mhurhangee/ep-ind-claims huggingface dataset:
Hinged closure device for a container, comprising at least one lower hinge support, a cap, and a hinge that connects the lower hinge support to the cap, the hinge guiding the cap relative to the lower hinge support between a closed position and a fully open position in a movement parallel to a reference plane of the closure device, the hinge being connected to the lower hinge support by a lower material film and to the cap by an upper material film, characterized in that the hinge comprises: - a middle element connected to the lower hinge support by a middle portion (72.1) of the lower material film and connected to the cap by a middle portion (74.1) of the upper material film that is remote from the middle portion (72.1) of the lower material film; - two lower side elements located on either side of the reference plane and pointing toward the reference plane, each of the two lower side elements having a lower side connected to the lower hinge support by a side portion (72.2) of the lower material film, an upper side connected to the middle element by a lower middle material film, and at least one free outer side; and - two upper side elements located on either side of the reference plane and pointing toward the reference plane, each of the two upper side elements having an upper side connected to the cap by a side portion (74.2) of the upper material film, a lower side connected to the middle element by an upper middle material film, and at least one free outer side, such that the cap is hinged to the lower support by just two hinge regions that are remote from each other, which regions are formed respectively by the middle portion (72.1) of the lower material film and the middle portion (74.1) of the upper material film, while the two lower side elements and the two upper side elements have a bistable elastic function with respect to the two hinge regions. - a middle element connected to the lower hinge support by a middle portion (72.1) of the lower material film and connected to the cap by a middle portion (74.1) of the upper material film that is remote from the middle portion (72.1) of the lower material film; - two lower side elements located on either side of the reference plane and pointing toward the reference plane, each of the two lower side elements having a lower side connected to the lower hinge support by a side portion (72.2) of the lower material film, an upper side connected to the middle element by a lower middle material film, and at least one free outer side; and - two upper side elements located on either side of the reference plane and pointing toward the reference plane, each of the two upper side elements having an upper side connected to the cap by a side portion (74.2) of the upper material film, a lower side connected to the middle element by an upper middle material film, and at least one free outer side,
A method of preparing a cathode active material in which lithium cobalt oxide particles and manganese (Mn)-containing lithium transition metal oxide particles coexist, the method comprising: mixing a lithium cobalt oxide and a manganese (Mn)-containing compound selected from MnO 2, MnCO 3, MnOOH, Mn(CH 3 COO) 3, Mn(CH 3 COO) 2, MnSO 4, and Mn(NO 3) 2; raising a temperature of the mixture to 800°C so as to form Mn-containing lithium transition metal oxide particles; and calcining the resultant mixture at a temperature of 850°C to 950°C. mixing a lithium cobalt oxide and a manganese (Mn)-containing compound selected from MnO 2, MnCO 3, MnOOH, Mn(CH 3 COO) 3, Mn(CH 3 COO) 2, MnSO 4, and Mn(NO 3) 2; raising a temperature of the mixture to 800°C so as to form Mn-containing lithium transition metal oxide particles; and calcining the resultant mixture at a temperature of 850°C to 950°C.
An outdoor unit of an air-conditioning apparatus, the outdoor unit comprising a compressor, a heat exchanger, and a controller, wherein the controller includes a compressor driving circuit configured to drive the compressor, a harmonic suppressing unit configured to suppress harmonics in the compressor driving circuit, and a housing containing the compressor driving circuit and the harmonic suppressing unit; the housing has a first section having ventilation holes configured to allow communication between an outside and an inside, and a second section constituting a frame outside the first section; the first section contains the harmonic suppressing unit and a fan configured to blow air from inside the first section to the outside through the ventilation holes, and the second section contains the compressor driving circuit; characterized in that the first section contains a temperature detecting unit configured to detect a temperature inside the first section; and the controller controls the fan based on a detection value of the temperature detecting unit, and changes a direction of flow of air circulating between an outside and an inside of the housing, and the controller drives or stops the fan based on a determination as to whether a detection value of the temperature detecting unit reaches a target value. a compressor driving circuit configured to drive the compressor, a harmonic suppressing unit configured to suppress harmonics in the compressor driving circuit, and a housing containing the compressor driving circuit and the harmonic suppressing unit; the housing has a first section having ventilation holes configured to allow communication between an outside and an inside, and a second section constituting a frame outside the first section; the first section contains the harmonic suppressing unit and a fan configured to blow air from inside the first section to the outside through the ventilation holes, and the second section contains the compressor driving circuit; characterized in that the first section contains a temperature detecting unit configured to detect a temperature inside the first section; and the controller controls the fan based on a detection value of the temperature detecting unit, and changes a direction of flow of air circulating between an outside and an inside of the housing, and the controller drives or stops the fan based on a determination as to whether a detection value of the temperature detecting unit reaches a target value.
Seal having an automatically movable sealing bar, having a holder which can be fastened to a door or window leaf, having a mechanism which is connected with the holder and the sealing bar, and having a drive with which the mechanism can be operated in order to effect a movement of the sealing bar relative to the holder, characterised in that the seal has a measuring apparatus (4, 5) for capturing stretching and compressing deformations on parts of the seal, and that the measuring apparatus (4, 5) has at least one sensor for the capture of stretching and compressing deformations, in order to monitor the seal.
Method for the purification of an exhaust-gas flow of an internal combustion engine, in particular of an exhaust gas-turbocharged internal combustion engine, in which method nitrogen oxides are removed from the exhaust-gas flow by means of selective catalytic reduction, wherein the exhaust-gas flow is split or branched, upstream of at least one SCR catalytic converter, into a main exhaust-gas flow and a partial exhaust-gas flow (6", 20), said partial exhaust-gas flow (6", 20) having a defined quantity of a reducing agent precursor substance for decomposition fed to it in defined internal combustion engine operating states, which reducing agent precursor substance is converted, in a reactor of the partial exhaust-gas flow (6", 20), to form a reducing agent which is discharged from the reactor by means of the partial exhaust-gas flow (6", 20) and which is fed to the main exhaust-gas flow upstream of the SCR catalytic converter, wherein, in the partial exhaust-gas flow (6", 20), there is provided at least one shut-off and/or throttle device (8, 21) which is coupled to a control and/or regulating device and which can be actuated in a manner dependent on defined operating parameters, and wherein also, in the main exhaust-gas flow (6', 20), there is arranged at least one shut-off and/or throttle device (7, 7') which is coupled to a control and/or regulating device, characterized in that the shut-off and/or throttle devices (7, 7', 8, 21) arranged in the partial exhaust-gas flow (6", 20) and in the main exhaust-gas flow (6', 20) are actuated in a manner dependent on defined reaction parameters such that, on the one hand, the main exhaust-gas flow is shut off or throttled to a defined extent by means of the shut-off and/or throttle device (7, 7') arranged therein, and on the other hand, the partial exhaust-gas flow (6", 20) is backed up to a defined extent by means of the shut-off and/or throttle device (8, 21) arranged therein.
A method for determining and/or monitoring the temperature of a medium by means of a thermometer with at least one temperature sensor (T 1), wherein the temperature sensor (T 1) has a temperature-sensitive sensor element which is electrically contacted via at least one first connection line and one second connection line, wherein the first connection line is divided into a first section and a second section, wherein the first section facing toward the sensor element consists of a first material, and wherein the second section facing away from the sensor element consists of a second material differing from the first, wherein the second connection line consists of the second material and wherein the first section of the first connection line and at least part of the second connection line form a first temperature difference sensor (T 2) in the form of a thermoelement, the method comprising the following method steps: ascertaining a measurement value for the temperature of the medium by means of the temperature sensor (T 1), ascertaining a heat flow, in particular a heat dissipation, or a variable connected to the heat flow, for example a variable derived from the heat flow, or a variable representing the heat flow, in the area of the temperature sensor (T 1), wherein the heat flow or the variable connected to the heat flow is determined by means of at least the first temperature difference sensor (T 2), and determining a measurement value deviation (σT) for the measurement value for the temperature from the ascertained heat flow, in particular a heat dissipation, or a variable connected to the heat flow, for example a variable derived from the heat flow, or a variable representing the heat flow, by reference to a model for a heat dissipation in the area of the temperature sensor (T 1), wherein the model is a parametric model. ascertaining a measurement value for the temperature of the medium by means of the temperature sensor (T 1), ascertaining a heat flow, in particular a heat dissipation, or a variable connected to the heat flow, for example a variable derived from the heat flow, or a variable representing the heat flow, in the area of the temperature sensor (T 1), wherein the heat flow or the variable connected to the heat flow is determined by means of at least the first temperature difference sensor (T 2), and determining a measurement value deviation (σT) for the measurement value for the temperature from the ascertained heat flow, in particular a heat dissipation, or a variable connected to the heat flow, for example a variable derived from the heat flow, or a variable representing the heat flow, by reference to a model for a heat dissipation in the area of the temperature sensor (T 1), wherein the model is a parametric model.
A switching mode power supply (SMPS) device comprising: a power converting part that is operable to convert an input voltage into an output voltage according to a switching signal, and to output a primitive switching signal for use in varying a frequency of the switching signal based on power drawn by a load receiving the output voltage, wherein the primitive switching signal is a signal previously generated in order to generate the switching signal by a quasi-resonant control method; a resonant circuit that is operable to change a duty ratio of the primitive switching signal using a variable resonant frequency that varies in accordance with a variance of an impedance of the load; and characterized in further comprising: a signal controlling part that is operable to: compare a voltage of the primitive switching signal, changed in accordance with the variable resonant frequency, with a reference voltage, and vary the frequency of the switching signal and to output the switching signal having the varied frequency when the voltage of the primitive switching signal is maintained below the reference voltage for longer than a reference time. a power converting part that is operable to convert an input voltage into an output voltage according to a switching signal, and to output a primitive switching signal for use in varying a frequency of the switching signal based on power drawn by a load receiving the output voltage, wherein the primitive switching signal is a signal previously generated in order to generate the switching signal by a quasi-resonant control method; a resonant circuit that is operable to change a duty ratio of the primitive switching signal using a variable resonant frequency that varies in accordance with a variance of an impedance of the load; and characterized in further comprising: a signal controlling part that is operable to: compare a voltage of the primitive switching signal, changed in accordance with the variable resonant frequency, with a reference voltage, and vary the frequency of the switching signal and to output the switching signal having the varied frequency when the voltage of the primitive switching signal is maintained below the reference voltage for longer than a reference time. compare a voltage of the primitive switching signal, changed in accordance with the variable resonant frequency, with a reference voltage, and vary the frequency of the switching signal and to output the switching signal having the varied frequency when the voltage of the primitive switching signal is maintained below the reference voltage for longer than a reference time.
A compound of structural Formula I or a salt thereof, wherein: R 1 -R 25 are independently selected from the group consisting of hydrogen and deuterium; at least one of R 1 -R 25 is deuterium; and at least one of R 1 -R 25 independently has deuterium enrichment of no less than 10%. R 1 -R 25 are independently selected from the group consisting of hydrogen and deuterium;
A 3D time-of-flight camera for capturing three-dimensional image data from a detection area, comprising an illumination unit for transmitting transmitted light modulated simultaneously in at least two frequencies into the detection area, an image sensor having a plurality of pixels for generating received signals from reflected transmitted light reflected in the detection area, a plurality of evaluation circuits assigned to the pixels for respectively determining at least one distance per pixel from the received signals by means of a time-of-flight method using the at least two frequencies, and an internal reference target (32, 36, 38, 40) that directs a portion of the transmitted light or test light within the 3D time-of-flight camera onto the image sensor, wherein the test light is modulated light whose modulation corresponds to that of transmitted light deflected at a reference target at a defined distance, characterized in that the 3D time-of-flight camera is configured to measure distances both to the internal reference target (32, 36, 38, 40) and to at least one object in the detection area in the same visual ray of a pixel in order to enable a function test at the same time as the actual measurement, and comprises an evaluation unit that, for the function test, compares a measured variable of the reference target (32, 36, 38, 40) determined by the evaluation circuits with a reference measured variable.
A graphics apparatus, comprising: an encoder to encode a plurality of blocks of a two-dimensional frame based on a plurality of quantization parameters, where the 2D frame corresponds to a projection of a 360 video space; and a quality selector communicatively coupled to the encoder to: determine the plurality of quantization parameters for the plurality of blocks based on a frame budget to support a target bit-rate, determine that a first block of the 2D frame is a neighbor of each of the plurality of blocks in one or more of the 360 video space or the 2D frame, and in response to the first block being determined to be the neighbor of each of the plurality of blocks in the one or more of the 360 video space or the 2D frame, adjust a first quantization parameter determined for the first block of the 2D frame based on the frame budget such that the first quantization parameter stays within a range of 10% around an average quantization parameter calculated from the plurality of quantization parameters of each previously encoded neighbor blocks. an encoder to encode a plurality of blocks of a two-dimensional frame based on a plurality of quantization parameters, where the 2D frame corresponds to a projection of a 360 video space; and a quality selector communicatively coupled to the encoder to: determine the plurality of quantization parameters for the plurality of blocks based on a frame budget to support a target bit-rate, determine that a first block of the 2D frame is a neighbor of each of the plurality of blocks in one or more of the 360 video space or the 2D frame, and in response to the first block being determined to be the neighbor of each of the plurality of blocks in the one or more of the 360 video space or the 2D frame, adjust a first quantization parameter determined for the first block of the 2D frame based on the frame budget such that the first quantization parameter stays within a range of 10% around an average quantization parameter calculated from the plurality of quantization parameters of each previously encoded neighbor blocks. determine the plurality of quantization parameters for the plurality of blocks based on a frame budget to support a target bit-rate, determine that a first block of the 2D frame is a neighbor of each of the plurality of blocks in one or more of the 360 video space or the 2D frame, and in response to the first block being determined to be the neighbor of each of the plurality of blocks in the one or more of the 360 video space or the 2D frame, adjust a first quantization parameter determined for the first block of the 2D frame based on the frame budget such that the first quantization parameter stays within a range of 10% around an average quantization parameter calculated from the plurality of quantization parameters of each previously encoded neighbor blocks.
A composition comprising a. at least one polyol component having a hydroxyl group content of 9% to 15% by weight, based on the total weight of the polyol component, the polyol component comprising at least one polyol selected from the group consisting of polyether polyols, polyester polyols, and polyether polyester polyols, and b. at least one isocyanate component having an isocyanate group content of 10% to 15% by weight, based on the total weight of the isocyanate component, the isocyanate component comprising at least one di- or polyisocyanate-terminated polylactone prepolymer. a. at least one polyol component having a hydroxyl group content of 9% to 15% by weight, based on the total weight of the polyol component, the polyol component comprising at least one polyol selected from the group consisting of polyether polyols, polyester polyols, and polyether polyester polyols, and b. at least one isocyanate component having an isocyanate group content of 10% to 15% by weight, based on the total weight of the isocyanate component, the isocyanate component comprising at least one di- or polyisocyanate-terminated polylactone prepolymer.
A method at a mobile terminal in a wireless communications network in which the mobile terminal communicates with a base station, the method characterized in the steps of: measuring, by a mobile terminal, at least one channel-related metric; comparing the measured at least one channel-related metric with at least one predetermined threshold level that is associated with the at least one channel-related metric, the at least one predetermined threshold level being dynamically received from the base station; selecting a transmission rate for use on the reverse common signaling channel based on the comparison of the measured at least one channel-related metric with the at least one threshold level, the selection being made from among a plurality of possible transmission rates that are supported by the base station on the reverse common signaling channel. measuring, by a mobile terminal, at least one channel-related metric; comparing the measured at least one channel-related metric with at least one predetermined threshold level that is associated with the at least one channel-related metric, the at least one predetermined threshold level being dynamically received from the base station; selecting a transmission rate for use on the reverse common signaling channel based on the comparison of the measured at least one channel-related metric with the at least one threshold level, the selection being made from among a plurality of possible transmission rates that are supported by the base station on the reverse common signaling channel. comparing the measured at least one channel-related metric with at least one predetermined threshold level that is associated with the at least one channel-related metric, the at least one predetermined threshold level being dynamically received from the base station; selecting a transmission rate for use on the reverse common signaling channel based on the comparison of the measured at least one channel-related metric with the at least one threshold level, the selection being made from among a plurality of possible transmission rates that are supported by the base station on the reverse common signaling channel.
A vacuum pump, in particular a turbomolecular pump, comprising at least one pump mechanism (124, 124', 124") for pumping gas along a pump channel extending from a main inlet to an outlet for the gas, wherein the pump mechanism (124, 124', 124") is configured such that a first pump-active section of the pump mechanism (124, 124', 124"), which is provided upstream with respect to a second pump-active section of the pump mechanism (124, 124', 124"), has a higher compression capacity than the second pump-active section and/or the pump mechanism (124, 124', 124") is configured such that the second pump-active section has a higher suction capacity than the first pump-active section; wherein at least one intermediate inlet and/or at least one flood opening for the gas opens into the pump channel, wherein the first pump-active section is located upstream of the opening of the intermediate inlet and/or of the flood opening, and wherein the second pump-active section is located downstream of the opening of the intermediate inlet and/or of the flood opening; and wherein the opening of the intermediate inlet and/or the opening of the flood opening into the pump channel is disposed between two Holweck pump stages (124', 124") of a Holweck pump mechanism which are arranged in series and which are in particular nested in one another.