mhurhangee/ep-ind-claims huggingface dataset:
A grid-connectable power inverter system, comprising: one or more power inverters (108, 110, 112, 114) configured to receive power from at least one corresponding energy source (104, 106); and at least one controller configured to control each power inverter via algorithmic software reactive power support commands such that at least one power inverter provides reactive power to the power grid to which it can be connected based on its reactive power capacity and only while its total power capacity is not exhausted in generating real power, characterised in that the power inverter system further comprises at least one incrementally switchable reactive power bank, wherein the at least one controller is further configured to control the at least one incrementally switchable reactive power bank and the one or more power inverters (108, 110, 112, 114) having sufficient reactive power capacity such that the one or more power inverters are configured to incrementally supply reactive power to the power grid in smaller increments than that capable of being supplied via the at least one incrementally switchable reactive power bank. one or more power inverters (108, 110, 112, 114) configured to receive power from at least one corresponding energy source (104, 106); and at least one controller configured to control each power inverter via algorithmic software reactive power support commands such that at least one power inverter provides reactive power to the power grid to which it can be connected based on its reactive power capacity and only while its total power capacity is not exhausted in generating real power,
A data transfer device that is adapted to store a plurality of pieces of sampling data (Sd) indicating respective measurement results (Ct) in a plurality of sampling processes executed in one control period (Set) in one data frame and to transmit the sampling data (Sd) to a control device at each of the control period (Sct), the data transfer device, characterized in that, it further comprises: an acquisition part that is adapted to acquire the measurement results (Ct) in the respective executed sampling processes; and a compression part that, in a case where a maximum (Vmax) of a change between the measurement results (Ct) in two of the sampling processes executed consecutively at the one control period (Set) is determined in advance, is configured to compress the measurement result (Ct) in each of second and subsequent sampling processes among the plurality of the measurement results (Ct) acquired by the acquisition part to the sampling data (Sd) with a data size by which the maximum of a change (Vmax) is able to be represented, wherein the sampling process is a process of counting a number of pulses of a pulse signal, wherein the measurement result (Ct) is the number of pulses that is counted, and wherein the data size by which the maximum of a change (Vmax) is able to be represented is determined in advance based on an absolute value of the number of pulses countable in one sampling process, and whether a pulse count method in the sampling process is bidirectional or unidirectional. an acquisition part that is adapted to acquire the measurement results (Ct) in the respective executed sampling processes; and a compression part that, in a case where a maximum (Vmax) of a change between the measurement results (Ct) in two of the sampling processes executed consecutively at the one control period (Set) is determined in advance, is configured to compress the measurement result (Ct) in each of second and subsequent sampling processes among the plurality of the measurement results (Ct) acquired by the acquisition part to the sampling data (Sd) with a data size by which the maximum of a change (Vmax) is able to be represented, wherein the sampling process is a process of counting a number of pulses of a pulse signal, wherein the measurement result (Ct) is the number of pulses that is counted, and wherein the data size by which the maximum of a change (Vmax) is able to be represented is determined in advance based on an absolute value of the number of pulses countable in one sampling process, and whether a pulse count method in the sampling process is bidirectional or unidirectional.
A computer-implemented method for configuring a virtual test system for testing vehicle functions of a motor vehicle, comprising the steps of: providing a data set comprising first data of a plurality of input ports of an artifact to be tested and comprising second data of a plurality of output ports of at least one further artifact to be tested; characterized by: applying a machine learning algorithm to the data set, wherein for each of the plurality of input ports of the artifact to be tested, a confidence value is determined for each of the plurality of output ports of the at least one further artifact to be tested; for each of the plurality of input ports of the artifact to be tested, assigning (S3a) the output port of the at least one further artifact to be tested having the highest confidence value depending on a first condition; generating (S3b) a list of output ports having the highest confidence values depending on a second condition, or not assigning (S3c) an output port depending on a third condition for configuring a connection of the input ports of the artifact to be tested to matching output ports of the at least one further artifact to be tested.
A catheter strain relief clip, comprising: a body having an upper surface; a plurality of arm members extending upwardly from said upper surface; each of said arm members defining an undercut region for receipt of a catheter; and wherein said arm members are disposed so as to define a bent path for the catheter threaded under each of said arm members from a first side to a second side of said body, characterized in that the catheter strain relief clip further comprises grooves defined in said upper surface between each of said arm members, said grooves defining a recessed channel for receipt of the catheter between the arm members. a body having an upper surface; a plurality of arm members extending upwardly from said upper surface; each of said arm members defining an undercut region for receipt of a catheter; and wherein said arm members are disposed so as to define a bent path for the catheter threaded under each of said arm members from a first side to a second side of said body, characterized in that the catheter strain relief clip further comprises grooves defined in said upper surface between each of said arm members, said grooves defining a recessed channel for receipt of the catheter between the arm members.
A method for managing an Unmanned Aerial Vehicle, UAV, by a UAV Traffic Management, UTM, system, comprising: receiving a flight plan that describes a proposed flight mission of the UAV in an airspace; verifying that the flight plan complies with a set of directives and constraints issued by a regulatory authority, adding one or more predefined points to the flight plan to create a second flight plan, wherein each of the predefined points includes a set of conditions and a set of locations to at least one of which the UAV is configured to autonomously move, upon detection of at least one of the set of conditions; wherein each predefined point in the one or more predefined points complies with the set of directives and constraints, and transmitting the second flight plan to the UAV for storage of the predefined points on the UAV while the UAV carries out the proposed flight mission. receiving a flight plan that describes a proposed flight mission of the UAV in an airspace; verifying that the flight plan complies with a set of directives and constraints issued by a regulatory authority, adding one or more predefined points to the flight plan to create a second flight plan, wherein each of the predefined points includes a set of conditions and a set of locations to at least one of which the UAV is configured to autonomously move, upon detection of at least one of the set of conditions; wherein each predefined point in the one or more predefined points complies with the set of directives and constraints, and transmitting the second flight plan to the UAV for storage of the predefined points on the UAV while the UAV carries out the proposed flight mission.
A chimeric bovine viral diarrhea virus (BVDV) suitable for use in a vaccine against BVDV and allowing differentiation between cattle vaccinated with said chimeric virus and cattle infected with a wild-type BVDV, wherein the full length Erns gene is replaced by the full length Erns gene of the pronghorn antelope pestivirus (P-Erns) so that the chimeric BVDV expresses the Erns protein of pronghorn antelope pestivirus and does not express the BVDV Erns protein.
Office chair, in particular rotating office chair, having a base and a seat that comprises a seat carrier, a seating surface and a backrest, having a synchronising mechanism that is mounted on the seat carrier and couples the backrest in a kinematic manner to the seating surface, having a resilient joint module that comprises a seat carrier coupling section and a base coupling section that are arranged in each case along a main axis and are connected to one another via a resilient joint so that they may tilt in a resilient elastic manner perpendicular to the main axis, wherein the resilient joint comprises an elastic element and an adjusting part, which cooperates with said elastic element, and said elastic element and adjusting part are configured and arranged in such a manner that they comprise with respect to one another a first position, in which the resilient joint is blocked, and a second position, in which the resilient joint may tilt in a flexible manner, wherein the seat carrier and the base are coupled to one another via the resilient joint module.
Rotor support of an electrical machine, comprising a cylindrical supporting face and a radial support wall, wherein the rotor support is composed of at least two individual parts, characterized in that the first individual part is a cylindrical tube and the second individual part is a support wall pot (5, 26) which is arranged in the interior of the cylindrical tube and consists of a side wall and a support wall, wherein the transition region from the support wall to the side wall is rounded and wherein, for torque transmission, there is a connection between the side wall of the support wall pot (5, 26) and the cylindrical tube in the region of their contact plane, and in that the cylindrical tube has a constant outside diameter over its entire axial extent and fully engages over the at least one support wall pot (5, 26).
A method for detecting model security, comprising the following: obtaining result data computed by using a to-be-detected model, wherein the result data comprises intermediate result data; and discriminating the result data by using a discriminator, wherein the discriminator is in a trusted execution environment in a user terminal, and determining a security detection result of the to-be-detected model, wherein the discriminator is obtained through training by using a generative adversarial network, GAN, framework, the to-be-detected model, and a sample, and the to-be-detected model is in a trusted environment in the process of obtaining the discriminator through training, wherein the to-be-detected model is a deep learning model, and the intermediate result data is data computed at an intermediate layer of the to-be-detected model. obtaining result data computed by using a to-be-detected model, wherein the result data comprises intermediate result data; and discriminating the result data by using a discriminator, wherein the discriminator is in a trusted execution environment in a user terminal, and determining a security detection result of the to-be-detected model, wherein the discriminator is obtained through training by using a generative adversarial network, GAN, framework, the to-be-detected model, and a sample, and the to-be-detected model is in a trusted environment in the process of obtaining the discriminator through training, wherein the to-be-detected model is a deep learning model, and the intermediate result data is data computed at an intermediate layer of the to-be-detected model.
A method for geo-referencing provided aerial image data, which have been recorded by an imaging system and in which a part of the earth's surface is imaged, wherein geo-referencing of the provided aerial image data is carried out based on provided geo-referenced SAR image data in which the same part of the earth's surface is imaged, characterized by the following steps: - determining substantially point-shaped radar signatures RS in the geo-referenced SAR image data; - providing the sun position for the recording time of the provided aerial image data and the part of the earth's surface imaged therein; - determining elongated, in particular line- or bar-shaped, cast shadows SS generated in the direction of solar radiation in the supplied aerial image data based on the sun position at the time of recording; - determining, in the provided aerial image data, initial points AP facing the sun of the determined elongated cast shadows SS; - determining locally corresponding point-shaped radar signatures RS and the initial points AP of the elongated cast shadows SS; - registering the aerial image data with the SAR image data based on the corresponding radar signatures RS and the initial points AP; and - transferring the geo-referencing of the SAR image data to the aerial image data registered with the SAR image data. - determining substantially point-shaped radar signatures RS in the geo-referenced SAR image data; - providing the sun position for the recording time of the provided aerial image data and the part of the earth's surface imaged therein; - determining elongated, in particular line- or bar-shaped, cast shadows SS generated in the direction of solar radiation in the supplied aerial image data based on the sun position at the time of recording; - determining, in the provided aerial image data, initial points AP facing the sun of the determined elongated cast shadows SS; - determining locally corresponding point-shaped radar signatures RS and the initial points AP of the elongated cast shadows SS; - registering the aerial image data with the SAR image data based on the corresponding radar signatures RS and the initial points AP; and - transferring the geo-referencing of the SAR image data to the aerial image data registered with the SAR image data.
A method for aluminum electroplating, comprising the steps of: preparing a plating solution for aluminum electroplating containing at least dimethyl sulfone, an aluminum halide, and a nitrogen-containing compound, characterized in that the plating solution is formed by blending proportions of the dimethyl sulfone, the aluminum halide, and the nitrogen-containing compound in a preparation of a plating solution so that, per 10 mol of the dimethyl sulfone, the aluminum halide is present in an amount of 3.8 + n to 4.2 + n mol, and the nitrogen-containing compound is present in an amount of n mol, wherein n is 0.001 to 2.0 mol, thereby providing a plating solution with a freezing point of 25°C or less; and conducting an electroplating treatment with the plating solution at a temperature of from 25 to 80°C and an applied current density of from 2 to 15 A/dm 2. preparing a plating solution for aluminum electroplating containing at least dimethyl sulfone, an aluminum halide, and a nitrogen-containing compound, characterized in that the plating solution is formed by blending proportions of the dimethyl sulfone, the aluminum halide, and the nitrogen-containing compound in a preparation of a plating solution so that, per 10 mol of the dimethyl sulfone, the aluminum halide is present in an amount of 3.8 + n to 4.2 + n mol, and the nitrogen-containing compound is present in an amount of n mol, wherein n is 0.001 to 2.0 mol, thereby providing a plating solution with a freezing point of 25°C or less; and conducting an electroplating treatment with the plating solution at a temperature of from 25 to 80°C and an applied current density of from 2 to 15 A/dm 2.
A method for digitally printing onto a substrate, wherein the substrate is configured as a continuous substrate and/or discrete components of an absorbent article, the method comprising: providing a first printhead, wherein the first printhead has a first printhead width extending in a cross direction; providing a second printhead, wherein the second printhead has a second printhead width extending in the cross direction, wherein a portion of the first printhead overlaps a portion of the second printhead in a cross direction to form a total printhead width; advancing the substrate in the machine direction past the first printhead and the second printhead, the substrate comprising a first surface, an opposing second surface, and a substrate width extending in the cross direction; depositing a first plurality of droplets on the first surface of the substrate using the first printhead; depositing a second plurality of droplets on the first surface of the substrate using the second printhead; and printing the substrate on-line, as part of an assembly process, to form absorbent articles so that the absorbent articles include graphics printed thereon. providing a first printhead, wherein the first printhead has a first printhead width extending in a cross direction; providing a second printhead, wherein the second printhead has a second printhead width extending in the cross direction, wherein a portion of the first printhead overlaps a portion of the second printhead in a cross direction to form a total printhead width; advancing the substrate in the machine direction past the first printhead and the second printhead, the substrate comprising a first surface, an opposing second surface, and a substrate width extending in the cross direction; depositing a first plurality of droplets on the first surface of the substrate using the first printhead; depositing a second plurality of droplets on the first surface of the substrate using the second printhead; and printing the substrate on-line, as part of an assembly process, to form absorbent articles so that the absorbent articles include graphics printed thereon.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: a lithium salt; an organic solvent; a first additive; and a second additive, wherein the first additive is a compound represented by Formula 1, and the second additive is a compound represented by Formula 2: wherein, in Formula 1, R 1 and R 2 are each independently an alkylene group having 1 to 5 carbon atoms, which is unsubstituted or substituted with at least one alkyl group having 1 to 3 carbon atoms, and R 3 is hydrogen or an alkyl group having 1 to 5 carbon atoms which is unsubstituted or substituted with at least one alkyl group having 1 to 3 carbon atoms, wherein, in Formula 2, A and A' are nitrogen, R 4 is an alkylene group having 1 to 5 carbon atoms, which is unsubstituted or substituted with at least one alkyl group having 1 to 3 carbon atoms, and R 5 to R 7 are each independently hydrogen or an alkyl group having 1 to 4 carbon atoms. wherein the first additive is a compound represented by Formula 1, and the second additive is a compound represented by Formula 2: wherein, in Formula 1, R 1 and R 2 are each independently an alkylene group having 1 to 5 carbon atoms, which is unsubstituted or substituted with at least one alkyl group having 1 to 3 carbon atoms, and R 3 is hydrogen or an alkyl group having 1 to 5 carbon atoms which is unsubstituted or substituted with at least one alkyl group having 1 to 3 carbon atoms, wherein, in Formula 2, A and A' are nitrogen, R 4 is an alkylene group having 1 to 5 carbon atoms, which is unsubstituted or substituted with at least one alkyl group having 1 to 3 carbon atoms, and R 5 to R 7 are each independently hydrogen or an alkyl group having 1 to 4 carbon atoms.
A Point-to-Point Protocol -based dial-on-demand method, comprising: sending (S201, S401), by a home gateway, a virtual prefix to a terminal, wherein the virtual prefix is used for the terminal to configure an IPv6 virtual address of the terminal itself; and after confirming that a received data packet allows to trigger PPP network connection dialing, performing (S204, S402) the PPP network connection dialing by the home gateway, wherein the data packet is sent by the terminal using the IPv6 virtual address. sending (S201, S401), by a home gateway, a virtual prefix to a terminal, wherein the virtual prefix is used for the terminal to configure an IPv6 virtual address of the terminal itself; and after confirming that a received data packet allows to trigger PPP network connection dialing, performing (S204, S402) the PPP network connection dialing by the home gateway, wherein the data packet is sent by the terminal using the IPv6 virtual address.
A knocking state determination device in an internal combustion engine, comprising: a detector for detecting a plurality of intensity values relating to an intensity of vibration caused in said internal combustion engine; a calculator adapted to calculate a knock determination level by calculating a standard deviation value and median of at least a part of said plurality of intensity values, and adding a product of predetermined coefficient and said standard deviation to said median; a remover adapted to repeatedly removing maximum values from intensity values used for calculating the knock determination level such that a maximum value of intensity values used for calculating said knock determination level becomes not less than the knock determination level when the maximum value of the intensity values used for calculating said knock determination level is smaller than said knock determination level, and the maximum value of intensity values used for calculating said knock determination level becomes not more than said knock determination level when the maximum value of the intensity values used for calculating said knock determination level is larger than said knock determination level, whereby reducing the intensity values used for calculating said knock determination level; and a determiner adapted to determine a knocking occurrence state based on an intensity value larger than at least one of the maximum value of the intensity values used for calculating said knock determination level and said knock determination level. a detector for detecting a plurality of intensity values relating to an intensity of vibration caused in said internal combustion engine; a calculator adapted to calculate a knock determination level by calculating a standard deviation value and median of at least a part of said plurality of intensity values, and adding a product of predetermined coefficient and said standard deviation to said median; a remover adapted to repeatedly removing maximum values from intensity values used for calculating the knock determination level such that a maximum value of intensity values used for calculating said knock determination level becomes not less than the knock determination level when the maximum value of the intensity values used for calculating said knock determination level is smaller than said knock determination level, and the maximum value of intensity values used for calculating said knock determination level becomes not more than said knock determination level when the maximum value of the intensity values used for calculating said knock determination level is larger than said knock determination level, whereby reducing the intensity values used for calculating said knock determination level; and a determiner adapted to determine a knocking occurrence state based on an intensity value larger than at least one of the maximum value of the intensity values used for calculating said knock determination level and said knock determination level.