mhurhangee/ep-ind-claims huggingface dataset:
A non-contact power supply unit (201, 202, 203) for supplying power to a power receiving unit of a device mounted on a cart comprising: a placement unit on which the cart is to be stored; a power transmitting unit provided on the placement unit, under the cart, configured to transmit power to the power receiving unit by non-contact power supply; characterized in that the non-contact power supply unit comprises a connecting unit for connecting the placement unit of the own device to the placement unit of a non-contact power supply unit different from that of the own device. a placement unit on which the cart is to be stored; a power transmitting unit provided on the placement unit, under the cart, configured to transmit power to the power receiving unit by non-contact power supply; characterized in that the non-contact power supply unit comprises a connecting unit for connecting the placement unit of the own device to the placement unit of a non-contact power supply unit different from that of the own device.
A method of performing computing operations, comprising: determining whether the temperature of a first processing device exceeds a threshold value when the first processing device executes a first operation at a first clock speed; swapping the first operation and a second operation between the first processing device executing the first operation and a second processing device executing the second operation, the second operation having a lower priority than the first operation, when the temperature of the first processing device exceeds the threshold value while executing the first operation; executing the second operation with the first processing device at a second clock speed lower than the first clock speed; and executing the first operation with the second processing device at a clock speed equal to or greater than the first clock speed. determining whether the temperature of a first processing device exceeds a threshold value when the first processing device executes a first operation at a first clock speed; swapping the first operation and a second operation between the first processing device executing the first operation and a second processing device executing the second operation, the second operation having a lower priority than the first operation, when the temperature of the first processing device exceeds the threshold value while executing the first operation; executing the second operation with the first processing device at a second clock speed lower than the first clock speed; and executing the first operation with the second processing device at a clock speed equal to or greater than the first clock speed.
A method performed by a first access node for controlling transmission of reference signals for mobility carried by beams for mobility in a wireless communications network, the method comprising: obtaining an identity of a plurality of reference signals for mobility associated with the first access node, determining an identity of a second beam for mobility (231, 232) associated with a second access node, which second beam for mobility (231, 232) is a neighbour beam for mobility to a first beam for mobility (221, 222) associated with the first access node, wherein the identity of the second beam for mobility (231, 232) is determined based on a neighbour relation between the second beam for mobility (231, 232) and the first beam for mobility (221, 222), and controlling transmission of the reference signals for mobility by transmitting, to the second access node, a request to transmit a reference signal for mobility comprised in the plurality of reference signals for mobility, on the second beam for mobility (231, 232), and wherein the request comprises: a respective identity of one or more reference signals for mobility comprised in the plurality of reference signals for mobility, which respective identity is based on the identity of the plurality of reference signals for mobility, and the identity of the second beam for mobility (231, 232). obtaining an identity of a plurality of reference signals for mobility associated with the first access node, determining an identity of a second beam for mobility (231, 232) associated with a second access node, which second beam for mobility (231, 232) is a neighbour beam for mobility to a first beam for mobility (221, 222) associated with the first access node, wherein the identity of the second beam for mobility (231, 232) is determined based on a neighbour relation between the second beam for mobility (231, 232) and the first beam for mobility (221, 222), and controlling transmission of the reference signals for mobility by transmitting, to the second access node, a request to transmit a reference signal for mobility comprised in the plurality of reference signals for mobility, on the second beam for mobility (231, 232), and wherein the request comprises: a respective identity of one or more reference signals for mobility comprised in the plurality of reference signals for mobility, which respective identity is based on the identity of the plurality of reference signals for mobility, and the identity of the second beam for mobility (231, 232). a respective identity of one or more reference signals for mobility comprised in the plurality of reference signals for mobility, which respective identity is based on the identity of the plurality of reference signals for mobility, and the identity of the second beam for mobility (231, 232).
An aircraft high lift system with at least one load station (22, 24, 32, 34) for actuating a flap (20, 30) of a wing, preferably a landing flap and/or a leading-edge flap, and at least one transmission with transmission portions (42, 44, 46), which are disposed between branch transmissions (40a, 40b, 40c, 40d), wherein by means of the branch transmissions (40a, 40b, 40c, 40d) actuating energy can be branched off from the transmission to the load station (22, 24, 32, 34), characterized in that at least one detection means (110', 110") is arranged in a transmission portion (42, 46), by means of which an operating condition of the transmission and/or the load station (22, 24, 32, 34) can directly and/or indirectly be determined, wherein by means of the detection means (110', 110") the torque applied and/or the time course of the torque can be detected.
A process of preparing a stable pharmaceutical composition of hydrolysis susceptible compounds wherein the hydrolysis susceptible compounds are selected from azacitidine, decitabine and bendamustine comprising: a. Addition of required quantity of pharmaceutically acceptable lyophilization excipients in water for injection in a formulation vessel; b. Addition of organic solvent to form an appropriate proportion of water and acetonitrile; c. Maintaining the temperature of the formulation vessel in the range of -5±3°C; d. Addition of required quantity of compound susceptible to hydrolysis to form a solution and lyophilizing the solution. a. Addition of required quantity of pharmaceutically acceptable lyophilization excipients in water for injection in a formulation vessel; b. Addition of organic solvent to form an appropriate proportion of water and acetonitrile; c. Maintaining the temperature of the formulation vessel in the range of -5±3°C; d. Addition of required quantity of compound susceptible to hydrolysis to form a solution and lyophilizing the solution.
A dispensing system for providing a preset small volume of liquid ≤ 200 μl into a filling area of a microfluidic sample carrier comprising at least one flow channel, the system including a liquid reservoir, a liquid pump connected to the liquid reservoir, at least one interface unit provided for each flow channel of the microfluidic sample carrier, wherein the liquid is provided to each flow channel by means of the respective interface unit, a conduit member comprising a supply channel connecting the liquid pump and each interface unit, a first valve connected to the supply channel, and at least one second valve arranged between the supply channel and a respective interface unit, wherein the first valve is a prime valve configured, when opened, to flush the supply channel with sealing liquid by pumping sealing liquid into the supply channel, wherein excessive sealing liquid potentially including air bubbles can be discharged through the open first valve, each interface unit comprises an injector connected to the conduit member, with each injector comprising a main body and an injection channel provided in the main body, each injection channel includes an inlet part for receiving liquid from the supply channel, an outlet part for dispensing liquid into a sample carrier liquid inlet, and a middle part for guiding liquid from the inlet part to the outlet part, with the outlet part ending in an outlet opening of the injector, and a cross section ⌀ in of the inlet part, a cross section ⌀ mid of the middle part and a cross section ⌀ out of the outlet part of each injection channel meet the following conditions ∅ out > ∅ in; and ∅ out > ∅ mid. a liquid reservoir, a liquid pump connected to the liquid reservoir, at least one interface unit provided for each flow channel of the microfluidic sample carrier, wherein the liquid is provided to each flow channel by means of the respective interface unit, a conduit member comprising a supply channel connecting the liquid pump and each interface unit, a first valve connected to the supply channel, and at least one second valve arranged between the supply channel and a respective interface unit, wherein the first valve is a prime valve configured, when opened, to flush the supply channel with sealing liquid by pumping sealing liquid into the supply channel, wherein excessive sealing liquid potentially including air bubbles can be discharged through the open first valve, each interface unit comprises an injector connected to the conduit member, with each injector comprising a main body and an injection channel provided in the main body, each injection channel includes an inlet part for receiving liquid from the supply channel, an outlet part for dispensing liquid into a sample carrier liquid inlet, and a middle part for guiding liquid from the inlet part to the outlet part, with the outlet part ending in an outlet opening of the injector, and a cross section ⌀ in of the inlet part, a cross section ⌀ mid of the middle part and a cross section ⌀ out of the outlet part of each injection channel meet the following conditions ∅ out > ∅ in; and ∅ out > ∅ mid.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, message including information on a mapping between sounding reference signal resource indicator, SRI, identifiers, IDs, and pathloss reference signal, RS, IDs; receiving, from the base station, a medium access control, MAC, control element, CE, for updating a mapping between a plurality of SRI IDs of the SRI IDs and one pathloss RS ID of the pathloss RS IDs; receiving, from the base station, downlink control information, DCI, including an SRI indicating a pathloss RS used for physical uplink shared channel, PUSCH, transmission, the pathloss RS being mapped with the SRI; and calculating a PUSCH pathloss by measuring a pathloss RS resource corresponding to the pathloss RS, wherein the MAC CE indicates a plurality of SRI IDs to which the pathloss RS is applied and includes an index indicating the pathloss RS associated with the SRI, an SRI ID which is an index of the SRI associated with the pathloss RS, and an indicator indicating whether there is an additional SRI ID associated with the pathloss RS. receiving, from a base station, a radio resource control, RRC, message including information on a mapping between sounding reference signal resource indicator, SRI, identifiers, IDs, and pathloss reference signal, RS, IDs; receiving, from the base station, a medium access control, MAC, control element, CE, for updating a mapping between a plurality of SRI IDs of the SRI IDs and one pathloss RS ID of the pathloss RS IDs; receiving, from the base station, downlink control information, DCI, including an SRI indicating a pathloss RS used for physical uplink shared channel, PUSCH, transmission, the pathloss RS being mapped with the SRI; and calculating a PUSCH pathloss by measuring a pathloss RS resource corresponding to the pathloss RS, wherein the MAC CE indicates a plurality of SRI IDs to which the pathloss RS is applied and includes an index indicating the pathloss RS associated with the SRI, an SRI ID which is an index of the SRI associated with the pathloss RS, and an indicator indicating whether there is an additional SRI ID associated with the pathloss RS.
A resuscitation system for aiding a user in providing resuscitative treatment to a patient, said system comprising: a first electrode (3, 22) with a first motion sensor assembly (7, 20) disposed in fixed relation to the first electrode; a second electrode (4, 23) with a second motion sensor assembly (7, 21) disposed in fixed relation to the second electrode; at least one processor, memory and power supply, the at least one processor configured to analyze motion signals from the first and second motion sensor assemblies (7, 20, 21) to determine the location and orientation of the first and second electrodes relative to each other; and a communication component (11, 18) configured to provide at least one prompt based on the analyzed motion signals to assist the user in placement of at least one of the first electrode and the second electrode on the body of the patient. a first electrode (3, 22) with a first motion sensor assembly (7, 20) disposed in fixed relation to the first electrode; a second electrode (4, 23) with a second motion sensor assembly (7, 21) disposed in fixed relation to the second electrode; at least one processor, memory and power supply, the at least one processor configured to analyze motion signals from the first and second motion sensor assemblies (7, 20, 21) to determine the location and orientation of the first and second electrodes relative to each other; and a communication component (11, 18) configured to provide at least one prompt based on the analyzed motion signals to assist the user in placement of at least one of the first electrode and the second electrode on the body of the patient.
A vehicle communication system comprising: a first vehicle ECU installed in a vehicle; and a first on-board communication device connected to the first vehicle ECU via a vehicle network, wherein the on-board communication device includes a memory and an external interface that is configured to communicate with the outside of the vehicle, the external interface is configured to use individual identification information stored in the memory to establish communication with the outside of the vehicle, and the individual identification information is used to identify the first on-board communication device as an individual communication terminal, the first on-board communication device is configured to transmit the individual identification information to the first vehicle ECU, and the first vehicle ECU is configured to associate vehicle information of the vehicle with the individual identification information and to transmit the vehicle information and associated individual identification information to an information center via the first on-board communication device for the information center to store the vehicle information for each vehicle using the individual identification information associated with the obtained vehicle information as a key. a first vehicle ECU installed in a vehicle; and a first on-board communication device connected to the first vehicle ECU via a vehicle network, wherein the on-board communication device includes a memory and an external interface that is configured to communicate with the outside of the vehicle, the external interface is configured to use individual identification information stored in the memory to establish communication with the outside of the vehicle, and the individual identification information is used to identify the first on-board communication device as an individual communication terminal, the first on-board communication device is configured to transmit the individual identification information to the first vehicle ECU, and the first vehicle ECU is configured to associate vehicle information of the vehicle with the individual identification information and to transmit the vehicle information and associated individual identification information to an information center via the first on-board communication device for the information center to store the vehicle information for each vehicle using the individual identification information associated with the obtained vehicle information as a key.
The use of a magnesium salicylate detergent as an additive in a lubricating oil composition to reduce inlet valve deposit formation in a direct injection internal combustion engine, as measured according to the test set out in PV1481:2005-02.
A pharmaceutical composition suitable for topical administration comprising: a) sirolimus, b) solvent, c) thickener and d) glycol ether wherein the content of thickener c) is between 0.05 and 10.0 wt.%, based on the total weight of the composition, wherein the content of glycol ether d) is between 0.05 and 10.0 wt.%, based on the total weight of the composition, and wherein thickener c) comprises acrylamide/sodium acryloyldimethyl taurate copolymer. a) sirolimus, b) solvent, c) thickener and d) glycol ether wherein the content of thickener c) is between 0.05 and 10.0 wt.%, based on the total weight of the composition, wherein the content of glycol ether d) is between 0.05 and 10.0 wt.%, based on the total weight of the composition, and wherein thickener c) comprises acrylamide/sodium acryloyldimethyl taurate copolymer.
A method for applying a material to a fiber composite component within an application area of the fiber composite component, wherein the fiber composite component is made of a fiber composite material comprising a fiber material and a matrix material, characterized in that the method comprises the following steps: - Providing at least one monofilament fabric, in which several or all threads each consist of a single filament, the monofilament fabric being provided in such a way that the sum of all open areas of the meshes of the monofilament fabric corresponds to at least 30% of the total base area of the monofilament fabric, - Arranging of the at least one monofilament fabric on a fiber preform formed from the fiber material of the fiber composite material in the application area, - Curing the matrix material of the fiber composite material embedding the fiber material of the fiber preform and a matrix material embedding the monofilament fabric in a common process step, and after the matrix material of the fiber preform and the matrix material of the monofilament fabric have at least partially hardened, - Tearing off the monofilament fabric bonded to the fiber preform, and - Applying of the material into the application area after tearing off the monofilament fabric. - Providing at least one monofilament fabric, in which several or all threads each consist of a single filament, the monofilament fabric being provided in such a way that the sum of all open areas of the meshes of the monofilament fabric corresponds to at least 30% of the total base area of the monofilament fabric, - Arranging of the at least one monofilament fabric on a fiber preform formed from the fiber material of the fiber composite material in the application area, - Curing the matrix material of the fiber composite material embedding the fiber material of the fiber preform and a matrix material embedding the monofilament fabric in a common process step, and - Tearing off the monofilament fabric bonded to the fiber preform, and - Applying of the material into the application area after tearing off the monofilament fabric.
An active matrix LED array precursor comprising: a common first semiconducting layer comprising a substantially undoped Group III-nitride; a plurality of transistor-driven LED precursors, each transistor-driven LED precursor comprising: a monolithic light emitting diode structure comprising a plurality of III-nitride semiconducting layers, each monolithic LED structure formed on a portion of the common semiconducting layer; a barrier semiconducting layer formed on a portion of the common semiconducting layer encircling the LED structure configured to induce a two-dimensional electron channel layer at the interface between the common semiconducting layer and the barrier semiconducting layer; and a gate contact formed over a portion of the two-dimensional electron channel layer, the gate contact encircling the LED structure; and a common source contact configured to form an ohmic contact to each two-dimensional electron channel layer such that a high electron mobility transistor is provided between the common source contact and each monolithic LED structure for driving each LED structure. a common first semiconducting layer comprising a substantially undoped Group III-nitride; a plurality of transistor-driven LED precursors, each transistor-driven LED precursor comprising: a monolithic light emitting diode structure comprising a plurality of III-nitride semiconducting layers, each monolithic LED structure formed on a portion of the common semiconducting layer; a barrier semiconducting layer formed on a portion of the common semiconducting layer encircling the LED structure configured to induce a two-dimensional electron channel layer at the interface between the common semiconducting layer and the barrier semiconducting layer; and a gate contact formed over a portion of the two-dimensional electron channel layer, the gate contact encircling the LED structure; and a monolithic light emitting diode structure comprising a plurality of III-nitride semiconducting layers, each monolithic LED structure formed on a portion of the common semiconducting layer; a barrier semiconducting layer formed on a portion of the common semiconducting layer encircling the LED structure configured to induce a two-dimensional electron channel layer at the interface between the common semiconducting layer and the barrier semiconducting layer; and a gate contact formed over a portion of the two-dimensional electron channel layer, the gate contact encircling the LED structure; and a common source contact configured to form an ohmic contact to each two-dimensional electron channel layer such that a high electron mobility transistor is provided between the common source contact and each monolithic LED structure for driving each LED structure.