designed so that via image recognition the correct torque is queried from a database to automatically set the torque tool . a) a housing with a handle on one end, whereby a measurement gauge is arranged in the housing to detect the torque, b) a connecting member on the other end of the housing , which transfers the torque to a workpiece, c) a processor-controlled control unit to digitally process the data settings and/or measured data d) a display , which cooperates with the control unit and graphically displays content and/or data such as the current torque applied and/or the torque setting, whereby e) a transmission device and a separate display device are provided to transmit and display the graphic content and/or the data, characterized in that f) the display device is designed as a head-up display, which is formed by a projection screen on which the display is projected by means of a projector , wherein g) the projection screen is provided on a glasses-like holder , which projects the display by means of the projector directly in front of one eye of a user, and h) a camera is provided on the torque tool and/or the glasses-like holder , which detects the workpiece and for which the torque tool is designed so that via image recognition the correct torque is queried from a database to automatically set the torque tool .
A container for menstrual collection and emptying thereof, said container comprising a cup-shaped body , a flexible drainage tube connected to a hole in a base of the cup-shaped body for the drainage of menstrual liquid, and a closure system, the drainage tube having a constant inner diameter, wherein the drainage tube has several wall thicknesses, including: a first thick-walled portion that is arranged adjacent to the hole , a second thin-walled portion that is arranged next to the first thick-walled portion , a third thick-walled portion that is arranged following the second thin-walled portion , and a final or fourth thin-walled portion that is arranged following the third thick-walled portion ; the second thin-walled portion has a wall thickness thinner than the first thick-walled portion and the third thick-walled portion , and the fourth thin-walled portion has a thinner wall thickness than the third thick-walled portion ; wherein the second thin-walled portion is configured to be folded and when the second thin-walled portion is folded upwards, a middle region of the drainage tube is configured to be closed off, blocking the liquid passageway, whereby the second thin-walled portion is configured to act as a valve constituting the closure system; and the drainage tube is configured to rest directly on the vaginal wall itself when the container is in use and the drainage tube is folded by the second thin-walled portion . the drainage tube has several wall thicknesses, including: a first thick-walled portion that is arranged adjacent to the hole , a second thin-walled portion that is arranged next to the first thick-walled portion , a third thick-walled portion that is arranged following the second thin-walled portion , and a final or fourth thin-walled portion that is arranged following the third thick-walled portion ; the second thin-walled portion has a wall thickness thinner than the first thick-walled portion and the third thick-walled portion , and the fourth thin-walled portion has a thinner wall thickness than the third thick-walled portion ; wherein the second thin-walled portion is configured to be folded and when the second thin-walled portion is folded upwards, a middle region of the drainage tube is configured to be closed off, blocking the liquid passageway, whereby the second thin-walled portion is configured to act as a valve constituting the closure system; and the drainage tube is configured to rest directly on the vaginal wall itself when the container is in use and the drainage tube is folded by the second thin-walled portion .
A device comprising: a multi-channel encoder configured to: receive at least a first audio signal and a second audio signal; perform a downmix operation on the first audio signal and the second audio signal to generate a mid signal; generate a low-band mid signal and a high-band mid signal based on the mid signal, the low-band mid signal corresponding to a low frequency portion of the mid signal and the high-band mid signal corresponding to a high frequency portion of the mid signal; determine, based at least partially on a voicing value corresponding to the low-band mid signal and a gain value corresponding to the high-band mid signal, a value of a non-harmonic high-band, HB, flag associated with the high-band mid signal, wherein the non-harmonic HB flag indicates a harmonic metric of the high-band mid signal; generate a high-band mid excitation signal based at least in part on the non-harmonic HB flag; and generate a bitstream based at least in part on the high-band mid excitation signal; and a transmitter configured to transmit the bitstream and the non-harmonic HB flag to a second device. a multi-channel encoder configured to: receive at least a first audio signal and a second audio signal; perform a downmix operation on the first audio signal and the second audio signal to generate a mid signal; generate a low-band mid signal and a high-band mid signal based on the mid signal, the low-band mid signal corresponding to a low frequency portion of the mid signal and the high-band mid signal corresponding to a high frequency portion of the mid signal; determine, based at least partially on a voicing value corresponding to the low-band mid signal and a gain value corresponding to the high-band mid signal, a value of a non-harmonic high-band, HB, flag associated with the high-band mid signal, wherein the non-harmonic HB flag indicates a harmonic metric of the high-band mid signal; generate a high-band mid excitation signal based at least in part on the non-harmonic HB flag; and generate a bitstream based at least in part on the high-band mid excitation signal; and receive at least a first audio signal and a second audio signal; perform a downmix operation on the first audio signal and the second audio signal to generate a mid signal; generate a low-band mid signal and a high-band mid signal based on the mid signal, the low-band mid signal corresponding to a low frequency portion of the mid signal and the high-band mid signal corresponding to a high frequency portion of the mid signal; determine, based at least partially on a voicing value corresponding to the low-band mid signal and a gain value corresponding to the high-band mid signal, a value of a non-harmonic high-band, HB, flag associated with the high-band mid signal, wherein the non-harmonic HB flag indicates a harmonic metric of the high-band mid signal; generate a high-band mid excitation signal based at least in part on the non-harmonic HB flag; and generate a bitstream based at least in part on the high-band mid excitation signal; and a transmitter configured to transmit the bitstream and the non-harmonic HB flag to a second device.
Polymerization process for the synthesis of vinyl aromatic polymers, in which the sequence of monomers in the chain and the linear, branched soluble, or crosslinked insoluble structure, with reactive or different polarity functions, are controlled; which comprises the step of polymerizing vinyl aromatic monomers by means of an Atom Transfer Radical Polymerization (ATRP) reaction with an Activator ReGenerated by Electron Transfer (ARGET), the reaction being carried out at a temperature comprised between 25°C and 110°C in an inert gas atmosphere in the presence of a complex catalyst containing a cupric halide and a multidentate amine ligand, feeding to the reaction an organic initiator having two geminal halogens, an alkali metal (bi)carbonate, a solvent pair of an aliphatic alcohol and an acetic ester of the same aliphatic alcohol and possibly ascorbic acid, provided that no initiator is used with three or more active halogens, or polyvinyl monomers or inimers.
A refrigerator comprising a body ; a fresh food compartment which is disposed in the body ; a crisper which is provided in the fresh food compartment ; a crisper lid which covers the crisper so as to maintain the humidity level; a crisper lid upper body (5.1) which forms the upper side of the crisper lid and a crisper lid lower body (5.2) which forms the lower side thereof; a water tank which is detachably attached into the body and which is used for storing water; a piezoelectric member which receives the water in the water tank ; a humidifier which enables cold vapor to be delivered into the crisper by means of the piezoelectric member and which is positioned in the body ; wherein the water tank is positioned adjacent to the crisper lid upper body (5.1), characterized in that - the crisper lid comprises openings at rear section through which air enters into the crisper and a perforated structure at the front section through which the air is discharged, and - the water tank is positioned at right, left, and/or front section of the crisper lid upper body (5.1) so as to be outside the air flow path in the crisper . - the crisper lid comprises openings at rear section through which air enters into the crisper and a perforated structure at the front section through which the air is discharged, and - the water tank is positioned at right, left, and/or front section of the crisper lid upper body (5.1) so as to be outside the air flow path in the crisper .
A separator for a non-aqueous secondary battery, comprising: a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, wherein the adhesive porous layer contains a polyvinylidene fluoride type resin including a vinylidene fluoride monomer unit and a hexafluoropropylene monomer unit, and the polyvinylidene fluoride type resin has an acid value of from 3.0 mgKOH/g to 20 mgKOH/g, wherein the acid value is measured by a potentiometric titration method. a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, wherein the adhesive porous layer contains a polyvinylidene fluoride type resin including a vinylidene fluoride monomer unit and a hexafluoropropylene monomer unit, and the polyvinylidene fluoride type resin has an acid value of from 3.0 mgKOH/g to 20 mgKOH/g, wherein the acid value is measured by a potentiometric titration method.
An amplitude shift keying, ASK, demodulator for demodulating an input signal, comprising: a frequency filter configured to receive the input signal, wherein the frequency filter includes adjustable components configured to adjust the frequency response of the frequency filter; a rectifier configured to rectify an output of the frequency filter, wherein the rectifier includes an adjustable current source configured to adjust the current consumption of the rectifier; a reference signal generator configured to produce a reference signal; a current to voltage converter configured to convert the current of the rectified signal to a rectified voltage and to convert the current of the reference signal to a reference voltage; and a comparator configured to compare the rectified voltage to the reference voltage and to produce a demodulated output signal. a frequency filter configured to receive the input signal, wherein the frequency filter includes adjustable components configured to adjust the frequency response of the frequency filter; a rectifier configured to rectify an output of the frequency filter, wherein the rectifier includes an adjustable current source configured to adjust the current consumption of the rectifier; a reference signal generator configured to produce a reference signal; a current to voltage converter configured to convert the current of the rectified signal to a rectified voltage and to convert the current of the reference signal to a reference voltage; and a comparator configured to compare the rectified voltage to the reference voltage and to produce a demodulated output signal.
A method of detecting formation of a multi-specific molecule, the method comprising: a. obtaining a multi-specific molecule sample; b. obtaining a reversed-phase high performance liquid chromatography (RP-HPLC) column; c. contacting the multi-specific molecule sample in a polar aqueous mobile phase A with the RP-HPLC column, wherein the polar aqueous mobile phase A is a solution comprising about 1% to about 5% isopropanol and an ion-pairing agent; d. contacting an organic non-polar mobile phase B with the RP-HPLC column, wherein the organic non-polar mobile phase B is a solution comprising about 60% to about 80% isopropanol and about 15% to about 25% acetonitrile and an ion-pairing agent; e. eluting the multi-specific molecule sample; and f. monitoring the amount of multi-specific molecule formation in the eluted multispecific molecule sample. a. obtaining a multi-specific molecule sample; b. obtaining a reversed-phase high performance liquid chromatography (RP-HPLC) column; c. contacting the multi-specific molecule sample in a polar aqueous mobile phase A with the RP-HPLC column, wherein the polar aqueous mobile phase A is a solution comprising about 1% to about 5% isopropanol and an ion-pairing agent; d. contacting an organic non-polar mobile phase B with the RP-HPLC column, wherein the organic non-polar mobile phase B is a solution comprising about 60% to about 80% isopropanol and about 15% to about 25% acetonitrile and an ion-pairing agent; e. eluting the multi-specific molecule sample; and f. monitoring the amount of multi-specific molecule formation in the eluted multispecific molecule sample.
A sonic label welding device for welding multiple labels together using ultrasonic welding, comprising: an anvil ; a head ; a converter; a sonic horn ; a power supply; wherein the power supply delivers an electrical signal, the converter converts the electrical signal into a mechanical vibration, and the sonic horn applies the high frequency, mechanical vibration to the multiple labels to be welded together, characterized in that the sonic label welding device further comprises a digital controls main menu screen comprising touch screen buttons that are utilized to go to specific screens and the touch screen buttons comprise one or more of the following: a registration button , a cut to length button , a printer screen button , and a timer button. an anvil ; a head ; a converter; a sonic horn ; a power supply; wherein the power supply delivers an electrical signal, the converter converts the electrical signal into a mechanical vibration, and the sonic horn applies the high frequency, mechanical vibration to the multiple labels to be welded together, characterized in that the sonic label welding device further comprises a digital controls main menu screen comprising touch screen buttons that are utilized to go to specific screens and the touch screen buttons comprise one or more of the following: a registration button , a cut to length button , a printer screen button , and a timer button.
A device , comprising: a rectifier including a first switch (110, T3, T4) having a variable resistance; a current sensor coupled to an output of the rectifier ; and a rectifier controller coupled to an output of the current sensor and to the first switch (110, T3, T4),., wherein the rectifier is configured to output a current (I), wherein the current sensor is configured to sense a magnitude of the current and to output a sensor signal (Is) indicative of the magnitude of the current (I), and the rectifier controller is configured to receive the sensor signal (Is) and to adjust a resistance of the first switch (110, T3, T4) responsive to sensor signal (Is), characterized in that the rectifier controller is configured to adjust the resistance of the first switch (110, T3, T4) with an inverse relationship to the magnitude of the current (I). a rectifier including a first switch (110, T3, T4) having a variable resistance; a current sensor coupled to an output of the rectifier ; and a rectifier controller coupled to an output of the current sensor and to the first switch (110, T3, T4),., wherein the rectifier is configured to output a current (I), wherein the current sensor is configured to sense a magnitude of the current and to output a sensor signal (Is) indicative of the magnitude of the current (I), and the rectifier controller is configured to receive the sensor signal (Is) and to adjust a resistance of the first switch (110, T3, T4) responsive to sensor signal (Is), characterized in that the rectifier controller is configured to adjust the resistance of the first switch (110, T3, T4) with an inverse relationship to the magnitude of the current (I).