mhurhangee/ep-ind-claims huggingface dataset:
An active power curtailment, APC, management system to prevent or reduce APC in an inverter of a rooftop photovoltaic, PV, system which is connectable to a low voltage distribution network comprising at least one phase, and at least one household load, comprising; - a phase voltage input module configured to measure voltage of the at least one phase and to provide phase voltage input data; - a microcontroller; - at least one primary relay configured to connect or disconnect the rooftop PV system from one or more of said at least one phase; and - at least one secondary relay configured to connect or disconnect the rooftop PV system from one or more of said at least one household load; characterized in that the system comprises communication means to receive online data from a remote provider and in that the microcontroller is configured to determine whether APC occurs based on at least the following inputs: - actual PV power generation data based on the online data received from the remote provider, said actual PV power generation data being a downscale of accumulated real-time actual PV power generation data in accordance with a geographical location of the rooftop PV system, - real-time PV inverter power output data received from the inverter, and - the phase voltage input data received from the phase voltage input module; wherein the microcontroller is further configured to determine whether APC occurs based on the fulfillment of the following conditions: - the phase voltage violates a network voltage upper limit; - there is a difference between the actual PV power generation data and the real-time PV inverter power output data and said difference is increasing with a rate of change greater than a predetermined threshold; and wherein the microcontroller is further configured to prevent or reduce the APC by opening and/or closing of at least one of the primary and/or secondary relays based on said determination. - a phase voltage input module configured to measure voltage of the at least one phase and to provide phase voltage input data; - a microcontroller; - at least one primary relay configured to connect or disconnect the rooftop PV system from one or more of said at least one phase; and - at least one secondary relay configured to connect or disconnect the rooftop PV system from one or more of said at least one household load; - actual PV power generation data based on the online data received from the remote provider, said actual PV power generation data being a downscale of accumulated real-time actual PV power generation data in accordance with a geographical location of the rooftop PV system, - real-time PV inverter power output data received from the inverter, and - the phase voltage input data received from the phase voltage input module; - the phase voltage violates a network voltage upper limit; - there is a difference between the actual PV power generation data and the real-time PV inverter power output data and said difference is increasing with a rate of change greater than a predetermined threshold;
An in-vehicle computing system of a first vehicle, the system comprising: a user input interface configured to receive an input from a user; an inter-vehicle communication system capable of communicating with a navigation system of a second vehicle; a processor; and a storage device storing instructions executable by the processor to: receive a first separation from the user of the first vehicle, the first separation being input via the user input interface; and responsive to receiving a first separation from the user of the first vehicle, determine a space cushion between the second vehicle and the first vehicle, the space cushion is determined either based on a second separation communicated from the second vehicle via the inter-vehicle communication system, or on the first separation and the second separation; and control a distance between the first vehicle and the second vehicle based on the space cushion. a user input interface configured to receive an input from a user; an inter-vehicle communication system capable of communicating with a navigation system of a second vehicle; a processor; and a storage device storing instructions executable by the processor to: receive a first separation from the user of the first vehicle, the first separation being input via the user input interface; and responsive to receiving a first separation from the user of the first vehicle, determine a space cushion between the second vehicle and the first vehicle, the space cushion is determined either based on a second separation communicated from the second vehicle via the inter-vehicle communication system, or on the first separation and the second separation; and control a distance between the first vehicle and the second vehicle based on the space cushion. receive a first separation from the user of the first vehicle, the first separation being input via the user input interface; and responsive to receiving a first separation from the user of the first vehicle, determine a space cushion between the second vehicle and the first vehicle, the space cushion is determined either based on a second separation communicated from the second vehicle via the inter-vehicle communication system, or on the first separation and the second separation; and control a distance between the first vehicle and the second vehicle based on the space cushion.
A roller skate, comprising a tread surface, a front wheel, which is arranged in front of the tread surface in the direction of movement, a rear wheel, which is arranged behind the tread surface in the direction of movement, and a brake system, characterized in that the tread surface is the top face of a box frame and in that the brake system comprises at least one hydraulic disk brake per roller skate, the brake cylinder of which brake system is received in the interior of the box frame, the brake cylinder being engaged with a brake lever attached to the side of the box frame, and the brake lever being adjustable in parallel with and transversely to the direction of movement of the roller skate.
A first apparatus comprising: a processor configured to generate a first synchronization message, select a first wavelength and a second wavelength, assign the first wavelength to the first apparatus, and assign the second wavelength to a second apparatus; a transmitter coupled to the processor and configured to transmit the first synchronization message to the second apparatus at the first wavelength; and a receiver coupled to the processor and configured to receive a second synchronization message from the second apparatus at the second wavelength and in response to the first synchronization message, and wherein the processor is configured to select the first wavelength and the second wavelength based on a reduction of a latency difference between the second synchronization message and the first synchronization message, wherein the latency difference is calculated as a result of the following formula: L•S 0 •[(λ d -λ 0) 2 -(λ u -λ 0) 2]/2, wherein L is a distance of a fiber between the first apparatus and the second apparatus, λ 0 is a zero-dispersion wavelength of the fiber, S 0 is a zero-dispersion slope, λ d is the first wavelength, and the λ u is the second wavelength, and the processor is further configured to calculate a timing offset, TO, between the first apparatus and the second apparatus based on the reduction. a processor configured to generate a first synchronization message, select a first wavelength and a second wavelength, assign the first wavelength to the first apparatus, and assign the second wavelength to a second apparatus; a transmitter coupled to the processor and configured to transmit the first synchronization message to the second apparatus at the first wavelength; and a receiver coupled to the processor and configured to receive a second synchronization message from the second apparatus at the second wavelength and in response to the first synchronization message, and wherein the processor is configured to select the first wavelength and the second wavelength based on a reduction of a latency difference between the second synchronization message and the first synchronization message, wherein the latency difference is calculated as a result of the following formula: L•S 0 •[(λ d -λ 0) 2 -(λ u -λ 0) 2]/2, wherein L is a distance of a fiber between the first apparatus and the second apparatus, λ 0 is a zero-dispersion wavelength of the fiber, S 0 is a zero-dispersion slope, λ d is the first wavelength, and the λ u is the second wavelength, and the processor is further configured to calculate a timing offset, TO, between the first apparatus and the second apparatus based on the reduction.
An isolated antibody that binds to B7-H4, wherein the antibody comprises: (a) (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO: 39, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO: 40, and (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 128, (iv) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 42, (v) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 43, and (vi) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 129; or (b) (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO: 39, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO: 40, and (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 41, (iv) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 42, (v) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 43, and (vi) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 129. (a) (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO: 39, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO: 40, and (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 128, (iv) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 42, (v) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 43, and (vi) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 129; or (b) (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO: 39, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO: 40, and (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 41, (iv) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 42, (v) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 43, and (vi) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 129.
A lithium secondary battery, comprising: an electrode assembly having an anode, a cathode, and a separator interposed between the cathode and the anode; and a nonaqueous electrolyte injected into the electrode assembly, wherein the anode has an anode active material layer which includes a carbon material capable of intercalating/deintercalating lithium ions, wherein the nonaqueous electrolyte includes an electrolyte salt and an organic solvent, wherein the nonaqueous electrolyte further includes a hetero polycyclic compound, which is at least one kind of compounds expressed by Chemical Formulas 5 to 8, 11, 16 to 19, 21 to 26 below. an electrode assembly having an anode, a cathode, and a separator interposed between the cathode and the anode; and a nonaqueous electrolyte injected into the electrode assembly, wherein the anode has an anode active material layer which includes a carbon material capable of intercalating/deintercalating lithium ions, wherein the nonaqueous electrolyte includes an electrolyte salt and an organic solvent, wherein the nonaqueous electrolyte further includes a hetero polycyclic compound, which is at least one kind of compounds expressed by Chemical Formulas 5 to 8, 11, 16 to 19, 21 to 26 below.
A battery protective circuit (220, 300) comprising: a first switch configured to be connected between a negative pack terminal (P -) of a battery pack and an output node to control an electrical connection between the negative pack terminal (P -) and the output node; a first resistor connected between the output node and a ground; and a controller configured to control on or off of the first switch and to determine a short circuit state between pack terminals (P + P -) of the battery pack based on an output voltage of the output node; wherein the controller is configured to turn on the first switch in a state where a discharge control switch of the battery pack is turned off. a first switch configured to be connected between a negative pack terminal (P -) of a battery pack and an output node to control an electrical connection between the negative pack terminal (P -) and the output node; a first resistor connected between the output node and a ground; and a controller configured to control on or off of the first switch and to determine a short circuit state between pack terminals (P + P -) of the battery pack based on an output voltage of the output node; wherein the controller is configured to turn on the first switch in a state where a discharge control switch of the battery pack is turned off.
Device (100, 200) for checking a functionality of a first resistance (102, 202) of a battery system, which first resistance acts as a system resistance, comprising means (105, 205) for providing a modulated test current, a switch (104, 204), a second resistance (103, 203), a first measuring means (106, 206) and a second measuring means (107, 207) wherein the first measuring means (106, 206) is configured to detect a first voltage value of an AC voltage, which is dropped across the first resistance (102, 202), to determine a first current value, and to transfer the first current value to the second measuring means (107, 207) by means of a connection (108, 208), wherein the second measuring means (107, 207) is configured to detect a second voltage value of an AC voltage, which is dropped across the second resistance (103, 203), and to determine a second current value, wherein the means (105, 205) for providing a modulated test current, the first resistance (102, 202) and the second resistance (103, 203) are connected in series and form a test circuit, and wherein the second measuring means (107, 207) is configured to compare the first current value and the second current value, and to generate a first signal if the first current value and the second current value are substantially equal, which first signal represents the functionality of the first resistance (102, 202).
A method for synthesising a compound of general formula in which R 1 stands for -H or -CH 3, and R 2 stands for -H, -Cl or -F; comprising the following step (b) reaction of a compound of formula with an organolithium compound of general formula in which R 2 stands for -H, -Cl or -F; to form a compound of general formula and conversion of the compound of general formula into the compound of general formula by methylation of the amino function in case R 1 in compound stands for CH 3 and cleaving of the ketal function. R 1 stands for -H or -CH 3, and R 2 stands for -H, -Cl or -F; (b) reaction of a compound of formula with an organolithium compound of general formula in which R 2 stands for -H, -Cl or -F; to form a compound of general formula and conversion of the compound of general formula into the compound of general formula by methylation of the amino function in case R 1 in compound stands for CH 3 and cleaving of the ketal function.
Pharmaceutical preparation for use in the treatment of an internal inflammatory condition, preferably an internal condition associated with ischemia, comprising a) a physiological solution comprising apoptotic peripheral blood mononuclear cells (PBMCs), or b) a supernatant of the solution a), wherein the solution a) is obtainable by cultivating PBMCs in a physiological solution free of PBMC-proliferating and PBMC-activating substances for at least 4 h, wherein the PBMCs are subjected to stress inducing conditions before or in the course of the cultivation, wherein the stress inducing conditions include hypoxia, ozone, heat, radiation, chemicals, osmotic pressure, pH shift or combinations thereof. a) a physiological solution comprising apoptotic peripheral blood mononuclear cells (PBMCs), or b) a supernatant of the solution a), wherein the solution a) is obtainable by cultivating PBMCs in a physiological solution free of PBMC-proliferating and PBMC-activating substances for at least 4 h, wherein the PBMCs are subjected to stress inducing conditions before or in the course of the cultivation, wherein the stress inducing conditions include hypoxia, ozone, heat, radiation, chemicals, osmotic pressure, pH shift or combinations thereof.
A reservoir tank comprising: a hydraulic fluid supply opening portion; a hydraulic fluid supply portion to which hydraulic fluid is supplied from the hydraulic fluid supply opening portion; a hydraulic fluid storage chamber (11, 12) that stores the hydraulic fluid as a result of the hydraulic fluid in the hydraulic fluid supply portion being supplied thereto via a hydraulic fluid passage; and a cylindrical portion that is disposed between the hydraulic fluid supply opening portion and the hydraulic fluid supply portion and has inside a chamber that is communicated with the hydraulic fluid supply portion; characterized in that a volume-augmented chamber forming portion that has inside a volume-augmented second chamber that is communicated with the first chamber is disposed on the cylindrical portion, so as to extend horizontally or substantially horizontally from the cylindrical portion into a space above the hydraulic fluid passage and at least part of the volume-augmented chamber is positioned above a MAX line that is a maximum storage level of the hydraulic fluid. a hydraulic fluid supply opening portion; a hydraulic fluid supply portion to which hydraulic fluid is supplied from the hydraulic fluid supply opening portion; a hydraulic fluid storage chamber (11, 12) that stores the hydraulic fluid as a result of the hydraulic fluid in the hydraulic fluid supply portion being supplied thereto via a hydraulic fluid passage; and a cylindrical portion that is disposed between the hydraulic fluid supply opening portion and the hydraulic fluid supply portion and has inside a chamber that is communicated with the hydraulic fluid supply portion; characterized in that a volume-augmented chamber forming portion that has inside a volume-augmented second chamber that is communicated with the first chamber is disposed on the cylindrical portion, so as to extend horizontally or substantially horizontally from the cylindrical portion into a space above the hydraulic fluid passage and at least part of the volume-augmented chamber is positioned above a MAX line that is a maximum storage level of the hydraulic fluid.
A method of fulfilling requests on a device having a processor executing at least one local client application, the method comprising: executing on the device instructions configured to: generate a local server associating at least one server script with at least one local event; upon receiving from the local client application a subscription request specifying a selected local event, associate the selected local event with the local client application; upon detecting the selected local event associated with at least one server script and the local client application, execute within the local server the at least one server script associated with and related to the selected local event on behalf of the local client application, wherein the at least one server script specifies a type of processing related to the selected local event, when executed in the context of the selected local event, wherein the type of processing related to the selected local event is different from a type of processing when executed in the context of another local event; and notify the client application upon completion of the server script. generate a local server associating at least one server script with at least one local event; upon receiving from the local client application a subscription request specifying a selected local event, associate the selected local event with the local client application; upon detecting the selected local event associated with at least one server script and the local client application, execute within the local server the at least one server script associated with and related to the selected local event on behalf of the local client application, wherein the at least one server script specifies a type of processing related to the selected local event, when executed in the context of the selected local event, wherein the type of processing related to the selected local event is different from a type of processing when executed in the context of another local event; and notify the client application upon completion of the server script.
An apparatus, comprising: at least one memory; and logic (122, 124, 126), coupled to the at least one memory, operative to implement a targeted compound detection process, the logic (122, 124, 126) to: receive raw data from analysis of a sample via an analytical device, generate cumulative data from the raw data, the cumulative data representing data from a cumulative set of injections of the sample to the analytical device, receive compound specification information associated with the sample, and determine quantified compound information via performing targeted compound detection based on the cumulative data and the compound specification information. at least one memory; and logic (122, 124, 126), coupled to the at least one memory, operative to implement a targeted compound detection process, the logic (122, 124, 126) to: receive raw data from analysis of a sample via an analytical device, generate cumulative data from the raw data, the cumulative data representing data from a cumulative set of injections of the sample to the analytical device, receive compound specification information associated with the sample, and determine quantified compound information via performing targeted compound detection based on the cumulative data and the compound specification information. receive raw data from analysis of a sample via an analytical device, generate cumulative data from the raw data, the cumulative data representing data from a cumulative set of injections of the sample to the analytical device, receive compound specification information associated with the sample, and determine quantified compound information via performing targeted compound detection based on the cumulative data and the compound specification information.
A portable electronic system, comprising: a semiconductor package (550a-550c), comprising: a substrate; a semiconductor die (502, 502a-502c) coupled to the substrate; and a thermoelectric device chip (504, 504a-504c) disposed close to the semiconductor die, coupled to the substrate, configured to detect a heat energy (H T) generated from the semiconductor die and to convert the heat energy into a recycled electrical energy; and a power system coupled to the semiconductor package, configured to store the recycled electrical energy; wherein the substrate and the thermoelectric device chip (504, 504a-504c) are disposed on opposite sides of the semiconductor die (502, 502a-502c). a substrate; a semiconductor die (502, 502a-502c) coupled to the substrate; and a thermoelectric device chip (504, 504a-504c) disposed close to the semiconductor die, coupled to the substrate, configured to detect a heat energy (H T) generated from the semiconductor die and to convert the heat energy into a recycled electrical energy; and a power system coupled to the semiconductor package, configured to store the recycled electrical energy; wherein the substrate and the thermoelectric device chip (504, 504a-504c) are disposed on opposite sides of the semiconductor die (502, 502a-502c).