mhurhangee/ep-ind-claims huggingface dataset:
Method for locating a short circuit in an electrical grid comprising at least one line section with a non-linear distance reactance curve, in particular of an autotransformer system or a system with booster transformers, having the steps: - Detecting section-specific parameters of the line sections of the electrical grid, characterised by - Deriving at least one corresponding separate mathematical function for each line section of the electrical grid from the section-specific parameters of the respective line section, wherein for line sections with a non-linear distance reactance curve, the mathematical function represents a short-circuit reactance of the line section as a non-linear function of a location within the line section with a non-linear distance reactance curve and wherein for line sections with a linear distance reactive curve, the mathematical function represents a short-circuit reactance of the line section as a linear function of a location within the line section with a linear distance reactance curve; - Combining the corresponding, separate mathematical functions derived for each line section of the electrical grid with one another in order to form an electrical grid-specific mathematical function and - Deducing the location of the short circuit within a line section of the electrical grid from the corresponding, separate mathematical functions derived for each line section of the electrical grid and/or the electrical-grid specific mathematical function and a short-circuit reactance value determined with respect to the short circuit. - Detecting section-specific parameters of the line sections of the electrical grid, characterised by - Deriving at least one corresponding separate mathematical function for each line section of the electrical grid from the section-specific parameters of the respective line section, wherein for line sections with a non-linear distance reactance curve, the mathematical function represents a short-circuit reactance of the line section as a non-linear function of a location within the line section with a non-linear distance reactance curve and wherein for line sections with a linear distance reactive curve, the mathematical function represents a short-circuit reactance of the line section as a linear function of a location within the line section with a linear distance reactance curve; - Combining the corresponding, separate mathematical functions derived for each line section of the electrical grid with one another in order to form an electrical grid-specific mathematical function and - Deducing the location of the short circuit within a line section of the electrical grid from the corresponding, separate mathematical functions derived for each line section of the electrical grid and/or the electrical-grid specific mathematical function and a short-circuit reactance value determined with respect to the short circuit.
A method between a controlling server and a participating server, comprising: establishing a session between the participating server and the controlling server responsive to a first User Equipment, UE, belonging to the participating server joining a group session homed at the controlling server; providing, by the participating server to the controlling server, a current broadcast area of UEs in the group session that belong to the participating server and that are currently outside their home broadcast areas; and allocating broadcast bearers by the controlling server to be used by all UEs (130a, 130b) within broadcast areas of the controlling server based on the providing step and local policy. establishing a session between the participating server and the controlling server responsive to a first User Equipment, UE, belonging to the participating server joining a group session homed at the controlling server; providing, by the participating server to the controlling server, a current broadcast area of UEs in the group session that belong to the participating server and that are currently outside their home broadcast areas; and allocating broadcast bearers by the controlling server to be used by all UEs (130a, 130b) within broadcast areas of the controlling server based on the providing step and local policy.
An isolated canine influenza A virus, the influenza virus comprising a hemagglutinin polypeptide or a polynucleotide which encodes an HA polypeptide, wherein the HA polypeptide comprises the amino acid sequence shown in SEQ ID NO: 62, or a mature sequence thereof wherein the N-terminus amino acid signal sequence of a full-length sequence has been removed.
A method for managing beamformed uplink transmissions from one or more beamformer devices, wherein the method is initialized by a beamformee device, the method comprising: transmitting, by a beamformee device, to one or more beamformer devices, an indication of a precoder for uplink transmission per uplink transmission (104, 105, 106); transmitting, by the beamformee device, a trigger frame to the one or more beamformer devices, wherein the trigger frame comprises the indication of the precoder; before transmitting the trigger frame, transmitting, by the beamformee device, a channel sounding announcement, for prompting the beamformer devices initiating a channel sounding procedure, and to receive a corresponding channel sounding frame from the beamformer devices responsive to the channel sounding announcement; transmitting, by the beamformee device, a feedback frame to a respective channel sounding frame, and transmitting, by the beamformee device, two or more different feedback update frames for updating a beamformer device with new precoding information to the same beamformer device based on the same channel sounding frame. transmitting, by a beamformee device, to one or more beamformer devices, an indication of a precoder for uplink transmission per uplink transmission (104, 105, 106); transmitting, by the beamformee device, a trigger frame to the one or more beamformer devices, wherein the trigger frame comprises the indication of the precoder; before transmitting the trigger frame, transmitting, by the beamformee device, a channel sounding announcement, for prompting the beamformer devices initiating a channel sounding procedure, and to receive a corresponding channel sounding frame from the beamformer devices responsive to the channel sounding announcement; transmitting, by the beamformee device, a feedback frame to a respective channel sounding frame, and transmitting, by the beamformee device, two or more different feedback update frames for updating a beamformer device with new precoding information to the same beamformer device based on the same channel sounding frame.
A bundle of individually packaged products comprising: a. a plurality of packages (210,220,230), wherein each of the plurality of packages contains at least one product; b. a film wrapper surrounding at least a portion of the plurality of packages, wherein the film wrapper comprises an overlapped portion having a first film wrapper layer and a second film wrapper layer, and c. an adhesive deadening agent disposed on the first or second film wrapper layer, characterized in that the overlapped portion has an attached zone and an unattached zone, wherein the unattached zone is formed by applying the adhesive deadening agent to at least one of the overlapping film wrapper layers (134, 136). a. a plurality of packages (210,220,230), wherein each of the plurality of packages contains at least one product; b. a film wrapper surrounding at least a portion of the plurality of packages, wherein the film wrapper comprises an overlapped portion having a first film wrapper layer and a second film wrapper layer, and c. an adhesive deadening agent disposed on the first or second film wrapper layer, characterized in that the overlapped portion has an attached zone and an unattached zone, wherein the unattached zone is formed by applying the adhesive deadening agent to at least one of the overlapping film wrapper layers (134, 136).
Reverser device for use in watches, in particular for use in an automatic winding device of a watch with a mechanical drive, the device having a planetary gear which comprises an input mobile rotatably mounted about an axis of rotation (1.1), a planetary wheel carrier (2.1, 2.4) rotatably mounted coaxially with respect to the input mobile, at least one planetary wheel (2.2.1, 2.2.2, 2.2.3) which is mounted rotatably on said planetary wheel carrier (2.1, 2.4) about a planetary wheel axis (2.3.1, 2.3.2, 2.3.3) parallel to the axis of rotation (1.1) and is kinematically connected to the input mobile, and an output mobile mounted coaxially with respect to the input mobile and to the planetary wheel carrier, characterised by the fact that the output mobile is mounted rotatably relative to the input mobile and to the planetary wheel carrier in at least one operating position of the device and is connected to the at least one planetary wheel (2.2.1, 2.2.2, 2.2.3) and by the fact that the device comprises first reverser means for blocking in one direction of rotation the rotation of the planetary wheel carrier (2.1, 2.4) when the input mobile rotates in a first direction of rotation and second reverser means for blocking in one direction of rotation the at least one planetary wheel (2.2.1, 2.2.2, 2.2.3) and/or the output mobile when the input mobile rotates in a second direction of rotation opposite to the first direction of rotation.
An optical sensor having a plurality of transmitters (3a - c) which emit light beams and are each cyclically activated individually, and having a position-resolving receiver which has two connections via each of which an analogue output signal can be output, wherein each transmitter (3a - c) forms a triangulation sensor with the location-resolving receiver, and wherein an evaluation unit is provided in which a switching signal is generated in dependence on the output signals of the location-resolving receiver, the switching states of which switching signal indicate whether an object is in front of an object detector, whether or not an object is present in front of a background and in which the transmitters (3a - c) are arranged along a straight line running parallel to the longitudinal axis of the location-resolving receiver, characterised in that the output signals of the location-resolving receiver are fed to the evaluation unit via at least one analogue-to-digital converter, and in that, in the event that both output signals correspond within predetermined limits to a signal offset of the analogue-to-digital converter, the switching signal assumes the switching state signalling an object, and in that the signal offset is determined before each measurement.
A terminal housing, comprising: a bottom metal bezel, a main board unit and an antenna unit, wherein the bottom metal bezel comprises a segment of horizontal bezel divided by two slits; the main board unit comprises a power supply module, a switching module, a first grounding area, a second grounding area and a third grounding area; the antenna unit comprises the horizontal bezel, a first branch, a second branch, a third branch and a fourth branch; the power supply module is connected to the horizontal bezel through the first branch; the second branch and the third branch are connected to the fourth branch, the second branch is connected to the horizontal bezel, the third branch is connected to the first grounding area, and the fourth branch is connected to the second grounding area; and a first end of the switching module is connected to the contact areas of the second branch, the third branch and the fourth branch, and a second end of the switching module is connected to the third grounding area, and the switching module is configured to control the first end to be connected to or disconnected from the second end, wherein the switching module is configured to control the first end to be connected to the second end, such that the horizontal bezel, the first branch and the second branch form a planar inverted F antenna PIFA; and the first branch, the second branch, the third branch and the fourth branch form a PIFA wherein the fourth branch is a bent branch; and the switching module is configured to control the first end to be disconnected from the second end, such that the horizontal bezel, the first branch and the second branch form a planar inverted F antenna PIFA; the first branch, the second branch, the third branch and the horizontal bezel form an annular LOOP antenna; and the second branch and the fourth branch form another LOOP antenna.
A magnetic logic unit -based magnetic device comprising one or a plurality of MLU-based magnetic cells, each MLU cell comprising a first ferromagnetic layer having a first magnetization, a second ferromagnetic layer having a second magnetization, and a spacing layer between the first and second ferromagnetic layers (21, 23); an input device configured for generating an input signal adapted for changing the orientation of the first magnetization relative to the second magnetization, in the plurality of MLU cells, and vary a resistance of the MLU device; and a bit line configured for passing a sense signal adapted for measuring said resistance; and a processing unit; characterized in that the input signal comprises a read magnetic field having a magnitude that varies by increment steps; the processing unit being configured for computing an electrical variation from the sense signal and outputting an electrical variation signature; the outputted electrical variation signature corresponding to the sense of the different MLU cells switching at different magnitudes of the read magnetic field.
A color filter comprising a first color conversion region that is configured to emit a first light, wherein the first color conversion region comprises a quantum dot composite, wherein the quantum dot composite comprises a matrix and a plurality of quantum dots dispersed in the matrix, wherein the plurality of the quantum dots exhibit a multi-modal distribution comprising a first peak particle size and a second peak particle size in a size analysis, wherein the second peak particle size is greater than the first peak particle size, wherein a difference between the first peak particle size and the second peak particle size is less than 5 nanometers, wherein the first peak particle size is greater than or equal to 3.5 nanometers, wherein the quantum dot composite is configured to emit green light having a luminescent peak wavelength of greater than or equal to 500 nm and less than or equal to 550 nm, wherein the first peak particle size and the second peak particle size are determined from a particle size distribution measured using transmission electron microscopy, and wherein the luminescent peak wavelength is determined by a luminescent spectrum obtained by a spectrophotometer at an excitation wavelength of 450 nm. a first color conversion region that is configured to emit a first light, wherein the first color conversion region comprises a quantum dot composite, wherein the quantum dot composite comprises a matrix and a plurality of quantum dots dispersed in the matrix, a matrix and a plurality of quantum dots dispersed in the matrix, wherein the plurality of the quantum dots exhibit a multi-modal distribution comprising a first peak particle size and a second peak particle size in a size analysis, wherein the second peak particle size is greater than the first peak particle size, wherein a difference between the first peak particle size and the second peak particle size is less than 5 nanometers, wherein the first peak particle size is greater than or equal to 3.5 nanometers, wherein the quantum dot composite is configured to emit green light having a luminescent peak wavelength of greater than or equal to 500 nm and less than or equal to 550 nm, wherein the first peak particle size and the second peak particle size are determined from a particle size distribution measured using transmission electron microscopy, and wherein the luminescent peak wavelength is determined by a luminescent spectrum obtained by a spectrophotometer at an excitation wavelength of 450 nm.
A hot melt adhesive hose assembly, comprising: a hose core conduit for conducting hot melt adhesive material from a hot melt adhesive supply end portion of said hose core conduit, which is adapted to be fluidically connected to a supply of hot melt adhesive material, to a hot melt adhesive applicator end portion of said hose core conduit which is adapted to be fluidically connected to a hot melt adhesive material applicator for dispensing hot melt adhesive material; an electrical power supply circuit; a first heater circuit operatively connected to said hose core conduit for heating said hose core conduit, when said first heater circuit is electrically connected to said electrical power supply circuit, so as to maintain the temperature of the hot melt adhesive material, being conducted through said hose core conduit, at a predetermined temperature level; characterized by a second, redundant heater circuit operatively connected to said hose core conduit for heating said hose core conduit, when said second, redundant heater circuit is electrically connected to said electrical power supply circuit, so as to maintain the temperature of the hot melt adhesive material, being conducted through said hose core conduit, at the predetermined temperature level; and a dual-position switch mechanism electrically interconnecting said first and second, redundant heater circuits (18, 20) in an alternative manner such that if said first heater circuit experiences a failure, said second, redundant heater circuit can be electrically connected to said electrical power supply circuit so as to maintain the temperature of the hot melt adhesive material, being conducted through said hose core conduit, at the predetermined temperature level without interrupting the dispensing of the hot melt adhesive material. a hose core conduit for conducting hot melt adhesive material from a hot melt adhesive supply end portion of said hose core conduit, which is adapted to be fluidically connected to a supply of hot melt adhesive material, to a hot melt adhesive applicator end portion of said hose core conduit which is adapted to be fluidically connected to a hot melt adhesive material applicator for dispensing hot melt adhesive material; an electrical power supply circuit; a first heater circuit operatively connected to said hose core conduit for heating said hose core conduit, when said first heater circuit is electrically connected to said electrical power supply circuit, so as to maintain the temperature of the hot melt adhesive material, being conducted through said hose core conduit, at a predetermined temperature level;
An automated digital authentication process to authenticate a client device with a security server via a network, the automated process comprising: generating, by the client device, a digital secret; transmitting, by the client device, the digital secret from the client device to a trusted home device that is in secure communication with the security server and that has previously established a trusted relationship with the security server; transmitting, by the trusted home device, the digital secret created by the client device to the security server via the network for storage of the digital secret by the security server; subsequently providing the digital secret from the client device to the security server in a request to authenticate the computer system; and in response to the security server successfully comparing the digital secret subsequently provided from the client device to the digital secret previously received from the trusted home device, receiving at the client device an authentication message that provides access to a network service. generating, by the client device, a digital secret; transmitting, by the client device, the digital secret from the client device to a trusted home device that is in secure communication with the security server and that has previously established a trusted relationship with the security server; transmitting, by the trusted home device, the digital secret created by the client device to the security server via the network for storage of the digital secret by the security server; subsequently providing the digital secret from the client device to the security server in a request to authenticate the computer system; and in response to the security server successfully comparing the digital secret subsequently provided from the client device to the digital secret previously received from the trusted home device, receiving at the client device an authentication message that provides access to a network service.
A frequency-offset estimator to generate a frequency offset estimate comprising: a first autocorrelation element to perform a first autocorrelation on a serial symbol stream of training symbols delayed by a first duration T to produce a first correlation output; a second autocorrelation element to perform a second autocorrelation on the serial symbol stream delayed by a second duration 2T to produce a second correlation output; a first moving average element to perform a first moving average over 1.5T on the first correlation output for use in generating a first phase shift estimate; and a second moving average element to perform a second moving average over 0.5T on the second correlation output for use in generating a second phase shift estimate, a summator to combine the first and second phase shift estimates to generate a frequency offset estimate, wherein the summator is adapted to multiply the first phase shift estimate by w 1 /2πT to generate a first weighted frequency estimate, and to multiply the second phase shift estimate by w 2 /4πT, where w 1 =0.4 and w 2 =0.5 to generate a second weighted frequency estimate, and to combine the first and second weighted frequency estimates to generate the frequency offset estimate, wherein w 1 and w 2 are weights and T is the duration of one training symbol. a first autocorrelation element to perform a first autocorrelation on a serial symbol stream of training symbols delayed by a first duration T to produce a first correlation output; a second autocorrelation element to perform a second autocorrelation on the serial symbol stream delayed by a second duration 2T to produce a second correlation output; a first moving average element to perform a first moving average over 1.5T on the first correlation output for use in generating a first phase shift estimate; and a second moving average element to perform a second moving average over 0.5T on the second correlation output for use in generating a second phase shift estimate, a summator to combine the first and second phase shift estimates to generate a frequency offset estimate, wherein the summator is adapted to multiply the first phase shift estimate by w 1 /2πT to generate a first weighted frequency estimate, and to multiply the second phase shift estimate by w 2 /4πT, where w 1 =0.4 and w 2 =0.5 to generate a second weighted frequency estimate, and to combine the first and second weighted frequency estimates to generate the frequency offset estimate, wherein w 1 and w 2 are weights and T is the duration of one training symbol.