mhurhangee/ep-ind-claims huggingface dataset:
Monitoring arrangement (10, 100, 200) for monitoring a safety sensor (11, 111) comprising: a. a first electric power supply source which is connected to an input connection for connecting an input of the safety sensor, b. a first output-side measuring device which is connected to the output connection for connecting an output of the safety sensor, c. an evaluation arrangement which is connected to the first output-side measuring device and which receives the measurement signal thereof, and d. a first input-side measuring device which is connected to the input connection and the evaluation arrangement, wherein the evaluation arrangement receives the measurement signal of the first input-side measuring device and is configured to evaluate the measurement signals, characterized in that the monitoring arrangement (10, 100, 200) comprises a control device which is configured to influence an electrical variable which can be measured at the output connection and that the evaluation arrangement comprises a modulation signal generator configured to control the control device by means of its modulation signal. a. a first electric power supply source which is connected to an input connection for connecting an input of the safety sensor, b. a first output-side measuring device which is connected to the output connection for connecting an output of the safety sensor, c. an evaluation arrangement which is connected to the first output-side measuring device and which receives the measurement signal thereof, and d. a first input-side measuring device which is connected to the input connection and the evaluation arrangement, wherein the evaluation arrangement receives the measurement signal of the first input-side measuring device and is configured to evaluate the measurement signals, characterized in that the monitoring arrangement (10, 100, 200) comprises a control device which is configured to influence an electrical variable which can be measured at the output connection and that the evaluation arrangement comprises a modulation signal generator configured to control the control device by means of its modulation signal.
Methane synthesis system, comprising - one common supply line being connected at least to a carbon oxide source and to a hydrogen source, - a first bed reactor connected or selectively connectable to the one common supply line and - a common discharge line, wherein the system comprises more than two second bed reactors selectively connectable to the one common supply line, wherein the first bed reactor and more than two second bed reactors each have a common wall, wherein the first bed reactor and the second bed reactors comprise a catalyst for enhancing the reaction of carbon oxides and hydrogen to hydrocarbons. - one common supply line being connected at least to a carbon oxide source and to a hydrogen source, - a first bed reactor connected or selectively connectable to the one common supply line and - a common discharge line,
An injectable homogeneous aqueous solution of chitosan containing a chitosan having a degree of acetylation lower than 20%, advantageously lower than 10%, and a mean molecular weight between 100,000 and 1,000,000 g/mol, said solution containing between 0.1 and 3.5% by weight, advantageously between 1 and 2.5% by weight of chitosan, said solution having a pH lower than 6.2, advantageously between 5 and 6.2, said solution not containing a chitosan having a degree of acetylation higher than 20%, said solution not containing another chitosan of lower mean molecular weight and said aqueous solution being capable of forming crystalline particles of chitosan after injection.
A method executed by a Long Term Evolution, LTE, enhanced node B, eNB,, the eNB being in communication with a user equipment, UE,, the UE operating in a discontinuous reception, DRX, operation mode, the DRX operation mode including on durations during which data can be received by the UE, the UE transmitting a rank indicator, RI, control signal to the eNB, and the RI control signal being transmitted using periodic RI reporting resources, wherein the RI control signal comprises a signal that is configured to provide Channel State Indication, CSI, feedback, the method comprising: transmitting data to the UE; and receiving from the UE the RI control signal using a periodic RI reporting resource during but not after a retransmission window for one or more potential retransmissions of data that the UE was not able to receive properly in an on duration of the DRX operation mode. transmitting data to the UE; and receiving from the UE the RI control signal using a periodic RI reporting resource during but not after a retransmission window for one or more potential retransmissions of data that the UE was not able to receive properly in an on duration of the DRX operation mode.
Vehicle state signalling device, in particular device for signalling an activated at least partially automated driving operational state of a motor vehicle, having: a signal generator which is configured to output a state signal for signalling a vehicle state assigned to the signal generator; and a circuit for controlling the signal generator in order to selectively activate or deactivate the latter in response to at least one corresponding control signal; characterized in that the circuit has a first switch and a second switch that can be switched independently of the latter as well as at least one test signal output for providing a test signal for testing a current operational state of the signal generator; and wherein the circuit is configured such that, in order to activate the signal generator, the first and second switches (S1; S2) must together have a special predetermined switching state combination, whereas switching state combinations of the switches which do not correspond to or comprise the special switching state combination of the first and second switches (S1; S2) correspond to deactivation of the signal generator. a signal generator which is configured to output a state signal for signalling a vehicle state assigned to the signal generator; and a circuit for controlling the signal generator in order to selectively activate or deactivate the latter in response to at least one corresponding control signal; characterized in that the circuit has a first switch and a second switch that can be switched independently of the latter as well as at least one test signal output for providing a test signal for testing a current operational state of the signal generator; and wherein the circuit is configured such that, in order to activate the signal generator, the first and second switches (S1; S2) must together have a special predetermined switching state combination, whereas switching state combinations of the switches which do not correspond to or comprise the special switching state combination of the first and second switches (S1; S2) correspond to deactivation of the signal generator.
Actuating device for a motor vehicle brake, comprising the following components: - an operating device, namely a brake pedal, - a pressure supply device driven by an electric motor drive, - a piston-cylinder unit which can be actuated by means of the operating device, which is hydraulically connected to a pressure fluid reservoir and which forms at least two pressure chambers which are connected to hydraulic brake circuits, - a valve arrangement having valves for wheel-specific adjustment of brake pressures and for disconnecting or connecting the wheel brakes to the pressure supply device and the piston-cylinder unit, - an electronic control and regulation unit, and - at least one sensor device, having at least one sensor element (3, 4, 5, 24, 24a) and a sensor target (5a, 23, 23a), for sensing a movement of a device component, wherein the at least one sensor element (3, 4, 5, 24, 24a) of the sensor device is arranged in the electronic control and regulation unit or connected thereto, and that a movement of the device component (10; 45; 46; 48) is transmitted to the electronic control and regulation unit via a sensor actuating device, characterized in that the transmission of the movement of the device component (10; 45; 46; 48) to the associated sensor element is effected by means of flux conductors (43, 43a, 43b). - an operating device, namely a brake pedal, - a pressure supply device driven by an electric motor drive, - a piston-cylinder unit which can be actuated by means of the operating device, which is hydraulically connected to a pressure fluid reservoir and which forms at least two pressure chambers which are connected to hydraulic brake circuits, - a valve arrangement having valves for wheel-specific adjustment of brake pressures and for disconnecting or connecting the wheel brakes to the pressure supply device and the piston-cylinder unit, - an electronic control and regulation unit, and - at least one sensor device, having at least one sensor element (3, 4, 5, 24, 24a) and a sensor target (5a, 23, 23a), for sensing a movement of a device component, wherein the at least one sensor element (3, 4, 5, 24, 24a) of the sensor device is arranged in the electronic control and regulation unit or connected thereto, and that a movement of the device component (10; 45; 46; 48) is transmitted to the electronic control and regulation unit via a sensor actuating device, characterized in that the transmission of the movement of the device component (10; 45; 46; 48) to the associated sensor element is effected by means of flux conductors (43, 43a, 43b).
A rubber composition, comprising: a rubber component including 70 to 95% by mass of a styrene butadiene rubber and 5 to 30% by mass of a polybutadiene rubber based on 100% by mass of the rubber component; 5 to 20 parts by mass carbon black based on 100% by mass of the rubber component; 10 to 150 parts by mass silica based on 100% by mass of the rubber component; and a polymer mixture obtained by modifying a polymer derived from at least one of a conjugated diene compound and an aromatic vinyl compound with a compound containing at least one of an ester group and a carboxyl group, the polymer mixture having a weight average molecular weight of from 1.0 × 10 3 to 1.0 × 10 5, the polymer in the polymer mixture being a styrene homopolymer, a butadiene homopolymer, or a styrene-butadiene copolymer, the rubber composition having a tanδ peak temperature of -20°C or higher, a rubber hardness measured in accordance with JIS K 6253-1 of from 63 to 75, and a tanδ at 70°C of from 0.15 to 0.45. a rubber component including 70 to 95% by mass of a styrene butadiene rubber and 5 to 30% by mass of a polybutadiene rubber based on 100% by mass of the rubber component; 5 to 20 parts by mass carbon black based on 100% by mass of the rubber component; 10 to 150 parts by mass silica based on 100% by mass of the rubber component; and a polymer mixture obtained by modifying a polymer derived from at least one of a conjugated diene compound and an aromatic vinyl compound with a compound containing at least one of an ester group and a carboxyl group, the polymer mixture having a weight average molecular weight of from 1.0 × 10 3 to 1.0 × 10 5, the polymer in the polymer mixture being a styrene homopolymer, a butadiene homopolymer, or a styrene-butadiene copolymer, the rubber composition having a tanδ peak temperature of -20°C or higher, a rubber hardness measured in accordance with JIS K 6253-1 of from 63 to 75, and a tanδ at 70°C of from 0.15 to 0.45.
An electric power converter that includes an electric-power conversion unit that generates an AC power to be supplied to an AC load in accordance with an AC voltage command input thereto, a voltage-command calculation unit that calculates an AC voltage command with a frequency to be applied to the electric-power conversion unit, and a current detection unit that obtains an output current that is a current component in the AC power that the electric-power conversion unit supplies to the AC load, the electric power converter comprising: a voltage-command correction unit that is provided between the electric-power conversion unit and the voltage-command calculation unit, and that calculates, based on a voltage error caused by a dead time in the electric-power conversion unit, a correction voltage to correct the AC voltage command that the voltage-command calculation unit has obtained, adds the correction voltage to the AC voltage command that the voltage-command calculation unit has obtained, and applies the AC voltage command to the electric-power conversion unit, wherein the voltage-command correction unit provides a predetermined current range including a zero level for the output current, and, at a first clock time when a value of the output current enters from outside to inside of the current range, obtains a zero cross timing of the output current using the first clock time and the frequency, and sets the zero cross timing as a clock time for switching a polarity of the correction voltage, characterized in that the voltage-command correction unit adjusts and sets an upper limit value in a positive polarity side and a lower limit value in a negative polarity side with respect to the zero level in the current range in accordance with the frequency. a voltage-command correction unit that is provided between the electric-power conversion unit and the voltage-command calculation unit, and that calculates, based on a voltage error caused by a dead time in the electric-power conversion unit, a correction voltage to correct the AC voltage command that the voltage-command calculation unit has obtained, adds the correction voltage to the AC voltage command that the voltage-command calculation unit has obtained, and applies the AC voltage command to the electric-power conversion unit, wherein the voltage-command correction unit provides a predetermined current range including a zero level for the output current, and, at a first clock time when a value of the output current enters from outside to inside of the current range, obtains a zero cross timing of the output current using the first clock time and the frequency, and sets the zero cross timing as a clock time for switching a polarity of the correction voltage, characterized in that the voltage-command correction unit adjusts and sets an upper limit value in a positive polarity side and a lower limit value in a negative polarity side with respect to the zero level in the current range in accordance with the frequency.
A process for continuously collecting cells from a cell culture, comprising: suspending the cell culture in a growth volume of a bioreactor, the bioreactor including at least one ultrasonic transducer and a reflector located opposite the at least one ultrasonic transducer, each ultrasonic transducer being driven to produce a multi-dimensional acoustic standing wave that holds the cell culture in the growth volume; and flowing a nutrient fluid stream through the cell culture to dislodge cells from the cell culture; and separating the dislodged cells from the nutrient fluid stream. suspending the cell culture in a growth volume of a bioreactor, the bioreactor including at least one ultrasonic transducer and a reflector located opposite the at least one ultrasonic transducer, each ultrasonic transducer being driven to produce a multi-dimensional acoustic standing wave that holds the cell culture in the growth volume; and flowing a nutrient fluid stream through the cell culture to dislodge cells from the cell culture; and separating the dislodged cells from the nutrient fluid stream.
A pouch containing frozen confection, wherein the pouch comprises: - a wall delimiting a cavity containing the frozen confection and extending in a longitudinal direction from a base end to a top end of the pouch, wherein the base end comprises a gusset extending in a transverse direction, and the top end comprises a top edge extending in the transverse direction; and - a product outlet through which the frozen confection can be extruded from the cavity, the product outlet being an aperture in the top end of the wall, wherein the wall is deformable such that deformation of the wall urges the frozen confection towards the outlet enabling at least a portion of the frozen confection to be extruded through the outlet; and wherein the product outlet is an aperture that is shaped so as to be capable of forming the extruded frozen confection into a fluted shape, wherein the product outlet is a star-shaped aperture or an aperture having intersecting slits radiating from the centre thereof, and wherein the pouch does not comprise a spout. - a wall delimiting a cavity containing the frozen confection and extending in a longitudinal direction from a base end to a top end of the pouch, wherein the base end comprises a gusset extending in a transverse direction, and the top end comprises a top edge extending in the transverse direction; and - a product outlet through which the frozen confection can be extruded from the cavity, the product outlet being an aperture in the top end of the wall, wherein the wall is deformable such that deformation of the wall urges the frozen confection towards the outlet enabling at least a portion of the frozen confection to be extruded through the outlet; and wherein the product outlet is an aperture that is shaped so as to be capable of forming the extruded frozen confection into a fluted shape, wherein the product outlet is a star-shaped aperture or an aperture having intersecting slits radiating from the centre thereof, and wherein the pouch does not comprise a spout. wherein the wall is deformable such that deformation of the wall urges the frozen confection towards the outlet enabling at least a portion of the frozen confection to be extruded through the outlet; and wherein the product outlet is an aperture that is shaped so as to be capable of forming the extruded frozen confection into a fluted shape, wherein the product outlet is a star-shaped aperture or an aperture having intersecting slits radiating from the centre thereof, and wherein the pouch does not comprise a spout.
A method for battery power supply and passive power supply to an RFID tag, which is provided with a battery (b) and situated in a radio-frequency radiation field, whereat, in case of an acceptable value of a battery voltage (Vbat), circuits of the RFID tag are energized by the battery (b) through a controlled switching circuit (csc), characterized in that a value of the battery voltage (Vbat) is checked in response to connecting the battery (b) to the circuits of the RFID tag and in response to a rectified voltage (Vrect) obtained by rectifying a voltage induced in an antenna (a) due to the radio-frequency radiation field reaching a preset value, that, in case of an unacceptable value of the battery voltage (Vbat) and after a termination of a time delay extending between 5 microseconds and 500 microseconds after the rectified voltage (Vrect) exceeded the preset value, the circuits of the RFID tag are energized by a rectifier rectifying said induced voltage through the controlled switching circuit (csc), that a supply voltage (Vps) at an output terminal (ps) of the controlled switching circuit (csc) is equal either to the battery voltage (Vbat) reduced by a voltage drop across a first PMOS transistor of a first controlled switch of the controlled switching circuit (csc) or to the rectified voltage (Vrect) at an output terminal of the rectifier reduced by a voltage drop across a second PMOS transistor of a second controlled switch of the controlled switching circuit (csc), and that the higher voltage between the battery voltage (Vbat) and the rectified voltage (Vrect) is selected and is conducted to bodies of the PMOS transistors of the first and the second controlled switch (cs1, cs2).
Process for the production of a thermoplastic polyester using a reaction mixture comprising a dicarboxylic acid having a melting temperature of ≥ 200°C wherein the dicarboxylic acid is introduced to the process in the form of particles having an average particle diameter of ≥ 100 μm, wherein the reaction mixture further comprises a dihydroxyalkane being 1,4-butanediol, and wherein a quantity of a tetra(C1-C8) titanate is used as catalyst, wherein the average particle diameter of the dicarboxylic acid particles is determined as the D 50 particle size in accordance with ISO 9276-2:2014, and wherein the melting temperature of the dicarboxylic acid is determined in accordance with ASTM E324.
A misalignment detecting system comprising: a reference jig on which an electrode assembly is disposed; an imaging unit for imaging the reference jig and the electrode assembly, comprising a beam generator configured to irradiate X-rays at a first angle and a second angle with respect to any one corner of the electrode assembly and the reference jig, wherein the second angle is different from the first angle; and a calculator configured to calculate position coordinates of a corner of a positive electrode and a negative electrode of the electrode assembly at the corner (C1, C2) of the reference jig (C1, C2) based on the acquired images of the reference jig and the electrode assembly at the first and second angles with respect to said corner and to determine misalignment of the positive electrode and the negative electrode of the electrode assembly based on the calculated position coordinates. a reference jig on which an electrode assembly is disposed; an imaging unit for imaging the reference jig and the electrode assembly, comprising a beam generator configured to irradiate X-rays at a first angle and a second angle with respect to any one corner of the electrode assembly and the reference jig, wherein the second angle is different from the first angle; and a calculator configured to calculate position coordinates of a corner of a positive electrode and a negative electrode of the electrode assembly at the corner (C1, C2) of the reference jig (C1, C2) based on the acquired images of the reference jig and the electrode assembly at the first and second angles with respect to said corner and to determine misalignment of the positive electrode and the negative electrode of the electrode assembly based on the calculated position coordinates.
A manufacturing method of a metal oxide thin film transistor, comprising forming a gate electrode, a gate insulating layer, an active layer and source and drain electrodes (121, 122) of a thin film transistor on a base substrate, wherein the active layer is prepared by using a metal oxide thin film, and an electrochemical oxidation process is performed on the metal oxide thin film during preparing the active layer, and the metal oxide thin film after the electrochemical oxidation process is patterned to form the active layer of the thin film transistor, performing the electrochemical oxidation process on the metal oxide thin film includes: taking the metal oxide thin film as an anode, placing a cathode and the base substrate where the metal oxide thin film has been formed in an electrolyte solution, and then energizing to perform the electrochemical oxidation process, characterized that, after the electrochemical oxidation process, patterning the metal oxide thin film to form the active layer of the thin film transistor comprises: completely removing by etching a part of the metal oxide thin film not being immersed in the electrolyte solution, and partially removing by etching a part of the metal oxide thin film being immersed in the electrolyte solution.