mhurhangee/ep-ind-claims huggingface dataset:
A motor control unit comprising: motor driving circuits (120A, 120B) of respective winding systems that supply a motor having multi-system motor windings with driving currents; and a control calculating section that calculates a current command value of each winding system for driving said motor, when a failure occurs in said motor winding or said motor driving circuit (120A, 120B) in any of said systems, performs a first change of changing a characteristic of said current command value of a normal system to a first characteristic that forms a characteristic equivalent to a total of said current command values at normal time, characterized in that after performing said first change, performs a second change of changing said characteristic of said current command value to a second characteristic whose output is more suppressed than said first characteristic when there is no steering torque, when a steering wheel is near a center, or when a vehicle runs straight, and controls said motor driving circuit (120A, 120B). motor driving circuits (120A, 120B) of respective winding systems that supply a motor having multi-system motor windings with driving currents; and a control calculating section that calculates a current command value of each winding system for driving said motor, when a failure occurs in said motor winding or said motor driving circuit (120A, 120B) in any of said systems, performs a first change of changing a characteristic of said current command value of a normal system to a first characteristic that forms a characteristic equivalent to a total of said current command values at normal time, characterized in that after performing said first change, performs a second change of changing said characteristic of said current command value to a second characteristic whose output is more suppressed than said first characteristic when there is no steering torque, when a steering wheel is near a center, or when a vehicle runs straight, and controls said motor driving circuit (120A, 120B).
A method of generating a three-dimensional thermogram of an object comprising the following steps: - capturing geometrical data of the object and preparing a three-dimensional model of the object using the captured geometrical data, - capturing measured temperature values for object points of at least one partial surface of the object, with data on recording conditions additionally being captured in addition to the measured temperature value for each object point, - associating the measured temperature values for the object points of the partial surface with associated object points of a partial surface of the three-dimensional model of the object so that a three-dimensional thermogram is generated for the partial surface of the object, - repeat capturing of measured temperature values and of data on the recording conditions for object points of a or the partial surface of the object, and - comparing the data on the recording conditions for object points for which a measured temperature value and data on the recording conditions have already been captured, with the newly captured measured temperature value automatically being associated with the object point in the generated three-dimensional thermogram if the newly captured measured temperature value has been captured under better recording conditions, characterized in that the generated three-dimensional thermogram and the data on the recording conditions are projected onto the associated partial surface of the object, with the data on the recording conditions at least comprising data on an angle of radiation (α) at which the measured temperature values are determined. - capturing geometrical data of the object and preparing a three-dimensional model of the object using the captured geometrical data, - capturing measured temperature values for object points of at least one partial surface of the object, with data on recording conditions additionally being captured in addition to the measured temperature value for each object point, - associating the measured temperature values for the object points of the partial surface with associated object points of a partial surface of the three-dimensional model of the object so that a three-dimensional thermogram is generated for the partial surface of the object, - repeat capturing of measured temperature values and of data on the recording conditions for object points of a or the partial surface of the object, and - comparing the data on the recording conditions for object points for which a measured temperature value and data on the recording conditions have already been captured, with the newly captured measured temperature value automatically being associated with the object point in the generated three-dimensional thermogram if the newly captured measured temperature value has been captured under better recording conditions,
A method of receiving, by a user equipment, UE, (1000, 2000) emergency information in a wireless communication system supporting Machine Type Communication, MTC, the method comprising: receiving, from a base station, BS, (1000, 2000) a System Information Block, SIB, including scheduling information for the emergency information; receiving, from the BS (1000, 2000), configuration information related to a common search space; receiving, from the BS (1000, 2000), downlink control information, DCI, that is scrambled by a system information-radio network temporary identifier, SI-RNTI, for an emergency information indication, in the common search space; and receiving, from the BS (1000, 2000), the emergency information based on the DCI and the scheduling information, wherein the DCI has DCI format 6-1A, and wherein a size of the DCI is the same as DCI having the DCI format 6-1A, that is scrambled by a cell-RNTI, C-RNTI, and that is mapped to a common search space. receiving, from a base station, BS, (1000, 2000) a System Information Block, SIB, including scheduling information for the emergency information; receiving, from the BS (1000, 2000), configuration information related to a common search space; receiving, from the BS (1000, 2000), downlink control information, DCI, that is scrambled by a system information-radio network temporary identifier, SI-RNTI, for an emergency information indication, in the common search space; and receiving, from the BS (1000, 2000), the emergency information based on the DCI and the scheduling information, wherein the DCI has DCI format 6-1A, and wherein a size of the DCI is the same as DCI having the DCI format 6-1A, that is scrambled by a cell-RNTI, C-RNTI, and that is mapped to a common search space.
A seal comprising: a metal part forming a substrate having a honeycomb structure, the honeycomb structure having a first portion (104, 106) and a second portion, the first portion (104, 106) being less abradable than the second portion and wherein the first portion (104, 106) comprises a reinforcement coating thereon or the second portion includes a diffusion coating thereon. a metal part forming a substrate having a honeycomb structure, the honeycomb structure having a first portion (104, 106) and a second portion, the first portion (104, 106) being less abradable than the second portion and wherein the first portion (104, 106) comprises a reinforcement coating thereon or the second portion includes a diffusion coating thereon.
Ultrasonic oscillating system having a converter which can convert an electrical alternating voltage into a mechanical oscillation, and a sonotrode of mass m s which is intended to be set into oscillation with the mechanical oscillation, the converter being coupled to the sonotrode in such a way that the oscillation generated by the converter generates an oscillation excitation of the sonotrode, wherein the ultrasonic oscillating system is intended to be operated with an oscillation of wavelength λ, wherein the ultrasonic oscillating system has a mechanical resonator of mass m r which can be brought into resonant oscillation with an oscillation of wavelength λ, characterized in that the mass m r of the resonator being larger than the mass m s of the sonotrode.
A one-hand-handled rivet gun comprising a handle seat with a through hole (1.1), a folding mechanism hinged to the handle seat and a pulling rod connected to the folding mechanism, the mentioned pulling rod being coated by a housing, and equipped with a riveting gun tip assembly on the front end, a fixed sleeve being mounted on the front end of the housing of the pulling rod, and a guiding nipple being mounted on the front end of the fixed sleeve, the mentioned folding mechanism comprising two folding rod assemblies symmetrically mounted behind both sides of the rear end of the pulling rod, and the two folding rod assemblies including a front curved link and rear link hinged to each other, the front curved link being fixed to the pulling rod by the front end, characterized in that the rear link is curved, a handle cover is connected to the rear end of the rear curved link and the front curved link is hinged to the front end of the handle seat.
Method for stimulation and measurement of groups of ports of a multiport measurement object by means of a vector network analyser, wherein the groups of ports are stimulated with equal frequency and coherent forward travelling waves (a 1, a 2) which have defined amplitude relationships and phase differences within each group of ports, wherein the network analyser has measurement ports (405, 406) which are unbalanced to ground, and wherein the waves are generated by a signal generator (401, 402) of the vector network analyser for each measurement port (405, 406), wherein a system error correction of the unbalanced forward and backward travelling waves (a 1, b 1, a 2, b 2) is carried out with respect to the ports of the measurement object in order to obtain corrected waves, these corrected waves being used to calculate the amplitude and phase changes required in order to satisfy the desired amplitude and phase conditions in the signal generators (401, 402), wherein the measurement ports (405, 406) are coupled with one another at least within a group of ports of the measurement object, wherein firstly for each forward travelling unbalanced wave (a 1; a 2) associated with a group of ports the components whose magnitude and phase is in each case dependent on only one of the signal generators (401; 402) associated with the group of ports are determined as sub-vectors (q 01; q 02), wherein these sub-vectors (q 01; q 02) are used to calculate the amplitude and phase changes required overall in all the signal generators associated with the group of ports as a total vector (q1, q2) in order to satisfy the desired amplitude and phase conditions, wherein a group of ports consists of two unbalanced ports i and j of the measurement object and to determine the sub-vectors (q 01; q 02) the phase φ i of the signal generator of port i is rotated in relation to that of port j so that for a first phase setting the magnitude |a i | of the forward travelling wave a i of the port i is maximised and for a second phase setting the magnitude |a j | of the forward travelling wave a j of the port j is maximised, and wherein in both phase settings φ i is rotated by 180° so that the respective magnitudes |a i | and |a j | are minimised and thus the maxima and minima of |a i | and |a j | are used to determine the magnitudes of the sub-vectors (q 01; q 02) and the phase difference between the two settings is used to determine the phases of these.
A waste heat recovery system, comprising a heater configured to circulate a working fluid in heat exchange relationship with a heating fluid from a heat source to heat the working fluid, the working fluid being processed in a closed circuit and undergoing thermodynamic transformations to convert heat into useful work; the system comprising an independent auxiliary heat source configured to provide an additional heating fluid in heat exchange relationship with the working fluid, to heat the working fluid; characterized by a first damper to regulate the heating fluid from the heat source to the heater; and a second damper to regulate the additional heating fluid from the independent auxiliary heat source to the heater. the system comprising an independent auxiliary heat source configured to provide an additional heating fluid in heat exchange relationship with the working fluid, to heat the working fluid; characterized by a first damper to regulate the heating fluid from the heat source to the heater; and a second damper to regulate the additional heating fluid from the independent auxiliary heat source to the heater.
A method comprising: at an enterprise identity provider server comprising at least one processor, memory, and a communication interface: receiving, via the communication interface, from an enterprise server integrated with an enterprise identity service provided by the enterprise identity provider server, a first authentication token previously issued to the enterprise server by the enterprise identity provider server; in response to receiving the first authentication token, retrieving, from a token store maintained by the enterprise identity provider server, a second authentication token associated with a federated identity service provided by a federated identity provider server; refreshing the second authentication token with the federated identity service provided by the federated identity provider server to obtain a refreshed authentication token; and sending, via the communication interface, to the enterprise server, the refreshed authentication token, wherein sending the refreshed authentication token to the enterprise server enables user devices (730, 740) managed by the enterprise server to access one or more resources provided by a third party system using the federated identity service. receiving, via the communication interface, from an enterprise server integrated with an enterprise identity service provided by the enterprise identity provider server, a first authentication token previously issued to the enterprise server by the enterprise identity provider server; in response to receiving the first authentication token, retrieving, from a token store maintained by the enterprise identity provider server, a second authentication token associated with a federated identity service provided by a federated identity provider server; refreshing the second authentication token with the federated identity service provided by the federated identity provider server to obtain a refreshed authentication token; and sending, via the communication interface, to the enterprise server, the refreshed authentication token, wherein sending the refreshed authentication token to the enterprise server enables user devices (730, 740) managed by the enterprise server to access one or more resources provided by a third party system using the federated identity service.
A filter member comprising: a filter for discriminating cells to be analyzed in a sample from other components; a first filter holding member which comprises a first through hole; and a second filter holding member which comprises a second through hole and is fitted into the first filter holding member, wherein when the first and second filter holding members (F100, F200) are integrated by fitting the second filter holding member into the first filter holding member, the filter is sandwiched between the first filter holding member and the second filter holding member, and the first through hole is opposed to the second through hole through the filter, a first elastic body being in contact with the filter, and a second elastic body being in contact with the filter, characterized in that the first filter holding member has a plate-like shape, the first elastic body is formed on a surface of the first filter holding member, and the second elastic body is formed on a surface of the second filter holding member, wherein the filter member has an asymmetrical shape in a width or thickness direction to enable to detect whether the filter member is appropriately attached to an apparatus. a filter for discriminating cells to be analyzed in a sample from other components; a first filter holding member which comprises a first through hole; and a second filter holding member which comprises a second through hole and is fitted into the first filter holding member, wherein when the first and second filter holding members (F100, F200) are integrated by fitting the second filter holding member into the first filter holding member, the filter is sandwiched between the first filter holding member and the second filter holding member, and the first through hole is opposed to the second through hole through the filter, a first elastic body being in contact with the filter, and a second elastic body being in contact with the filter, characterized in that the first filter holding member has a plate-like shape, the first elastic body is formed on a surface of the first filter holding member, and the second elastic body is formed on a surface of the second filter holding member, wherein the filter member has an asymmetrical shape in a width or thickness direction to enable to detect whether the filter member is appropriately attached to an apparatus.
Method for filling an enclosure with a fluid until a target pressure is reached and then emptying said enclosure when the time comes, characterized in that the filling is carried out from a first plurality of tanks (R3, R4, R5, R6, R7, R8) of different pressures, successively from the lowest-pressure tank up to the highest-pressure tank, and in that the emptying is carried out by transferring the contents of the of the enclosure to a second plurality of tanks (R2, R3, R4, R5, R6, R7), successively to the highest-pressure tank up to the lowest-pressure tank.
A system for precision liquid delivery, the system comprising: a gas reservoir having a known volume; a tightly load-coupled pneumatic, TLCP, driver configured to receive input power causing the TLCP driver to move gas into the gas reservoir to produce a gas drive pressure; a valve configured to couple the gas reservoir with a fluid reservoir having an unknown volume of a liquid, the valve further configured to selectively pneumatically isolate and pneumatically couple pressures in the gas reservoir and the fluid reservoir; a gas-fluid interface configured to couple pressure in the fluid reservoir to pressure in a fluid path, the gas-fluid interface configured so that the fluid drive pressure driving liquid in the fluid path is substantially the same as the fluid reservoir pressure; and a pressure sensor (116A, 116B) configured to detect pressure in the gas reservoir and/or the fluid reservoir. a gas reservoir having a known volume; a tightly load-coupled pneumatic, TLCP, driver configured to receive input power causing the TLCP driver to move gas into the gas reservoir to produce a gas drive pressure; a valve configured to couple the gas reservoir with a fluid reservoir having an unknown volume of a liquid, the valve further configured to selectively pneumatically isolate and pneumatically couple pressures in the gas reservoir and the fluid reservoir; a gas-fluid interface configured to couple pressure in the fluid reservoir to pressure in a fluid path, the gas-fluid interface configured so that the fluid drive pressure driving liquid in the fluid path is substantially the same as the fluid reservoir pressure; and a pressure sensor (116A, 116B) configured to detect pressure in the gas reservoir and/or the fluid reservoir.
An electronic system comprising: a charging station including: an energy storage, wherein the energy storage of the charging device is a first battery; and first and second supply terminals; an apparatus including: a battery charger; a second battery; first and second battery pads to be in direct contact with first and second supply terminals of the charging station, the first battery pad directly in contact with an anode of the second battery, the second battery pad directly in contact with a cathode of the second battery, such that the second battery is to directly receive DC power via the first battery pad and the second battery pad without using the battery charger; and a protection cover to cover at least in part the first and second battery pads, wherein the protection cover prevents a user from gaining access to the first and second battery pads, wherein the contact between the first pad and the first terminal, and the contact between the second pad and the second terminal are to be formed once the apparatus is docked at the charging station, wherein the second battery of the apparatus is to receive Direct Current, DC, power from the energy storage of the charging station. a charging station including: an energy storage, wherein the energy storage of the charging device is a first battery; and first and second supply terminals; an energy storage, wherein the energy storage of the charging device is a first battery; and first and second supply terminals; an apparatus including: a battery charger; a second battery; first and second battery pads to be in direct contact with first and second supply terminals of the charging station, the first battery pad directly in contact with an anode of the second battery, the second battery pad directly in contact with a cathode of the second battery, such that the second battery is to directly receive DC power via the first battery pad and the second battery pad without using the battery charger; and a protection cover to cover at least in part the first and second battery pads, wherein the protection cover prevents a user from gaining access to the first and second battery pads, a battery charger; a second battery; first and second battery pads to be in direct contact with first and second supply terminals of the charging station, the first battery pad directly in contact with an anode of the second battery, the second battery pad directly in contact with a cathode of the second battery, such that the second battery is to directly receive DC power via the first battery pad and the second battery pad without using the battery charger; and a protection cover to cover at least in part the first and second battery pads, wherein the protection cover prevents a user from gaining access to the first and second battery pads, wherein the contact between the first pad and the first terminal, and the contact between the second pad and the second terminal are to be formed once the apparatus is docked at the charging station, wherein the second battery of the apparatus is to receive Direct Current, DC, power from the energy storage of the charging station.
A method for wireless communication, comprising: monitoring a first carrier for an indication of a clear channel assessment, CCA, for a second carrier, wherein the first carrier is in a licensed dedicated spectrum and the second carrier is in a shared spectrum; and communicating using the second carrier based on the indication. monitoring a first carrier for an indication of a clear channel assessment, CCA, for a second carrier, wherein the first carrier is in a licensed dedicated spectrum and the second carrier is in a shared spectrum; and communicating using the second carrier based on the indication.
A copper-clad laminate comprising, as a base material, a glass woven fabric having a thickness of 25 to 130 μm, a weight of 15 to 136 g/m 2 and a gas permeability of 1 to 20 cm 3 /cm 2 /sec, impregnated with a thermosetting resin composition.