mhurhangee/ep-ind-claims huggingface dataset:
A DCDC converter that has an input filter circuit including an input reactor connected to a DC power supply and an input capacitor and converts a DC voltage of the input capacitor into an arbitrary DC voltage to output the DC voltage, the DCDC converter comprising: a switching circuit, to an input end of which the input filter circuit is connected, the switching circuit including an upper arm side switching element and a lower arm side switching element; a smoothing filter circuit (27, 27a) comprising a smoothing reactor having: one end connected to the output end of the switching circuit, a control unit (300, 300a) that feeds back an electric current of the smoothing filter circuit (27, 27a), flowing through the smoothing reactor and controls to turn on and off the switching elements of the switching circuit, wherein the control unit (300, 300a) includes a damping control unit which suppresses electric oscillation occurring in the input filter circuit, that calculates, based on a voltage of the input capacitor, a damping operation amount (DAMPCN) for adjusting the electric current of the smoothing filter circuit (27, 27a), wherein the control unit (300, 300a) generates a smoothing reactor current command ISL** reflecting the damping operation amount (DAMPCN) and controls to turn on and off of the switching elements of the switching circuit based on the smoothing reactor current command, wherein the damping control unit divides the voltage of the input capacitor by a DC component of the voltage of the input capacitor to thereby calculate a fluctuation rate (EFCfp) of the voltage of the input capacitor and calculate the damping operation amount (DAMPCN) corresponding to the fluctuation rate. a switching circuit, to an input end of which the input filter circuit is connected, the switching circuit including an upper arm side switching element and a lower arm side switching element; a smoothing filter circuit (27, 27a) comprising a smoothing reactor having: one end connected to the output end of the switching circuit, a control unit (300, 300a) that feeds back an electric current of the smoothing filter circuit (27, 27a), flowing through the smoothing reactor and controls to turn on and off the switching elements of the switching circuit, wherein the control unit (300, 300a) includes a damping control unit which suppresses electric oscillation occurring in the input filter circuit, that calculates, based on a voltage of the input capacitor, a damping operation amount (DAMPCN) for adjusting the electric current of the smoothing filter circuit (27, 27a), wherein the control unit (300, 300a) generates a smoothing reactor current command ISL** reflecting the damping operation amount (DAMPCN) and controls to turn on and off of the switching elements of the switching circuit based on the smoothing reactor current command, wherein the damping control unit divides the voltage of the input capacitor by a DC component of the voltage of the input capacitor to thereby calculate a fluctuation rate (EFCfp) of the voltage of the input capacitor and calculate the damping operation amount (DAMPCN) corresponding to the fluctuation rate.
A formulation for a lubricant comprising a base oil, in a range of from 40% by weight to 95% by weight of the formulation and comprising a compound of the formula I wherein R 1 is H, C 1 -C 6 alkyl, C 1 -C 6 alkenyl, or C 1 -C 6 alkynyl, wherein each hydrogen atom in C 1 -C 6 alkyl, C 1 -C 6 alkenyl, or C 1 -C 6 alkynyl is independently optionally substituted with OR 3; R 2 is C 10 -C 25 alkyl, C 10 -C 25 alkenyl, or C 10 -C 25 alkynyl, and wherein each hydrogen atom in C 10 -C 25 alkyl, C 10 -C 25 alkenyl, or C 10 -C 25 alkynyl is independently optionally substituted with hydroxy, or OR 7; a phospholipid, or a salt thereof, in a range from 2% by weight to 20% by weight of the formulation; and 2% by weight to 20% by weight of the formulation of a salt of the formula M 1 (R 8)(R 9) wherein M 1 is a divalent cation, R 8 and R 9 are independently - OC C 10 -C 25 alkyl, - OC C 10 -C 25 alkenyl, or - OC C 10 -C 25 alkynyl, and wherein each hydrogen atom in C 10 -C 25 alkyl, C 10 -C 25 alkenyl, or C 10 -C 25 alkynyl is independently optionally substituted with OR 10, wherein each of R 3, R 7, and R 10 is independently H, C 1 -C 6 alkyl, C 1 -C 6 alkenyl, C 1 -C 6 alkynyl, C 10 -C 25 alkyl, C 10 -C 25 alkenyl, C 10 -C 25 alkynyl, -C C 1 -C 6 alkyl, -C C 1 -C 6 alkenyl, - C C 1 -C 6 alkynyl, -C C 10 -C 25 alkyl, -C C 10 -C 25 alkenyl, -C C 10 -C 25 alkynyl. a base oil, in a range of from 40% by weight to 95% by weight of the formulation and comprising a compound of the formula I wherein R 1 is H, C 1 -C 6 alkyl, C 1 -C 6 alkenyl, or C 1 -C 6 alkynyl, wherein each hydrogen atom in C 1 -C 6 alkyl, C 1 -C 6 alkenyl, or C 1 -C 6 alkynyl is independently optionally substituted with OR 3; R 2 is C 10 -C 25 alkyl, C 10 -C 25 alkenyl, or C 10 -C 25 alkynyl, and wherein each hydrogen atom in C 10 -C 25 alkyl, C 10 -C 25 alkenyl, or C 10 -C 25 alkynyl is independently optionally substituted with hydroxy, or OR 7; a phospholipid, or a salt thereof, in a range from 2% by weight to 20% by weight of the formulation; and 2% by weight to 20% by weight of the formulation of a salt of the formula M 1 (R 8)(R 9) wherein M 1 is a divalent cation, R 8 and R 9 are independently - OC C 10 -C 25 alkyl, - OC C 10 -C 25 alkenyl, or - OC C 10 -C 25 alkynyl, and wherein each hydrogen atom in C 10 -C 25 alkyl, C 10 -C 25 alkenyl, or C 10 -C 25 alkynyl is independently optionally substituted with OR 10, wherein each of R 3, R 7, and R 10 is independently H, C 1 -C 6 alkyl, C 1 -C 6 alkenyl, C 1 -C 6 alkynyl, C 10 -C 25 alkyl, C 10 -C 25 alkenyl, C 10 -C 25 alkynyl, -C C 1 -C 6 alkyl, -C C 1 -C 6 alkenyl, - C C 1 -C 6 alkynyl, -C C 10 -C 25 alkyl, -C C 10 -C 25 alkenyl, -C C 10 -C 25 alkynyl.
A method for triggering pyrotechnical fire-extinguishing devices having an ignition mechanism which in the event of triggering ignites a pyrotechnical composition in the fire-extinguishing device, characterised in that the ignition mechanism is triggered hydraulically or pneumatically, wherein the fire-extinguishing devices are connected to a triggering line that contains a pressurized medium and is opened by thermal loading in the event of fire, and the ignition mechanism is triggered in the case of a sudden drop in pressure in the triggering line.
Master of a bus system for process control with a slave (81, 82) and a bus, - having a transceiver circuit for transmitting transmit data and for receiving receive data for the process control by means of data packets (P, P'), - having a channel (21, 22, 23) which has a receive storage area, - in which the transceiver circuit is configured to write the receive data from a data packet (P') received via the bus to the receive storage area, - in which the channel (21, 22, 23) has at least one selection circuit, wherein an output of the selection circuit is connected to the transceiver circuit, - in which the selection circuit has a first input for selecting first data, - in which the selection circuit has a second input, wherein the second input is connected to the receive storage area, and - in which the selection circuit is configured to select the transmit data from the receive data written to the receive storage area and to output the transmit data to the transceiver circuit for a data packet to be transmitted via the bus. - having a transceiver circuit for transmitting transmit data and for receiving receive data for the process control by means of data packets (P, P'), - having a channel (21, 22, 23) which has a receive storage area, - in which the transceiver circuit is configured to write the receive data from a data packet (P') received via the bus to the receive storage area, - in which the channel (21, 22, 23) has at least one selection circuit, wherein an output of the selection circuit is connected to the transceiver circuit, - in which the selection circuit has a first input for selecting first data, - in which the selection circuit has a second input, wherein the second input is connected to the receive storage area, and - in which the selection circuit is configured to select the transmit data from the receive data written to the receive storage area and to output the transmit data to the transceiver circuit for a data packet to be transmitted via the bus.
An information processing apparatus, comprising: a control section configured to map information included in content to a plurality of slices on a basis of a region that is specified by a terminal in a virtual space, and assigns, to the information, an identifier that indicates the slice used for communication; and a communication section configured to transmit the information to the terminal through a communication network, wherein information that corresponds to the region is assigned a first identifier indicating the slice given a high communication priority; and information that does not correspond to the region is assigned a second identifier indicating the slice given a low communication priority. a control section configured to map information included in content to a plurality of slices on a basis of a region that is specified by a terminal in a virtual space, and assigns, to the information, an identifier that indicates the slice used for communication; and a communication section configured to transmit the information to the terminal through a communication network, wherein information that corresponds to the region is assigned a first identifier indicating the slice given a high communication priority; and information that does not correspond to the region is assigned a second identifier indicating the slice given a low communication priority.
A method of initiating code comprising: (i) storing an application (10, 40) in a memory, the application having first, second and third functions (18, 20, 22), the first function being a main function that calls the second and third functions (20, 22) to run the application; (ii) compiling the application to first and second heterogeneous processors to create first and second central processing unit, CPU, instruction set architecture, ISA, objects (42A, 42B) respectively, wherein each of the first and second CPU ISA objects have first and second naming structures; (iii) pruning the first and second CPU ISA objects (42A, 42B) by removing the third function from the first CPU ISA objects and removing first and second functions (18, 20) from the second CPU ISA objects, wherein, after pruning, the first and second CPU ISA objects have first and second naming structures respectively; characterised by (iv) proxy inserting first and second remote procedure calls, RPCs, (50, 54) in the first and second CPU ISA objects (42A, 42B) respectively, and pointing respectively to the third function in the second CPU ISA objects and the second function in the first CPU ISA objects; and (v) section renaming the second CPU ISA objects, including renaming the second RPC, from the second naming structure to the first naming structure so that the first and second CPU ISA objects (42A, 42B), including the first and second RPCs (50, 54) of the first and second CPU ISA objects (42A, 42B), both have the first naming structure, to create a common application library of the first and second CPU ISA objects (42A, 42B). (i) storing an application (10, 40) in a memory, the application having first, second and third functions (18, 20, 22), the first function being a main function that calls the second and third functions (20, 22) to run the application; (ii) compiling the application to first and second heterogeneous processors to create first and second central processing unit, CPU, instruction set architecture, ISA, objects (42A, 42B) respectively, wherein each of the first and second CPU ISA objects have first and second naming structures; (iii) pruning the first and second CPU ISA objects (42A, 42B) by removing the third function from the first CPU ISA objects and removing first and second functions (18, 20) from the second CPU ISA objects, wherein, after pruning, the first and second CPU ISA objects have first and second naming structures respectively; characterised by (iv) proxy inserting first and second remote procedure calls, RPCs, (50, 54) in the first and second CPU ISA objects (42A, 42B) respectively, and pointing respectively to the third function in the second CPU ISA objects and the second function in the first CPU ISA objects; and (v) section renaming the second CPU ISA objects, including renaming the second RPC, from the second naming structure to the first naming structure so that the first and second CPU ISA objects (42A, 42B), including the first and second RPCs (50, 54) of the first and second CPU ISA objects (42A, 42B), both have the first naming structure, to create a common application library of the first and second CPU ISA objects (42A, 42B).
A superconducting coil comprising: a substrate having a curved surface; a superconducting wire wound on the curved surface, the superconducting wire having a first region and a second region facing the first region; a first resin layer surrounding the superconducting wire and including a plurality of first particles and first resin surrounding the first particles; and a second resin layer positioned between the first region and the second region, the second resin layer covering the first resin layer and including a plurality of second particles and second resin surrounding the second particles and the second resin being made of material different from material of the first resin. a substrate having a curved surface; a superconducting wire wound on the curved surface, the superconducting wire having a first region and a second region facing the first region; a first resin layer surrounding the superconducting wire and including a plurality of first particles and first resin surrounding the first particles; and a second resin layer positioned between the first region and the second region, the second resin layer covering the first resin layer and including a plurality of second particles and second resin surrounding the second particles and the second resin being made of material different from material of the first resin.
Modular instrument and device rack for holding or storing electronic musical instruments and/or accessory devices, wherein two telescopically height-adjustable T-shaped foot elements, the respective vertical sections of which have at least one telescopic round tube, are connected via a connecting bridge, and at least two bearing elements for a storage plate are detachably fastened to the connecting bridge, whereby on the at least two bearing elements each a support element is arranged via a connecting element, and on each support element at least one extension element is arranged, whereby the respective at least one extension element can be detachably fixed in angle adjustment, whereby the at least one extension element on the respective support element can be arranged at a height different from the bearing elements andwhen two or more extension elements are to be arranged on top of each other, the respective extension elements to be arranged on top of each other are arranged on and with the common support element on the respective connecting element, whereby the respective support element is arranged on the respective connecting element adjustable in angle and/or that the at least one connecting element is adjustable in position and/or angle with the respective support element and whereby individual or optionally paired or grouped extension elements arranged at the same height, independent of the other, optionally arranged in a different extension plane, are individually adjustable or alignable. whereby on the at least two bearing elements each a support element is arranged via a connecting element, and on each support element at least one extension element is arranged, whereby the respective at least one extension element can be detachably fixed in angle adjustment, whereby the at least one extension element on the respective support element can be arranged at a height different from the bearing elements andwhen two or more extension elements are to be arranged on top of each other, the respective extension elements to be arranged on top of each other are arranged on and with the common support element on the respective connecting element, whereby the respective support element is arranged on the respective connecting element adjustable in angle and/or that the at least one connecting element is adjustable in position and/or angle with the respective support element and whereby individual or optionally paired or grouped extension elements arranged at the same height, independent of the other, optionally arranged in a different extension plane, are individually adjustable or alignable.
Method for controlling the driving dynamics of a vehicle, in which a steering movement is performed in accordance with a manipulated variable (u), wherein at least one association level (λ 1, λ 2) of a detected value (δ Drv) of a steering angle (δ Drv) which is set by a driver and/or of a steering angle gradient (δ̇ Drv) which is set by the driver with a predefined fuzzy set of small steering angles (δ Drv) or steering angle gradients ( Drv) which are set by δ̇he driver is determined, and a value (Δδ Zus) of the manipulated variable (u) is changed as a function of the association level (λ 1, λ 2), characterized in that the manipulated variable is calculated as a function of a deviation between a setpoint value (ψ̇ M) and a detected actual value (ψ̇) of a driving state variable (ψ̇) according to the time function u = K ⋅ e + T d ⋅ e ̇, where e represents the time derivative of the deviation e.
A method for a wireless OFDM transmitter (300, 350) configured for transmission of a first set of Orthogonal frequency-division multiplexing, OFDM, symbols using a first plurality of subcarriers having a first subcarrier frequency spacing defining a first symbol duration, the method comprising transmitting, using the first plurality of subcarriers, a first set of OFDM symbols, each of the first set of OFDM symbols including a first Cyclic Prefix, CP, and having a first symbol duration; transmitting a second set of OFDM symbols (110, 112, 114), each of the second set of OFDM symbols (110, 112, 114) including a second CP and having a second symbol duration smaller than the first symbol duration; characterized in that the second set of OFDM symbols (110, 112, 114) is transmitted using the first plurality of subcarriers during one first symbol duration; the first set of OFDM symbols comprises data associated with a first OFDM communication protocol and the second set of OFDM symbols (110, 112, 114) comprises control data associated with a second OFDM communication protocol different from the first OFDM communication protocol; the control data being indicative of one of a transmission length, transmission time, transmission type and a channel reservation time associated with at least one of the first and second set of OFDM symbols.
A method for discharging DC link capacitors of an electrical converter, wherein the converter comprises at least two converter units, each converter unit comprising a neutral point clamped half-bridge (32, 34) with a neutral point, an AC output (38, 40), a positive DC output and a negative DC output and each converter unit comprising a DC link with two DC link capacitors, which are interconnecting the positive DC output and the negative DC output with the neutral point; wherein the half-bridges (32, 34) are adapted to be switched to a positive state, in which its AC output (38, 40) is connected with its positive DC output, to a negative state, in which its AC output (38, 40) is connected with its negative DC output and to a neutral state, in which their AC output (38, 40) is connected with the neutral point; wherein the half-bridges (32, 34) of the converter units are interconnected via its neutral points via a first connection and via its AC outputs via a second connection and at least one of the first connection and the second connection comprises an electrical filter (52, 54); the method comprising: switching a first half bridge (32, 34) of a first converter unit of the at least two converter units to the positive state, in which its AC output (38, 40) is connected with its positive DC output, and simultaneously switching a second half bridge (32, 34) of a second converter unit of the at least two converter units to a negative state, in which its AC output (38, 40) is connected with its negative DC output, such that a DC link capacitor of the first converter unit and a DC link capacitor of the second converter unit are interconnected oppositely to each other via the first connection and the second connection and are discharged via the electrical filter (52, 54). switching a first half bridge (32, 34) of a first converter unit of the at least two converter units to the positive state, in which its AC output (38, 40) is connected with its positive DC output, and simultaneously switching a second half bridge (32, 34) of a second converter unit of the at least two converter units to a negative state, in which its AC output (38, 40) is connected with its negative DC output, such that a DC link capacitor of the first converter unit and a DC link capacitor of the second converter unit are interconnected oppositely to each other via the first connection and the second connection and are discharged via the electrical filter (52, 54).
A water purification device using a bacterium, comprising: a low-water-permeable biological filtration layer (3, 30, 300, 3000) configured to purify water; and a pump unit (5, 50, 500) configured to generate a water flow in the biological filtration layer (3, 30, 300, 3000), wherein the biological filtration layer (3, 30, 300, 3000) includes a useful purification bacterial group having grown aerobic bacteria and anaerobic bacteria for performing purification in the form of activated sludge, and the useful purification bacterial group is fixed in a bulk state and there exists a dissolved oxygen concentration gradient produced by the pump unit (5, 50, 500) during use in the useful purification bacterial group. a low-water-permeable biological filtration layer (3, 30, 300, 3000) configured to purify water; and a pump unit (5, 50, 500) configured to generate a water flow in the biological filtration layer (3, 30, 300, 3000), wherein the biological filtration layer (3, 30, 300, 3000) includes a useful purification bacterial group having grown aerobic bacteria and anaerobic bacteria for performing purification in the form of activated sludge, and the useful purification bacterial group is fixed in a bulk state and there exists a dissolved oxygen concentration gradient produced by the pump unit (5, 50, 500) during use in the useful purification bacterial group.