mhurhangee/ep-ind-claims huggingface dataset:
A memory system comprising: a storage device including a turbo write buffer and a user storage area implemented with a nonvolatile memory; and a host configured to transfer a read request to the storage device, wherein, in response to the read request, the storage device is configured to transfer read data from among the user storage area, the first buffer area, and the second buffer area and read data information including attributes of the read data to the host, wherein the turbo write buffer includes: a first buffer area in which stored data are configured to be prohibited from moving to the user storage area; and a second buffer area in which stored data are configured to be allowed to move to the user storage area. and wherein the read data information includes location information indicating an area, from which the read data are read, from among the user storage area, the first buffer area, and the second buffer area. a storage device including a turbo write buffer and a user storage area implemented with a nonvolatile memory; and a host configured to transfer a read request to the storage device, wherein, in response to the read request, the storage device is configured to transfer read data from among the user storage area, the first buffer area, and the second buffer area and read data information including attributes of the read data to the host, wherein the turbo write buffer includes: a first buffer area in which stored data are configured to be prohibited from moving to the user storage area; and a second buffer area in which stored data are configured to be allowed to move to the user storage area. and wherein the read data information includes location information indicating an area, from which the read data are read, from among the user storage area, the first buffer area, and the second buffer area. a first buffer area in which stored data are configured to be prohibited from moving to the user storage area; and a second buffer area in which stored data are configured to be allowed to move to the user storage area. and wherein the read data information includes location information indicating an area, from which the read data are read, from among the user storage area, the first buffer area, and the second buffer area.
Testing method for the thermal contact between a temperature sensor and a battery cell of a battery module, the method comprising the steps of: Measuring a temperature T 1 of the temperature sensor at a time point t 1; Heating the temperature sensor for a defined time (t 2 -t 1); Measuring a temperature T 2 of the temperature sensor at a time point t 2 and/or a temperature T 3 of the temperature sensor at a time point t 3; and Determining the thermal contact between the temperature sensor and the battery cell based on at least one of the temperature differences ΔT 2,1 =(T 2 -T 1), ΔT 3,1 =(T 3 -T 1) and/or ΔT 3,2 =(T 3 -T 2), wherein the temperature sensor comprises a thermistor in thermal contact with the battery cell of the battery module, and wherein the heating the temperature sensor comprises applying a heating current I heat to the thermistor. Measuring a temperature T 1 of the temperature sensor at a time point t 1; Heating the temperature sensor for a defined time (t 2 -t 1); Measuring a temperature T 2 of the temperature sensor at a time point t 2 and/or a temperature T 3 of the temperature sensor at a time point t 3; and Determining the thermal contact between the temperature sensor and the battery cell based on at least one of the temperature differences ΔT 2,1 =(T 2 -T 1), ΔT 3,1 =(T 3 -T 1) and/or ΔT 3,2 =(T 3 -T 2), wherein the temperature sensor comprises a thermistor in thermal contact with the battery cell of the battery module, and wherein the heating the temperature sensor comprises applying a heating current I heat to the thermistor.
A process for the preparation of triazine carbamates by reacting a mixture of - an aminotriazine A having at least two amino groups per molecule, - an organic carbonate C, and - a base B which is an alkoxide M(OR 1) a of a metal M which is selected from the group consisting of alkali metals (a = 1) and earth alkali metals (a = 2), or mixtures thereof with a further alkoxide M(OR 0) a, where R 0 and R 1 are different from each other, - a solvent S which is - a monohydric alcohol solvent R 2 OH or - a mixture of solvents that comprises a mass fraction of at least 10 % of a monohydric alcohol R 2 OH, and a monohydric alcohol solvent R 3 OH, where R 2 and R 3 are different from each other, or - a mixture of solvents that comprises a mass fraction of at least 10 % of a monohydric alcohol R 2 OH with a further solvent selected from the group consisting of multifunctional alcohols having two or more hydroxyl groups per molecule, and from two to twelve carbon atoms, ether, and hydrocarbon solvents, or wherein R 0 and R 1 and R 2 and R 3 are each independently selected from the group consisting of alkyl groups having from one to twenty carbon atoms and each may be linear, branched or cyclic, and wherein at least one of the alkyl groups R 1 and R 2, and R 3 if present, and R 0 if present, is a tertiary alkyl group, wherein the amount of substance fraction x (R i) = n (R i) / [ n (R 0) + n (R 1) + n (R 2) + n (R 3)] of each of the alkyl groups R 0, R 1, R 2, and R 3 in the reaction mixture, i being any one of 0, 1, 2, and 3, is at least 0.02 mol/mol, for all values of i. - an aminotriazine A having at least two amino groups per molecule, - an organic carbonate C, and - a base B which is an alkoxide M(OR 1) a of a metal M which is selected from the group consisting of alkali metals (a = 1) and earth alkali metals (a = 2), or mixtures thereof with a further alkoxide M(OR 0) a, where R 0 and R 1 are different from each other, - a solvent S which is - a monohydric alcohol solvent R 2 OH or - a mixture of solvents that comprises a mass fraction of at least 10 % of a monohydric alcohol R 2 OH, and a monohydric alcohol solvent R 3 OH, where R 2 and R 3 are different from each other, or - a mixture of solvents that comprises a mass fraction of at least 10 % of a monohydric alcohol R 2 OH with a further solvent selected from the group consisting of multifunctional alcohols having two or more hydroxyl groups per molecule, and from two to twelve carbon atoms, ether, and hydrocarbon solvents, or
A system for a vehicle (100, 500), the system comprising: a door (104A, 104B, 1100); an electric actuating motor that opens and closes the door (104A, 104B, 1100), the electric actuating motor configured for actuating at a hinge of the door (104A, 104B, 1100); a push-open actuator mounted at a rear of the door (104A, 104B, 1100), the push-open actuator configured for pushing the door away from a body of the vehicle by pushing against the body of the vehicle (100, 500); and a wireless device configured for communications to the vehicle (100, 500), wherein the system is configured for detecting the presence of the wireless device within a first detection zone dedicated to the door (104A, 104B, 1100), wherein: the system is configured for partially opening the door (104A, 104B, 1100) to a first angle in response to the detection of the wireless device by actuating the electric motor; the door is a front door (104A, 104B, 1100), the system further comprising a rear door (106A, 106B, 402) behind the front door (104A, 104B, 1100), the rear door (106A, 106B, 402) having a dual-hinge design that opens and closes in a substantially vertical direction; and the first angle is selected so as to allow a user to grab a rear edge of the front door (104A, 104B, 1100) and have sufficient clearance to a swing pattern of the rear door (106A, 106B, 402). a door (104A, 104B, 1100); an electric actuating motor that opens and closes the door (104A, 104B, 1100), the electric actuating motor configured for actuating at a hinge of the door (104A, 104B, 1100); a push-open actuator mounted at a rear of the door (104A, 104B, 1100), the push-open actuator configured for pushing the door away from a body of the vehicle by pushing against the body of the vehicle (100, 500); and a wireless device configured for communications to the vehicle (100, 500), wherein the system is configured for detecting the presence of the wireless device within a first detection zone dedicated to the door (104A, 104B, 1100), the system is configured for partially opening the door (104A, 104B, 1100) to a first angle in response to the detection of the wireless device by actuating the electric motor; the door is a front door (104A, 104B, 1100), the system further comprising a rear door (106A, 106B, 402) behind the front door (104A, 104B, 1100), the rear door (106A, 106B, 402) having a dual-hinge design that opens and closes in a substantially vertical direction; and the first angle is selected so as to allow a user to grab a rear edge of the front door (104A, 104B, 1100) and have sufficient clearance to a swing pattern of the rear door (106A, 106B, 402).
A centrifugal pump having a pump housing which has an inlet and an outlet, a rotor having a front side facing the inlet and a rear side remote from the inlet, wherein the rotor is configured as an integral rotor so that the rotor is simultaneously a rotor of an electric rotary drive, wherein the rotor is magnetically supported, and wherein the rotor has a first pump wheel having first vanes for the generation of a main flow from the inlet to the outlet, wherein a second pump wheel having second vanes and having at least one relief bore is provided at the rotor for the generation of a recirculation flow which is directed from the rear side of the rotor through the at least one relief bore, and wherein a partition element, which separates the recirculation flow at least partly from the main flow in the region of the second pump wheel, is provided between the two pump wheels (4, 5), wherein the rotary drive is configured as a canned motor such that the relief bore extends axially from the rear side of the rotor through the rotor part of the electric rotary drive up to the second pump wheel.
A mobile terminal, comprising: a wireless communication unit configured to provide wireless communication; a display unit including a touch sensor and a fingerprint recognition sensor overlapped with the touch sensor; and a controller configured to: sense fingerprint information of a finger which has applied a touch input using the fingerprint recognition sensor, the touch input applied at least twice within a reference time, the touch input including a first touch input and a second touch input different from the first touch input, and the first touch input and the second touch input are applied to respective regions of the display unit, and wherein the controller is further configured to: extract, from the touch sensor, touch information of the first touch input, wherein the touch information is related to the touch region where the first touch input has been applied on the display unit, sense fingerprint information of a finger which has applied the second touch input using the fingerprint recognition sensor, and perform fingerprint authentication with respect to the sensed fingerprint information of the finger which has applied the second touch input using the touch information related to the touch region of the first touch input extracted from the touch sensor. a wireless communication unit configured to provide wireless communication; a display unit including a touch sensor and a fingerprint recognition sensor overlapped with the touch sensor; and a controller configured to: sense fingerprint information of a finger which has applied a touch input using the fingerprint recognition sensor, the touch input applied at least twice within a reference time, the touch input including a first touch input and a second touch input different from the first touch input, and the first touch input and the second touch input are applied to respective regions of the display unit, and wherein the controller is further configured to: extract, from the touch sensor, touch information of the first touch input, wherein the touch information is related to the touch region where the first touch input has been applied on the display unit, sense fingerprint information of a finger which has applied the second touch input using the fingerprint recognition sensor, and perform fingerprint authentication with respect to the sensed fingerprint information of the finger which has applied the second touch input using the touch information related to the touch region of the first touch input extracted from the touch sensor. extract, from the touch sensor, touch information of the first touch input, wherein the touch information is related to the touch region where the first touch input has been applied on the display unit, sense fingerprint information of a finger which has applied the second touch input using the fingerprint recognition sensor, and perform fingerprint authentication with respect to the sensed fingerprint information of the finger which has applied the second touch input using the touch information related to the touch region of the first touch input extracted from the touch sensor.
Use of an oil soluble titanium carboxylate for reducing low speed pre-ignition events in a spark-ignited direct injection internal combustion engine operated under a load with a brake mean effective pressure (BMEP) of greater than or equal to 10 bars and at speeds less than or equal to 3,000 rpm, wherein the oil-soluble titanium carboxylate compound is present in a lubricant composition comprising a base oil of lubricating viscosity, and wherein the lubricating composition further comprises a polyalkenyl succinimide dispersant in an amount from 0.5 to 4 weight % of the composition.
Insect repulsion and/or barrier arrangement comprising at least one opening which is largely permeable to ambient air and is located inside a wall or a surface, the opening being equipped with devices for preventing insects from passing through the opening and/or with devices for repelling insects approaching the opening and/or the devices, which devices comprise at least two electrodes, which electrodes are arranged in a definable distance from one another within the opening and/or on the edge of the opening and/or outside of the opening and in proximity to the opening, wherein a permanent electrical field or a cyclically increasing and decreasing electrical field is present between the at least two electrodes or wherein an electrical field is present in time intervals with interruptions between the at least two electrodes, wherein the electrical field repels insects approaching the electrical field and/or prevents insects from passing through the opening, the insect repulsion and/or barrier arrangement being characterized in that the arrangement is configured to apply different electrical potentials to the electrodes.
A microchip comprising: two substrate layers (1a, 1b) bonded to each other so as to form a flow channel configured to convey a fluid therein; an ejection portion including an opening directed toward an end face of the substrate layers (1a, 1b), the ejection portion configured to eject the fluid flowing through the flow channel to the outside of the microchip, the substrate layers (1a, 1b) being laminated to each other; and a cutout portion formed between the opening of the ejection portion and the end face of the substrate layers (1a, 1b), the cutout portion having a larger diameter than that of the opening, wherein the flow channel includes a tapered portion (161, 162) which is gradually thinned down along a fluid flowing direction upstream of the ejection portion, wherein at least a portion of the cutout portion is provided at the end face of the substrate layers (1a, 1b). two substrate layers (1a, 1b) bonded to each other so as to form a flow channel configured to convey a fluid therein; an ejection portion including an opening directed toward an end face of the substrate layers (1a, 1b), the ejection portion configured to eject the fluid flowing through the flow channel to the outside of the microchip, the substrate layers (1a, 1b) being laminated to each other; and a cutout portion formed between the opening of the ejection portion and the end face of the substrate layers (1a, 1b), the cutout portion having a larger diameter than that of the opening, wherein the flow channel includes a tapered portion (161, 162) which is gradually thinned down along a fluid flowing direction upstream of the ejection portion, wherein at least a portion of the cutout portion is provided at the end face of the substrate layers (1a, 1b).
A system comprising: a utility provider (12; 32) configured to provide utility services to a plurality of customers; a plurality of meters (20; 40, 42, 44, 46), each meter configured to measure utility usage data of a respective customer; and a plurality of intermediate nodes (14, 16, 18; 34, 36, 38) configured to transmit the utility usage data from the plurality of meters to the utility provider; wherein, when at least one of the plurality of meters is scheduled to receive a firmware upgrade, the utility provider is configured to forward the firmware upgrade to at least one of the plurality of intermediate nodes; and wherein the at least one of the plurality of intermediate nodes is configured to receive and store the firmware upgrade and, after storing the firmware upgrade, is further configured to forward the firmware upgrade to at least one of the plurality of meters, characterized in that each intermediate node comprises a voltage monitoring device configured to monitor a voltage level of a power supply providing power to the respective intermediate node, and in that, if the voltage monitoring device determines the voltage level to be below a predetermined threshold level, the intermediate node pauses the forwarding process until the voltage level returns to above the predetermined threshold level. a utility provider (12; 32) configured to provide utility services to a plurality of customers; a plurality of meters (20; 40, 42, 44, 46), each meter configured to measure utility usage data of a respective customer; and a plurality of intermediate nodes (14, 16, 18; 34, 36, 38) configured to transmit the utility usage data from the plurality of meters to the utility provider; wherein, when at least one of the plurality of meters is scheduled to receive a firmware upgrade, the utility provider is configured to forward the firmware upgrade to at least one of the plurality of intermediate nodes; and wherein the at least one of the plurality of intermediate nodes is configured to receive and store the firmware upgrade and, after storing the firmware upgrade, is further configured to forward the firmware upgrade to at least one of the plurality of meters, characterized in that each intermediate node comprises a voltage monitoring device configured to monitor a voltage level of a power supply providing power to the respective intermediate node, and in that, if the voltage monitoring device determines the voltage level to be below a predetermined threshold level, the intermediate node pauses the forwarding process until the voltage level returns to above the predetermined threshold level.
A semiconductor device comprising: a pixel portion with pixels each of which having a light emitting element and driver circuits (109, 304, 305) such as a source driver (109, 304) and a gate driver; at least one of the driver circuits (109, 304, 305) including a buffer portion (108, 314, 310) and a logic portion (105, 313, 309), which is formed over a substrate; a first flexible printed circuit connecting terminal over the substrate configured for supplying a voltage from an external flexible printed circuit; a second flexible printed circuit connecting terminal over the substrate configured for supplying the voltage from the external flexible printed circuit; a first power line connecting the first connecting terminal with the logic portion electrically; and a second power line connecting the second connecting terminal with the buffer portion electrically, wherein the first power line and the second power line have the same potential. a pixel portion with pixels each of which having a light emitting element and driver circuits (109, 304, 305) such as a source driver (109, 304) and a gate driver; at least one of the driver circuits (109, 304, 305) including a buffer portion (108, 314, 310) and a logic portion (105, 313, 309), which is formed over a substrate; a first flexible printed circuit connecting terminal over the substrate configured for supplying a voltage from an external flexible printed circuit; a second flexible printed circuit connecting terminal over the substrate configured for supplying the voltage from the external flexible printed circuit; a first power line connecting the first connecting terminal with the logic portion electrically; and a second power line connecting the second connecting terminal with the buffer portion electrically, wherein the first power line and the second power line have the same potential.
Method for measuring the vibration behavior of a drivetrain of a turboset comprising a generator in a power plant connected to an energy network, wherein the method has the steps of: a) selecting excitation signals, in particular in the form of voltage signals, wherein the frequency spectrum of the selected excitation signals contains frequencies of up to at least 15 Hz, preferably up to at least 97 Hz, better still up to at least 147 Hz, b) influencing the field current of the generator using the excitation signals selected in step a) in such a manner that mechanical vibrations are excited in the power plant turboset, c) capturing the excited mechanical vibrations, including the resonant vibrations, by measuring at least one suitable output variable, d) computationally determining a transfer function from the excitation signal to the output variable measured in step c), characterized in that the method has the following step of: e) computationally determining the transfer function from the generator torque to a desired output variable using known transfer functions from the excitation signal used in step b) to a desired input variable and/or from the desired output variable to the output variable measured in step c) on the basis of the transfer function determined in step d). a) selecting excitation signals, in particular in the form of voltage signals, wherein the frequency spectrum of the selected excitation signals contains frequencies of up to at least 15 Hz, preferably up to at least 97 Hz, better still up to at least 147 Hz, b) influencing the field current of the generator using the excitation signals selected in step a) in such a manner that mechanical vibrations are excited in the power plant turboset, c) capturing the excited mechanical vibrations, including the resonant vibrations, by measuring at least one suitable output variable, d) computationally determining a transfer function from the excitation signal to the output variable measured in step c),
A method for use in a bootstrapping element, the method comprising receiving an authentication bootstrapping request related to a subscriber, requesting authentication information of said subscriber from a home location register, comprising requesting an authentication vector corresponding to a mobile subscriber identity of the subscriber from the home location register using a mobile application part protocol format, requesting security settings of said subscriber from a security setting database that is separate from the home location register over a database interface using a database access protocol, wherein said security setting database is a generic bootstrapping architecture user security setting database, receiving a response (4-3, 4-5) at least from one of the home location register and the security setting database, and proceeding with authentication bootstrapping (4-6, 2-6) at least partially on the basis of the response received, without the bootstrapping element using a home subscriber system.