mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an electric device, which has a CPU module and a mass storage device, to which a supply voltage is applied and to which data is transferred in series by way of a line, wherein by means of an internal hardware reset the mass storage device is put into a defined starting state if the supply voltage does not reach a threshold voltage, characterised in that an absent or faulty exchange of information between the CPU module and the mass storage device is recognized by means of a mass storage device drive module to be processed by the CPU module and in the case of an absent or faulty exchange of information, the supply voltage is influenced by means of a reset module which can be controlled by a reset signal such that the supply voltage is restricted or reduced to below the threshold voltage, wherein the reset signal is deactivated after a predetermined period of time.
A method for maintaining communication between a mobile terminal and a network in a mobile communication system, the method comprising: performing, by the mobile terminal, a random access channel, RACH, transmission using a signature, wherein the RACH transmission is performed when a transmission of data is needed to be performed in an uplink direction and the mobile terminal is in an unsynchronized state while maintaining a radio resource control, RRC, connected state with the network; receiving, by the mobile terminal, a response indicating a time adjustment from the network after performing the RACH transmission; and transitioning, by the mobile terminal, from the synchronized state to the unsynchronized state while maintaining the radio resource control, RRC, connected state with the network, characterized in that the synchronized state is transitioned to the unsynchronized state when a condition related to the mobile terminal moving into a new service region is met. performing, by the mobile terminal, a random access channel, RACH, transmission using a signature, wherein the RACH transmission is performed when a transmission of data is needed to be performed in an uplink direction and the mobile terminal is in an unsynchronized state while maintaining a radio resource control, RRC, connected state with the network; receiving, by the mobile terminal, a response indicating a time adjustment from the network after performing the RACH transmission; and transitioning, by the mobile terminal, from the synchronized state to the unsynchronized state while maintaining the radio resource control, RRC, connected state with the network,
An apparatus comprising: a housing; an input port integrally formed with the housing that is structurally configured to receive contents of a sample holding tube; and a first chamber in fluidic communication with the input port, the first chamber being a heating chamber configured to receive a sample contained in the sample holding tube and to retain and condition the received sample to, or near, a desired temperature before the received sample is allowed to contact one or more reagents located in one or more fluidic circuits downstream to the first chamber, wherein each of the one or more fluidic circuits comprises i) a second chamber in fluidic communication with the first chamber that meters the sample in the first chamber into an aliquot, wherein the metered sample is introduced to a reagent, or a combination of reagents, located in a corresponding fluidic circuit to form a mixed sample and ii) a testing chamber in fluidic communication with the second chamber, the testing chamber being structurally configured for interrogation by a measurement system configured to determine at least one viscoelastic property of the mixed sample. a housing; an input port integrally formed with the housing that is structurally configured to receive contents of a sample holding tube; and a first chamber in fluidic communication with the input port, the first chamber being a heating chamber configured to receive a sample contained in the sample holding tube and to retain and condition the received sample to, or near, a desired temperature before the received sample is allowed to contact one or more reagents located in one or more fluidic circuits downstream to the first chamber, wherein each of the one or more fluidic circuits comprises i) a second chamber in fluidic communication with the first chamber that meters the sample in the first chamber into an aliquot, wherein the metered sample is introduced to a reagent, or a combination of reagents, located in a corresponding fluidic circuit to form a mixed sample and ii) a testing chamber in fluidic communication with the second chamber, the testing chamber being structurally configured for interrogation by a measurement system configured to determine at least one viscoelastic property of the mixed sample.
An access point comprising: a processor (1852, 1860) which, in operation, is adapted to generate a trigger frame including a common information field and a user information field (660, 670), the common information field including a trigger type subfield that identifies a trigger type of the trigger frame, and a transmitter which, in operation, is adapted to transmit the generated trigger frame to a wireless station characterized in that several trigger types allow allocation of resource units, RUs, for uplink Orthogonal Frequency-Division Multiple Access, OFDMA, random access, UORA, and the user information field (660, 670) including an association identification, AID, subfield, wherein the AID subfield with a certain value indicates that the user information field allocates one or more RUs for UORA. a processor (1852, 1860) which, in operation, is adapted to generate a trigger frame including a common information field and a user information field (660, 670), the common information field including a trigger type subfield that identifies a trigger type of the trigger frame, and a transmitter which, in operation, is adapted to transmit the generated trigger frame to a wireless station characterized in that several trigger types allow allocation of resource units, RUs, for uplink Orthogonal Frequency-Division Multiple Access, OFDMA, random access, UORA, and the user information field (660, 670) including an association identification, AID, subfield, wherein the AID subfield with a certain value indicates that the user information field allocates one or more RUs for UORA.
A voltage detection integrated circuit comprising: a voltage detection circuit electrically connected to a plurality of cells to detect a cell voltage of a corresponding one of the plurality of cells; and a plurality of cell balancing switches configured to conduct or block a flow of a balancing current of a corresponding cell among the plurality of cells; a temperature sensor configured to detect an internal temperature of the voltage detection integrated circuit; characterized by a controller configured to differently select a number of cell balancing switches that are simultaneously turned on depending on the internal temperature, and to turn on the selected switches, when the internal temperature is below a first threshold value. a voltage detection circuit electrically connected to a plurality of cells to detect a cell voltage of a corresponding one of the plurality of cells; and a plurality of cell balancing switches configured to conduct or block a flow of a balancing current of a corresponding cell among the plurality of cells; a temperature sensor configured to detect an internal temperature of the voltage detection integrated circuit; characterized by a controller configured to differently select a number of cell balancing switches that are simultaneously turned on depending on the internal temperature, and to turn on the selected switches, when the internal temperature is below a first threshold value.
A surgical stapling and cutting instrument, comprising: a displacement member (1111, 2514); a motor coupled to the displacement member (1111, 2514), the motor operable to translate the displacement member (1111, 2514); a control circuit coupled to the motor; and a position sensor coupled to the control circuit; wherein the control circuit is configured to: receive a position output of the position sensor indicative of at least one position of the displacement member (1111, 2514); and control velocity of the motor to translate the displacement member (1111, 2514) at a plurality of velocities corresponding to the position output; characterised in that the control circuit is configured to maintain the translation of the displacement member (1111, 2514) at a first velocity in a first zone and a second velocity in a second zone, and wherein the second zone is distal to the first zone. a displacement member (1111, 2514); a motor coupled to the displacement member (1111, 2514), the motor operable to translate the displacement member (1111, 2514); a control circuit coupled to the motor; and a position sensor coupled to the control circuit; wherein the control circuit is configured to: receive a position output of the position sensor indicative of at least one position of the displacement member (1111, 2514); and control velocity of the motor to translate the displacement member (1111, 2514) at a plurality of velocities corresponding to the position output; receive a position output of the position sensor indicative of at least one position of the displacement member (1111, 2514); and control velocity of the motor to translate the displacement member (1111, 2514) at a plurality of velocities corresponding to the position output; characterised in that the control circuit is configured to maintain the translation of the displacement member (1111, 2514) at a first velocity in a first zone and a second velocity in a second zone, and wherein the second zone is distal to the first zone.
A method for estimating a present energy consumption of an electrically propelled vehicle powered by a propulsion battery, the method comprising: obtaining previous energy consumption values (ECt-1, ECt-2, ECt-3) for a set of previous time instants (t-1, t-2, t-3), and a present battery parameter value; estimating a present energy consumption (ECt) based on a weighted moving average model fed with the energy consumption values and the battery parameter value, wherein, the weighted moving average model includes a modelled gain factor for each of at least a portion of the previous energy consumption values and for the battery parameter value, where the modelled gain factors are non-linear functions of the battery parameter. obtaining previous energy consumption values (ECt-1, ECt-2, ECt-3) for a set of previous time instants (t-1, t-2, t-3), and a present battery parameter value; estimating a present energy consumption (ECt) based on a weighted moving average model fed with the energy consumption values and the battery parameter value, wherein, the weighted moving average model includes a modelled gain factor for each of at least a portion of the previous energy consumption values and for the battery parameter value, where the modelled gain factors are non-linear functions of the battery parameter.
An exhaust gas heat utilisation device for a combustion engine, in particular of a vehicle, - with an exhaust heat utilisation circuit, in which a working medium circulates, - with an evaporator arranged in the exhaust heat utilisation circuit for evaporating the working medium, which can be supplied with exhaust gas of the combustion engine, - with an expansion machine arranged in the exhaust heat utilisation circuit downstream of the evaporator for expanding the working medium, - with a condenser arranged in the exhaust heat utilisation circuit downstream of the expansion machine for condensing the working medium, - with a delivery device arranged in the exhaust heat utilisation circuit downstream of the condenser for driving the working medium in the exhaust heat utilisation circuit, - with a heat storage unit incorporated in the exhaust heat utilisation circuit, which can be supplied with the working medium, - wherein the heat storage unit is connected to the exhaust heat utilisation circuit via an advance and a return, characterized in that the advance is connected to the exhaust heat utilisation circuit between evaporator and expansion machine, wherein the return is connected to the exhaust heat utilisation circuit between the expansion machine and condenser. - with an exhaust heat utilisation circuit, in which a working medium circulates, - with an evaporator arranged in the exhaust heat utilisation circuit for evaporating the working medium, which can be supplied with exhaust gas of the combustion engine, - with an expansion machine arranged in the exhaust heat utilisation circuit downstream of the evaporator for expanding the working medium, - with a condenser arranged in the exhaust heat utilisation circuit downstream of the expansion machine for condensing the working medium, - with a delivery device arranged in the exhaust heat utilisation circuit downstream of the condenser for driving the working medium in the exhaust heat utilisation circuit, - with a heat storage unit incorporated in the exhaust heat utilisation circuit, which can be supplied with the working medium, - wherein the heat storage unit is connected to the exhaust heat utilisation circuit via an advance and a return,
Conveying system comprising an endlessly closed conveying belt, at least one inspection device, acting in a destruction-free manner, for inspecting the conveying belt, wherein the inspection device can generate and output a result of the inspection, a plurality of settable conveying system elements (13, 14, 16, 17), and at least one control unit, which can set the settable conveying system elements (13, 14, 16, 17) in dependence of the result from the inspection, wherein a settable conveying system element (13, 14, 16, 17) is a drive drum, wherein a settable conveying system element (13, 14, 16, 17) is a deflection drum, and characterized in that a settable conveying system element (13, 14, 16, 17) is a scraper, and in that the control unit and/or the inspection device classify the result from the inspection and the control unit can set the settable conveying system element (13, 14, 16, 17) in dependence on the classification of the result from the inspection. an endlessly closed conveying belt, at least one inspection device, acting in a destruction-free manner, for inspecting the conveying belt, wherein the inspection device can generate and output a result of the inspection, a plurality of settable conveying system elements (13, 14, 16, 17), and at least one control unit, which can set the settable conveying system elements (13, 14, 16, 17) in dependence of the result from the inspection, wherein a settable conveying system element (13, 14, 16, 17) is a drive drum, wherein a settable conveying system element (13, 14, 16, 17) is a deflection drum, and characterized in that a settable conveying system element (13, 14, 16, 17) is a scraper, and in that the control unit and/or the inspection device classify the result from the inspection and the control unit can set the settable conveying system element (13, 14, 16, 17) in dependence on the classification of the result from the inspection.
An ultrasonic medical apparatus comprising an ultrasonic waveguide having a proximal end and a distal end, an ultrasonically actuated blade attached to the distal end of the waveguide, wherein the blade has a first tissue contact surface and a second tissue contact surface, a first clamp arm having a tissue contact surface and pivotable with respect to the blade and having an open position in which at least a portion of the first clamp arm is spaced from the blade and a closed position in which the tissue contact surface of the first clamp arm is adjacent to the blade first tissue contact surface, and a second clamp arm having a tissue contact surface and pivotable with respect to the blade and having an open position in which at least a portion of the second clamp arm is spaced from the blade and a closed position in which the tissue contact surface of the second clamp arm is adjacent to the blade second tissue contact surface and characterised in that the first and second clamp arms (10, 14) are independently controllable.
A method for detecting a hand in proximity to an electronic device, the electronic device including a near field communications antenna, a mobile antenna and an infrared sensor that emits infrared light, the method comprising: monitoring an induced voltage at the NFC antenna, the NFC antenna being provided in an NFC subsystem configured to communicate wirelessly according to an NFC protocol; and determining whether the hand is in proximity to the electronic device based on the induced voltage; receiving a reflection of the emitted infrared light; determining whether a head is in proximity to the electronic device based on the reflection; and selecting a power output state for the power output of the mobile antenna from a plurality of possible power output states provided by the electronic device, the selection based on both the determination of whether the head is in proximity to the electronic device and the determination of whether the hand is in proximity to the electronic device. monitoring an induced voltage at the NFC antenna, the NFC antenna being provided in an NFC subsystem configured to communicate wirelessly according to an NFC protocol; and determining whether the hand is in proximity to the electronic device based on the induced voltage; receiving a reflection of the emitted infrared light; determining whether a head is in proximity to the electronic device based on the reflection; and selecting a power output state for the power output of the mobile antenna from a plurality of possible power output states provided by the electronic device, the selection based on both the determination of whether the head is in proximity to the electronic device and the determination of whether the hand is in proximity to the electronic device.
A vehicle comprising two batteries (2, 3) and a vehicle battery fixing structure, said vehicle battery fixing structure comprising: a battery pan attached to a vehicle body constituent component of a vehicle body; the first battery mounted on the battery pan; the second battery placed on the battery pan and side by side with the first battery at a vehicle front side of the fist battery; and a battery bracket on a back surface of the second battery that includes an insert part that is provided between a top surface of the battery pan and a bottom surface of the first battery, characterized in that the battery bracket is placed on a back surface of the second battery as to cover an entirety of the back surface. a battery pan attached to a vehicle body constituent component of a vehicle body; the first battery mounted on the battery pan; the second battery placed on the battery pan and side by side with the first battery at a vehicle front side of the fist battery; and a battery bracket on a back surface of the second battery that includes an insert part that is provided between a top surface of the battery pan and a bottom surface of the first battery, characterized in that the battery bracket is placed on a back surface of the second battery as to cover an entirety of the back surface.
A method for converting methane into methanesulfonic acid, comprising the following steps: a. removing hydrogen atoms from methane, thereby generating methyl radicals, each having an unpaired electron; b. contacting the methyl radicals with sulfur trioxide, under conditions that enable the methyl radicals to react with the sulfur trioxide in a manner that forms methylated oxide radicals having sufficient reactivity to remove hydrogen atoms from methane; and, c. reacting the methylated oxide radicals with methane, under conditions that enable the methylated oxide radicals to remove hydrogen atoms from the methane, thereby forming methanesulfonic acid while also generating newly-formed methyl radicals, wherein said steps are initiated by a radical initiator compound and then sustained on a steady-state basis by adding appropriate quantities of methane and the sulfur trioxide to a reactor device. a. removing hydrogen atoms from methane, thereby generating methyl radicals, each having an unpaired electron; b. contacting the methyl radicals with sulfur trioxide, under conditions that enable the methyl radicals to react with the sulfur trioxide in a manner that forms methylated oxide radicals having sufficient reactivity to remove hydrogen atoms from methane; and, c. reacting the methylated oxide radicals with methane, under conditions that enable the methylated oxide radicals to remove hydrogen atoms from the methane, thereby forming methanesulfonic acid while also generating newly-formed methyl radicals,
Rotary connection for a rotor blade of a wind power plant comprising an outer ring (4; 14a, 14b) and an inner ring (2, 2a), wherein the inner ring (2, 2a) comprises a supporting surface (201, 201a) in a direction of the rotor blade and a screwing surface (202, 202a) in a direction of the rotor hub (5, 5a), wherein the supporting surface (201, 201a) and the screwing surface (202, 202a) are arranged parallel to one another and are provided with through bores that have a center axis, wherein rolling bodies are arranged between the outer ring (4; 14a, 14b) and the inner ring (2, 2a) in at least two running rows I/II (8, 9) that lie below one another, wherein the rolling bodies have a rolling body diameter d, characterized in that, the lower running row I is arranged with its rolling body center below the screwing surface at a spacing Y in an axial direction of greater than / equal to 2 x (times) the rolling body diameter d, measured from the rolling body center to the screwing surface and at a spacing X in a radial direction of greater than / equal to 1,5 x (times) the rolling body diameter d, measured from the rolling body center to the center axis of the through bores and with a parallel offset Z greater than / equal to 0,7 x (times) the rolling body diameter d, measured between the supporting surface (201, 201a) and the screwing surface. wherein the inner ring (2, 2a) comprises a supporting surface (201, 201a) in a direction of the rotor blade and a screwing surface (202, 202a) in a direction of the rotor hub (5, 5a), wherein the supporting surface (201, 201a) and the screwing surface (202, 202a) are arranged parallel to one another and are provided with through bores that have a center axis, wherein rolling bodies are arranged between the outer ring (4; 14a, 14b) and the inner ring (2, 2a) in at least two running rows I/II (8, 9) that lie below one another, wherein the rolling bodies have a rolling body diameter d, characterized in that, the lower running row I is arranged with its rolling body center below the screwing surface at a spacing Y in an axial direction of greater than / equal to 2 x (times) the rolling body diameter d, measured from the rolling body center to the screwing surface and at a spacing X in a radial direction of greater than / equal to 1,5 x (times) the rolling body diameter d, measured from the rolling body center to the center axis of the through bores and with a parallel offset Z greater than / equal to 0,7 x (times) the rolling body diameter d, measured between the supporting surface (201, 201a) and the screwing surface.