mhurhangee/ep-ind-claims huggingface dataset:
A system for charging one or more target devices with a receptacle charger, comprising: a receptacle charger for receiving one or more target devices, the receptacle having a primary coil therein connectable to a source of electrical power; at least one target device positionable in the receptacle, the target device having a secondary coil, wherein in operation energy is inductively transferred between the primary coil and secondary coil to charge a battery in the target device; a plurality of steering coils arranged around the primary coil; and a control system for altering the magnetic field phase condition pattern of the steering coils repeatedly until a coil phase pattern is determined which produces a maximum power transfer between the primary coil and the secondary coil (42, 44, 46, 48) and for controlling the magnetic field phase of the determined steering coil relative to the magnetic field of the primary coil so as to focus the magnetic field lines of the primary coil for aligning the magnetic field of the primary coil with the position of the secondary coil in the target device, thereby optimizing power transfer between the primary coil in the receptacle charger and the secondary coil of the target device. a receptacle charger for receiving one or more target devices, the receptacle having a primary coil therein connectable to a source of electrical power; at least one target device positionable in the receptacle, the target device having a secondary coil, wherein in operation energy is inductively transferred between the primary coil and secondary coil to charge a battery in the target device; a plurality of steering coils arranged around the primary coil; and a control system for altering the magnetic field phase condition pattern of the steering coils repeatedly until a coil phase pattern is determined which produces a maximum power transfer between the primary coil and the secondary coil (42, 44, 46, 48) and for controlling the magnetic field phase of the determined steering coil relative to the magnetic field of the primary coil so as to focus the magnetic field lines of the primary coil for aligning the magnetic field of the primary coil with the position of the secondary coil in the target device, thereby optimizing power transfer between the primary coil in the receptacle charger and the secondary coil of the target device.
A surface-treated copper foil comprising: an electrolytic copper foil; a roughened layer covering at least one surface side of the electrolytic copper foil; and a rust preventive layer further covering the roughened layer, characterised in that the rust preventive layer is at least one surface of the surface-treated copper foil; the rust preventive layer comprises at least a nickel layer; and a thickness of the nickel layer is 0.8 to 4.4 g/m 2 in terms of mass per unit area of nickel; and a noncontact roughness Spd of the rust preventive layer, when measured according to ISO 25178, is 1.4 to 2.6 peaks/μm 2 and a surface roughness RzJIS of the rust preventive layer, when measured according to JIS B0601:1994, is 1.0 to 2.5 μm. an electrolytic copper foil; a roughened layer covering at least one surface side of the electrolytic copper foil; and a rust preventive layer further covering the roughened layer, characterised in that the rust preventive layer is at least one surface of the surface-treated copper foil; the rust preventive layer comprises at least a nickel layer; and a thickness of the nickel layer is 0.8 to 4.4 g/m 2 in terms of mass per unit area of nickel; and a noncontact roughness Spd of the rust preventive layer, when measured according to ISO 25178, is 1.4 to 2.6 peaks/μm 2 and a surface roughness RzJIS of the rust preventive layer, when measured according to JIS B0601:1994, is 1.0 to 2.5 μm.
A computer-implemented heartbeat detection method comprising: a first step of calculating a heartbeat time from a sampling data string of an electrocardiographic waveform of a living body; a second step of calculating, for each heartbeat time, a heart rate from the heartbeat time calculated in the first step; and a third step of calculating, based on the heart rate calculated in the second step, a length of a skip period every time the heartbeat time is calculated, wherein the first step includes a step in which if a time difference between a latest time calculated from the sampling data string and an immediately preceding heartbeat time is not longer than the length of the skip period calculated from the immediately preceding heartbeat time, the latest time calculated from the sampling data string is not adopted as a heartbeat time, characterized in that the third step includes a step in which a variable Y is calculated such that Y - 2(X + ΔX) if X + ΔX ≤ X max /2, Y = (1 + r) (X + ΔX) if X max /2 < X + ΔX ≤ X max /(1 + r), and Y = Y max if X + ΔX > X max /(1 + r), and the length of the skip period is calculated based on a reciprocal of the variable Y, wherein X represents the heart rate, X max represents a predetermined possible upper limit value of the heart rate X, ΔX is a constant which represents a variation component of the heart rate X caused by a variation in appearance interval of an R wave, and r is a constant between not less than 0 and less than 1. a first step of calculating a heartbeat time from a sampling data string of an electrocardiographic waveform of a living body; a second step of calculating, for each heartbeat time, a heart rate from the heartbeat time calculated in the first step; and a third step of calculating, based on the heart rate calculated in the second step, a length of a skip period every time the heartbeat time is calculated, wherein the first step includes a step in which if a time difference between a latest time calculated from the sampling data string and an immediately preceding heartbeat time is not longer than the length of the skip period calculated from the immediately preceding heartbeat time, the latest time calculated from the sampling data string is not adopted as a heartbeat time, characterized in that the third step includes a step in which a variable Y is calculated such that Y - 2(X + ΔX) if X + ΔX ≤ X max /2, Y = (1 + r) (X + ΔX) if X max /2 < X + ΔX ≤ X max /(1 + r), and Y = Y max if X + ΔX > X max /(1 + r), and the length of the skip period is calculated based on a reciprocal of the variable Y, wherein X represents the heart rate, X max represents a predetermined possible upper limit value of the heart rate X, ΔX is a constant which represents a variation component of the heart rate X caused by a variation in appearance interval of an R wave, and r is a constant between not less than 0 and less than 1.
A power data collecting device (101 101 A 101 B 101 C) suitable for being connected to a network and configured for collecting, from an appliance (102 103 104 105) connected to the network, measured data including one or a plurality of pieces of at least one kind of data of current power consumption and accumulated power consumption of the appliance (102 103 104 105), said power data collecting device (101 101A 101 B 101 C) comprising: a polling interval determination unit (203 203A) configured to determine a polling interval as a time interval at which the measured data is collected from the appliance (102 103 104 105); a band measurement unit (709 1009) configured to measure a communicable band (711 1011) usable for communication between said power data collecting device (101 101A 101B 101C) and the appliance (102 103 104 105); a sampling interval determination unit (710 1010) configured to determine a sampling interval (223 712) as an interval between measurement times of a plurality of measured values included in the measured data so that a data volume of the measured data defined by the sampling interval (223 712) and the polling interval becomes equal to or smaller than a data volume that can be communicated within the polling interval by using the communicable band (711 1011); and a data transmission request unit configured to transmit, to the appliance (102 103 104 105) at the polling interval, a request message requesting the appliance (102 103 104 105) for transmitting the measured data including the measured value obtained through the measurement at the sampling interval (223 712). a polling interval determination unit (203 203A) configured to determine a polling interval as a time interval at which the measured data is collected from the appliance (102 103 104 105); a band measurement unit (709 1009) configured to measure a communicable band (711 1011) usable for communication between said power data collecting device (101 101A 101B 101C) and the appliance (102 103 104 105); a sampling interval determination unit (710 1010) configured to determine a sampling interval (223 712) as an interval between measurement times of a plurality of measured values included in the measured data so that a data volume of the measured data defined by the sampling interval (223 712) and the polling interval becomes equal to or smaller than a data volume that can be communicated within the polling interval by using the communicable band (711 1011); and a data transmission request unit configured to transmit, to the appliance (102 103 104 105) at the polling interval, a request message requesting the appliance (102 103 104 105) for transmitting the measured data including the measured value obtained through the measurement at the sampling interval (223 712).
A device for buffering a reference signal comprising: a regulator circuit adapted to generate at least two replicas of the reference signal as regulated output signals (12',12"), and a receiving circuit adapted to receive the regulated output signals (12',12") in a switchable manner, wherein the regulated output signals (12',12") are defined with different performance specifications at least based on speed and accuracy, whereby one of the at least two replicas of the reference signal is defined with high speed but low accuracy specification and the other is defined with low speed but high accuracy specification, and wherein the receiving circuit comprises a switched-capacitor residue amplifier, a detector means, and a switching means, whereby the detector means is adapted to produce a slew-done signal corresponding to the switched-capacitor residue amplifier indicating that the receiving circuit stops slewing and commences settling behavior, thereby defining an optimal switching instant, and is further adapted to provide control signals to the switching means in order to switch from one regulated output signal with high speed but low accuracy specification to the other regulated output signal with low speed but high accuracy specification at the optimal switching instant. a regulator circuit adapted to generate at least two replicas of the reference signal as regulated output signals (12',12"), and a receiving circuit adapted to receive the regulated output signals (12',12") in a switchable manner, wherein the regulated output signals (12',12") are defined with different performance specifications at least based on speed and accuracy, whereby one of the at least two replicas of the reference signal is defined with high speed but low accuracy specification and the other is defined with low speed but high accuracy specification, and
A processor of a first user equipment, UE, configured to perform operations comprising: establishing a device-to-device, D2D, connection with a second UE; generating internet protocol, IP, packets for uplink, UL, transmission to a network and identifying a quality of service, QoS, flow for the packets; encapsulating each packet with a header comprising a QoS flow identifier, QFI; receiving a network configuration to restrict a traffic flow based on QFI, the configuration including parameters for determining whether to distribute the encapsulated packets to lower layers of the first UE for transmission to a network via the first radio link or to the second UE for transmission to the network via the second radio link based on the QFI; transmitting, in accordance with the network configuration, a first portion of the encapsulated packets to the network via a first radio link; and transmitting, in accordance with the network configuration, a second portion of the encapsulated packets to the second UE via the D2D connection for transmission to the network via a second radio link of the second UE. establishing a device-to-device, D2D, connection with a second UE; generating internet protocol, IP, packets for uplink, UL, transmission to a network and identifying a quality of service, QoS, flow for the packets; encapsulating each packet with a header comprising a QoS flow identifier, QFI; receiving a network configuration to restrict a traffic flow based on QFI, the configuration including parameters for determining whether to distribute the encapsulated packets to lower layers of the first UE for transmission to a network via the first radio link or to the second UE for transmission to the network via the second radio link based on the QFI; transmitting, in accordance with the network configuration, a first portion of the encapsulated packets to the network via a first radio link; and transmitting, in accordance with the network configuration, a second portion of the encapsulated packets to the second UE via the D2D connection for transmission to the network via a second radio link of the second UE.
An implantable stimulator device, comprising: a plurality of electrode nodes; first stimulation circuitry programmed to provide first current pulses of a first frequency, and to select a first plurality of the plurality of electrode nodes to receive the first current pulses; and second stimulation circuitry programmed to provide second current pulses of a second frequency, and to select a second plurality of the plurality of electrode nodes to receive the second current pulses, wherein an electrode node is common to both the selected first plurality of electrode nodes and the selected second plurality of electrode nodes, and wherein the first and second current pulses are added at the common electrode node when they overlap. a plurality of electrode nodes; first stimulation circuitry programmed to provide first current pulses of a first frequency, and to select a first plurality of the plurality of electrode nodes to receive the first current pulses; and second stimulation circuitry programmed to provide second current pulses of a second frequency, and to select a second plurality of the plurality of electrode nodes to receive the second current pulses, wherein an electrode node is common to both the selected first plurality of electrode nodes and the selected second plurality of electrode nodes, and wherein the first and second current pulses are added at the common electrode node when they overlap.
A method for emptying an exhaust after-treatment device for treating exhaust gases of an internal combustion engine, wherein the exhaust after-treatment device has at least a first injection means and a second injection means in each case for injecting an ammonia-containing solution for reducing nitrogen oxides contained in the exhaust, wherein the second injection means is arranged downstream from the first injection means in the direction of flow of the exhaust gases, wherein a supply line of the exhaust after-treatment device connects the first injection means and the second injection means together in series for supplying the ammonia-containing solution to the first injection means and the second injection means, wherein in a first step a partial vacuum is generated in the supply line, and wherein in a second step one of the two injection means (4, 6) is opened.
An electropneumatic parking brake module, having a supply port for connecting a compressed air supply, at least one spring-loaded port for connecting at least one spring-loaded brake cylinder, an electropneumatic inlet-outlet-valve unit, which can occupy at least a first switching position and a second switching position, and a pneumatically controlled bypass unit to maintain an aeration or ventilation state of spring-loaded brake cylinders connected to the spring-loaded port in a currentless state of the electropneumatic inlet-outlet valve unit, wherein in the first switching position of the inlet-outlet valve unit the supply port is connected to the spring-loaded port for outputting a spring-loaded brake pressure (pF) and in the second switching position of the inlet-outlet valve unit the spring-loaded port is connected to a vent of the inlet-outlet valve unit, wherein in a third switching position of the inlet-outlet valve unit the spring-loaded port is connected to the bypass unit and the bypass unit is set up, depending on the spring-loaded brake pressure (pF) on the spring-loaded port, to connect the spring-loaded port to the supply port for aeration or to connect it to a vent for venting, characterized in that the aeration and ventilation of the spring-loaded port occurs in a throttled manner via the bypass unit. a supply port for connecting a compressed air supply, at least one spring-loaded port for connecting at least one spring-loaded brake cylinder, an electropneumatic inlet-outlet-valve unit, which can occupy at least a first switching position and a second switching position, and a pneumatically controlled bypass unit to maintain an aeration or ventilation state of spring-loaded brake cylinders connected to the spring-loaded port in a currentless state of the electropneumatic inlet-outlet valve unit, wherein in the first switching position of the inlet-outlet valve unit the supply port is connected to the spring-loaded port for outputting a spring-loaded brake pressure (pF) and in the second switching position of the inlet-outlet valve unit the spring-loaded port is connected to a vent of the inlet-outlet valve unit, wherein in a third switching position of the inlet-outlet valve unit the spring-loaded port is connected to the bypass unit and the bypass unit is set up, depending on the spring-loaded brake pressure (pF) on the spring-loaded port, to connect the spring-loaded port to the supply port for aeration or to connect it to a vent for venting, characterized in that the aeration and ventilation of the spring-loaded port occurs in a throttled manner via the bypass unit.
A signal emitting stylus for operation with a digitizer system (45, 50), the stylus comprising: a resonant circuit (352, 355) including a first capacitor and an inductor, the circuit (352, 355) configured to alternate between receiving a wirelessly transmitted first signal in a receive mode and generating an electrical field in a transmit mode; a voltage source configured to power generation of the electrical field generated in the transmit mode; and a controller configured to operate the resonant circuit (352, 355) in a receive mode and to switch operation of the resonant circuit (352, 355) to the transmit mode based on receiving the first signal, wherein during the receive mode, the controller is configured to disconnect the resonant circuit (352, 355) from the voltage source (505, 508), to sample output from the resonant circuit (352, 355) and to decode the sampled output, and wherein during the transmit mode, the controller is configured to connect the resonant circuit (352, 355) to the voltage source to generate the electrical field. a resonant circuit (352, 355) including a first capacitor and an inductor, the circuit (352, 355) configured to alternate between receiving a wirelessly transmitted first signal in a receive mode and generating an electrical field in a transmit mode; a voltage source configured to power generation of the electrical field generated in the transmit mode; and a controller configured to operate the resonant circuit (352, 355) in a receive mode and to switch operation of the resonant circuit (352, 355) to the transmit mode based on receiving the first signal, wherein during the receive mode, the controller is configured to disconnect the resonant circuit (352, 355) from the voltage source (505, 508), to sample output from the resonant circuit (352, 355) and to decode the sampled output, and wherein during the transmit mode, the controller is configured to connect the resonant circuit (352, 355) to the voltage source to generate the electrical field.
A gas turbine engine comprising: a fan section and a nacelle, the nacelle defining a bypass duct and the fan section operable to drive air along a bypass flow path in the bypass duct; a turbine section comprising a transition duct located between a high pressure turbine and a low pressure turbine, wherein the low pressure turbine is a drive turbine for the fan section; and a low speed spool comprising an inner shaft interconnecting a fan of the fan section, a low pressure compressor and the low pressure turbine, characterised in that: the engine comprises a fan bypass ratio greater than 12 and less than 20; the inner shaft is connected to the fan through a speed reduction device including a gear ratio of at least 2.6; the low pressure turbine is a three stage low pressure turbine comprising a first row of low pressure turbine vanes and a second row of low pressure turbine vanes separating the three stages of low pressure turbine blades; and the transition duct includes fewer support struts than the number of vanes in the first vane row of the low pressure turbine. a fan section and a nacelle, the nacelle defining a bypass duct and the fan section operable to drive air along a bypass flow path in the bypass duct; a turbine section comprising a transition duct located between a high pressure turbine and a low pressure turbine, wherein the low pressure turbine is a drive turbine for the fan section; and a low speed spool comprising an inner shaft interconnecting a fan of the fan section, a low pressure compressor and the low pressure turbine, the engine comprises a fan bypass ratio greater than 12 and less than 20; the inner shaft is connected to the fan through a speed reduction device including a gear ratio of at least 2.6; the low pressure turbine is a three stage low pressure turbine comprising a first row of low pressure turbine vanes and a second row of low pressure turbine vanes separating the three stages of low pressure turbine blades; and the transition duct includes fewer support struts than the number of vanes in the first vane row of the low pressure turbine.
Offshore substation of a wind turbine, - comprising a metal structure, - wherein the metal structure has rained-on regions that are exposed to natural rainfall, - wherein the metal structure has sheltered regions that are not exposed to natural rainfall, or only to a limited extent, - comprising at least one cleaning device, - wherein the cleaning device has at least one accumulation device, at least one line system and outlet openings, - wherein the accumulation device is designed to collect rainwater, - wherein the line system is connected to the accumulation device and is designed to distribute the rainwater, and - wherein the outlet openings are designed to flush the sheltered regions with rainwater. - comprising a metal structure, - wherein the metal structure has rained-on regions that are exposed to natural rainfall, - wherein the metal structure has sheltered regions that are not exposed to natural rainfall, or only to a limited extent, - comprising at least one cleaning device, - wherein the cleaning device has at least one accumulation device, at least one line system and outlet openings, - wherein the accumulation device is designed to collect rainwater, - wherein the line system is connected to the accumulation device and is designed to distribute the rainwater, and - wherein the outlet openings are designed to flush the sheltered regions with rainwater.