mhurhangee/patent-ind-claim-en huggingface dataset:
A portable device , comprising: a control circuit transitionable between a disconnected state where a power supply is electrically disconnected from an electrical load (R1), and a connected state where the power supply is electrically connected to the electrical load (R1), the control circuit characterized in that it comprises an input node configured to receive a control signal; a first transistor (Q1) activatable to permit the supply of power from the power supply through the first transistor (Q1) to the electrical load (R1), and deactivatable to prevent the supply of power from the power supply to the electrical load (R1), a second transistor (Q2) coupled with the input node and configured to activate a fourth transistor (Q4) in response to a first voltage of the control signal; and a third transistor (Q3) coupled with the input node and the fourth transistor (Q4), and configured to control the activation of the first transistor (Q1) in response to a second voltage of the control signal; and the fourth transistor (Q4) that, when activated, is configured to maintain the third transistor (Q3) in a deactivated state. a control circuit transitionable between a disconnected state where a power supply is electrically disconnected from an electrical load (R1), and a connected state where the power supply is electrically connected to the electrical load (R1), the control circuit characterized in that it comprises an input node configured to receive a control signal; a first transistor (Q1) activatable to permit the supply of power from the power supply through the first transistor (Q1) to the electrical load (R1), and deactivatable to prevent the supply of power from the power supply to the electrical load (R1), a second transistor (Q2) coupled with the input node and configured to activate a fourth transistor (Q4) in response to a first voltage of the control signal; and a third transistor (Q3) coupled with the input node and the fourth transistor (Q4), and configured to control the activation of the first transistor (Q1) in response to a second voltage of the control signal; and the fourth transistor (Q4) that, when activated, is configured to maintain the third transistor (Q3) in a deactivated state.
Sensor patch for attachment to a base plate for an ostomy appliance, the sensor patch having a proximal side and a distal side , the distal side being adapted for attachment to an adhesive surface of the base plate , wherein the adhesive surface of the base plate is adapted for attachment of the base plate to the skin surface of a user, and wherein the sensor patch is adapted to form a stomal opening with a centre point , the stomal opening being configured to allow passage of output through the stomal opening and into an ostomy pouch attached to the base plate , and wherein the sensor patch comprises: - a sensor assembly comprising a plurality of electrodes including a first electrode and a second electrode for forming a first sensor, and - a first adhesive sensor layer forming the proximal side of the sensor patch and being adapted for attachment of the sensor patch to the skin surface of the user, wherein the first adhesive sensor layer comprises a first centre portion having a first centre thickness (D62) and a first outer rim portion surrounding the first centre portion , wherein the first outer rim portion has a first outer rim thickness decreasing along a radial direction from adjacent the first centre portion to a first outer periphery of the first adhesive sensor layer , and wherein the first outer rim thickness adjacent the first centre portion is the first centre thickness (D62) and the first outer rim thickness at the first outer periphery of the first adhesive sensor layer is a first minimum outer rim thickness (D68). - a sensor assembly comprising a plurality of electrodes including a first electrode and a second electrode for forming a first sensor, and - a first adhesive sensor layer forming the proximal side of the sensor patch and being adapted for attachment of the sensor patch to the skin surface of the user, wherein the first adhesive sensor layer comprises a first centre portion having a first centre thickness (D62) and a first outer rim portion surrounding the first centre portion , wherein the first outer rim portion has a first outer rim thickness decreasing along a radial direction from adjacent the first centre portion to a first outer periphery of the first adhesive sensor layer , and wherein the first outer rim thickness adjacent the first centre portion is the first centre thickness (D62) and the first outer rim thickness at the first outer periphery of the first adhesive sensor layer is a first minimum outer rim thickness (D68).
Method for the energy management of an energy storage means of an electrical system, said electrical system including at least one mobile element (EMO), at least one means (ENT) for electrically driving said mobile element (EMO), and at least one electrical energy storage means for supplying or recovering electrical energy to or from said driving means, said mobile element (EMO) being subjected to swell, and said storage means comprising at least one supercapacitor (pC), characterized in that an ageing model (MOD) of said supercapacitor is constructed, said ageing model linking the ageing (SOA) of said supercapacitor with a demand on said supercapacitor, and in that the following steps are performed: a) determining a state of future swell (HOU); b) deducing, from said state of future swell, a future demand (SOL) on said supercapacitor by said driving means; c) determining said ageing (SOA) of said supercapacitor by way of said ageing model (MOD) and of said demand (SOL) on said supercapacitor; and d) controlling the energy of said supercapacitor of said energy storage means on the basis of said ageing (SOA) of said supercapacitor (pC). a) determining a state of future swell (HOU); b) deducing, from said state of future swell, a future demand (SOL) on said supercapacitor by said driving means; c) determining said ageing (SOA) of said supercapacitor by way of said ageing model (MOD) and of said demand (SOL) on said supercapacitor; and d) controlling the energy of said supercapacitor of said energy storage means on the basis of said ageing (SOA) of said supercapacitor (pC).
Extrusion press comprising: a press cylinder , wherein the press cylinder is driven by an electro-hydrostatic control system for a power traverse and is connected to a separate drive for a rapid traverse, a transducer , wherein the transducer is connected to a hydraulic cylinder for a power traverse and to a further separate drive for the rapid traverse, a hydraulic cylinder having a locking device for driving a shearing tool , wherein the hydraulic cylinder is connected to the electro-hydrostatic control system , characterized in that the press cylinder in power traverse and the hydraulic cylinder for driving a shearing tool are alternately controlled via the common electro-hydrostatic control system . a press cylinder , wherein the press cylinder is driven by an electro-hydrostatic control system for a power traverse and is connected to a separate drive for a rapid traverse, a transducer , wherein the transducer is connected to a hydraulic cylinder for a power traverse and to a further separate drive for the rapid traverse, a hydraulic cylinder having a locking device for driving a shearing tool , wherein the hydraulic cylinder is connected to the electro-hydrostatic control system , characterized in that the press cylinder in power traverse and the hydraulic cylinder for driving a shearing tool are alternately controlled via the common electro-hydrostatic control system .
A switch assembly , comprising: a switch module comprising a plurality of power switch devices (Q1, Q2, Q3) connected in parallel; a detection unit for detecting a fault in at least one of the power switch devices (Q1, Q2, Q3); and a drive unit being configured to drive the power switch devices (Q1, Q2, Q3) of the switch module to turn on and off during normal operation of the switch module ; characterized by : a plurality of isolation circuits each connected in series to a gate terminal of at least one corresponding power switch device of the plurality of power switch devices (Q1, Q2, Q3), each isolation circuit comprising a capacitor (C1, C2, C3) or a controllable switch (S1, S2, S3); the drive unit being coupled to the switch module by means of the plurality of isolation circuits ; and the drive unit being further configured, in response to the detection of a fault in at least one of the power switch devices (Q1, Q2, Q3), to turn on the power switch devices that are connected in parallel to the at least one faulty power switch device. a switch module comprising a plurality of power switch devices (Q1, Q2, Q3) connected in parallel; a detection unit for detecting a fault in at least one of the power switch devices (Q1, Q2, Q3); and a drive unit being configured to drive the power switch devices (Q1, Q2, Q3) of the switch module to turn on and off during normal operation of the switch module ; characterized by : a plurality of isolation circuits each connected in series to a gate terminal of at least one corresponding power switch device of the plurality of power switch devices (Q1, Q2, Q3), each isolation circuit comprising a capacitor (C1, C2, C3) or a controllable switch (S1, S2, S3); the drive unit being coupled to the switch module by means of the plurality of isolation circuits ; and the drive unit being further configured, in response to the detection of a fault in at least one of the power switch devices (Q1, Q2, Q3), to turn on the power switch devices that are connected in parallel to the at least one faulty power switch device. a plurality of isolation circuits each connected in series to a gate terminal of at least one corresponding power switch device of the plurality of power switch devices (Q1, Q2, Q3), each isolation circuit comprising a capacitor (C1, C2, C3) or a controllable switch (S1, S2, S3); the drive unit being coupled to the switch module by means of the plurality of isolation circuits ; and the drive unit being further configured, in response to the detection of a fault in at least one of the power switch devices (Q1, Q2, Q3), to turn on the power switch devices that are connected in parallel to the at least one faulty power switch device.
A radar apparatus, comprising: a pulse emitter configured to emit a plurality of transmission pulses having different carrier frequencies to space; a plurality of antennas (6-1 to 6-M) configured to receive reflected waves of the transmission pulses that have been emitted from the pulse emitter and thereafter reflected by a target present in the space; a plurality of receiver devices (7-1 to 7-M) configured to output received signals indicating the reflected waves received by the plurality of antennas (6-1 to 6-M); a plurality of pulse compression units (9-1 to 9-M) configured to calculate frequency spectra of the received signals by performing Fourier transforms on the received signals output from the receiver devices (7-1 to 7-M), calculate spectrum products between the frequency spectra and references for pulse compressions, and perform inverse Fourier transforms on the spectrum products, the references being determined on a basis of the carrier frequencies and a beam directional angle indicating propagation directions of the transmission pulses; and a received-beam synthesizing unit configured to synthesize received beams that are the spectrum products subjected to the inverse Fourier transforms in the plurality of pulse compression units (9-1 to 9-M)), in accordance with the beam directional angle. a pulse emitter configured to emit a plurality of transmission pulses having different carrier frequencies to space; a plurality of antennas (6-1 to 6-M) configured to receive reflected waves of the transmission pulses that have been emitted from the pulse emitter and thereafter reflected by a target present in the space; a plurality of receiver devices (7-1 to 7-M) configured to output received signals indicating the reflected waves received by the plurality of antennas (6-1 to 6-M); a plurality of pulse compression units (9-1 to 9-M) configured to calculate frequency spectra of the received signals by performing Fourier transforms on the received signals output from the receiver devices (7-1 to 7-M), calculate spectrum products between the frequency spectra and references for pulse compressions, and perform inverse Fourier transforms on the spectrum products, the references being determined on a basis of the carrier frequencies and a beam directional angle indicating propagation directions of the transmission pulses; and a received-beam synthesizing unit configured to synthesize received beams that are the spectrum products subjected to the inverse Fourier transforms in the plurality of pulse compression units (9-1 to 9-M)), in accordance with the beam directional angle.
An apparatus, comprising: an antenna arrangement, comprising: an antenna element and a corresponding feeder line configured to feed a signal to and from the antenna element ; a selectivity element , a portion of a calibration couplerline spaced apart from but proximate to the antenna element , the feeder line , and the selectivity element , the portion of the calibration couplerline configured to receive via inductive coupling the signal from one or both of the feeder line and the antenna element , and to transmit a signal via inductive coupling to one or both of the feeder line and the antenna element ; and the selectivity element , which is spaced apart from but proximate to the antenna element , the feeder line , and the portion of the calibration couplerline , and which is configured to selectively couple the antenna element to the portion of the calibration couplerline ; the apparatus further comprising a plurality of the antenna arrangements, wherein the portions of the calibration couplerlines for the plurality of the antenna arrangements are part of a single calibration couplerline that serially connects to each of the plurality of antenna arrangements. an antenna element and a corresponding feeder line configured to feed a signal to and from the antenna element ; a selectivity element , a portion of a calibration couplerline spaced apart from but proximate to the antenna element , the feeder line , and the selectivity element , the portion of the calibration couplerline configured to receive via inductive coupling the signal from one or both of the feeder line and the antenna element , and to transmit a signal via inductive coupling to one or both of the feeder line and the antenna element ; and the selectivity element , which is spaced apart from but proximate to the antenna element , the feeder line , and the portion of the calibration couplerline , and which is configured to selectively couple the antenna element to the portion of the calibration couplerline ; the apparatus further comprising a plurality of the antenna arrangements, wherein the portions of the calibration couplerlines for the plurality of the antenna arrangements are part of a single calibration couplerline that serially connects to each of the plurality of antenna arrangements.
A hydrous silica for rubber reinforcing filler characterised in that the BET-specific surface area ranges from 230 to 350 m 2 /g; the volume average particle diameter (D50) measured by the laser diffraction method after dispersing 50 ml of a hydrous silica slurry adjusted to 4% by weight with an ultrasonic homogenizer having an output of 140 W for 10 minutes is 3.0 μm or less; and the top 10% of particles (D90) in the particle size distribution is 10.0 μm or less. the BET-specific surface area ranges from 230 to 350 m 2 /g; the volume average particle diameter (D50) measured by the laser diffraction method after dispersing 50 ml of a hydrous silica slurry adjusted to 4% by weight with an ultrasonic homogenizer having an output of 140 W for 10 minutes is 3.0 μm or less; and the top 10% of particles (D90) in the particle size distribution is 10.0 μm or less.
A battery module comprising: a plurality of battery cells ; a head unit disposed on top of the plurality of battery cells , the head unit including a positive terminal coupler connecting positive terminal posts of the plurality of battery cells and a negative terminal coupler connecting negative terminal posts of the plurality of battery cells ; wherein the positive terminal coupler includes a conical positive terminal disposed on a front side of the battery module and the negative terminal coupler includes a conical negative terminal disposed on a rear side of the battery module ; and wherein the conical positive terminal has a convex shape that extends away from the front side of the battery module and the conical negative terminal has a concave shape that defines a recess extending into the rear side of the battery module whereby the conical positive terminal and the conical negative terminal are configured to mate with each other. a plurality of battery cells ; a head unit disposed on top of the plurality of battery cells , the head unit including a positive terminal coupler connecting positive terminal posts of the plurality of battery cells and a negative terminal coupler connecting negative terminal posts of the plurality of battery cells ; wherein the positive terminal coupler includes a conical positive terminal disposed on a front side of the battery module and the negative terminal coupler includes a conical negative terminal disposed on a rear side of the battery module ; and wherein the conical positive terminal has a convex shape that extends away from the front side of the battery module and the conical negative terminal has a concave shape that defines a recess extending into the rear side of the battery module whereby the conical positive terminal and the conical negative terminal are configured to mate with each other.
A compound of formula (I) wherein n is 0 to 4; m is 0 or 1 with the proviso that the sulphur atom and R 3 are in vicinal position (if m = 0 then R 3 is in position 2', and if m = 1 then R 3 is on position 1 '); R is ethyl or vinyl; R 1 is hydrogen or (C 1-6 )alkyl, R 2 is hydrogen or - (C 3-6 )cycloalkyl, or - unsubstituted (C 1-6 )alkyl, or - (C 1-6 )alkyl substituted by one or more of - hydroxy; preferably one or two, - methoxy, - halogen, - (C 3-6 )cycloalkyl, or R 1 and R 2 together with the nitrogen atom to which they are attached form a 5 to 7 membered heterocyclic ring containing at least 1 nitrogen atom or 1 nitrogen and 1 additional heteroatom e. g. selected from N or O, or R 1 is hydroxy and R 2 is formyl; R 3 is OH, OR 4 , a halogen atom, or R 3 is bound to 2' and represents -O-(CH 2 ) p -O- with p is 2 or 3; R 4 is unsubstituted (C 1-6 )alkyl or (C 3-6 )cycloalkyl, or a pharmaceutically acceptable salt or solvate thereof for the specific use in the treatment or prevention of a viral infection. n is 0 to 4; m is 0 or 1 with the proviso that the sulphur atom and R 3 are in vicinal position (if m = 0 then R 3 is in position 2', and if m = 1 then R 3 is on position 1 '); R is ethyl or vinyl; R 1 is hydrogen or (C 1-6 )alkyl, R 2 is hydrogen or - (C 3-6 )cycloalkyl, or - unsubstituted (C 1-6 )alkyl, or - (C 1-6 )alkyl substituted by one or more of - hydroxy; preferably one or two, - methoxy, - halogen, - (C 3-6 )cycloalkyl, or - (C 3-6 )cycloalkyl, or - unsubstituted (C 1-6 )alkyl, or - (C 1-6 )alkyl substituted by one or more of - hydroxy; preferably one or two, - methoxy, - halogen, - (C 3-6 )cycloalkyl, or - hydroxy; preferably one or two, - methoxy, - halogen, - (C 3-6 )cycloalkyl, or R 1 and R 2 together with the nitrogen atom to which they are attached form a 5 to 7 membered heterocyclic ring containing at least 1 nitrogen atom or 1 nitrogen and 1 additional heteroatom e. g. selected from N or O, or R 1 is hydroxy and R 2 is formyl; R 3 is OH, OR 4 , a halogen atom, or R 3 is bound to 2' and represents -O-(CH 2 ) p -O- with p is 2 or 3; R 4 is unsubstituted (C 1-6 )alkyl or (C 3-6 )cycloalkyl, or a pharmaceutically acceptable salt or solvate thereof for the specific use in the treatment or prevention of a viral infection.
An electric vehicle control device comprising: a main transformer to convert an input AC voltage, input to an input winding from an AC power supply, and to output an output AC voltage converted thereby from each of a plurality of output windings; a plurality of converter main circuits , each connected to one of a plurality of secondary windings included in the plurality of output windings, to convert the output AC voltage, output from the secondary winding connected to the converter main circuit , into a DC voltage; and a plurality of converter controllers , each configured to control as a control target one of the plurality of converter main circuits , by pulse width modulation control by comparison between a signal wave and a carrier wave, characterized in that the plurality of output windings further includes a tertiary winding to connect to a supplementary power supply ; and in that each of the plurality of converter controllers is further configured to determine a correction amount of a phase angle of at least one of the signal wave and the carrier wave, in response to an operating state of a load that is supplied power through a predetermined output winding among the plurality of output windings. a main transformer to convert an input AC voltage, input to an input winding from an AC power supply, and to output an output AC voltage converted thereby from each of a plurality of output windings; a plurality of converter main circuits , each connected to one of a plurality of secondary windings included in the plurality of output windings, to convert the output AC voltage, output from the secondary winding connected to the converter main circuit , into a DC voltage; and a plurality of converter controllers , each configured to control as a control target one of the plurality of converter main circuits , by pulse width modulation control by comparison between a signal wave and a carrier wave, characterized in that the plurality of output windings further includes a tertiary winding to connect to a supplementary power supply ; and in that each of the plurality of converter controllers is further configured to determine a correction amount of a phase angle of at least one of the signal wave and the carrier wave, in response to an operating state of a load that is supplied power through a predetermined output winding among the plurality of output windings.