mhurhangee/patent-ind-claim-en huggingface dataset:
A voltage supply system comprising: a first power supply branch that includes: a first voltage supply (V_1); a serially connected first diode (D1) and first switch connected between the first voltage supply (V_1) and an output of the voltage supply system; and a first gate driver connected to the first switch (S1) to control operation of the first switch (S1); a second power supply branch that includes: a second voltage supply (V_2); a serially connected second diode (D2) and second switch (S2) connected between the second voltage supply (V-2) and the output of the voltage supply system; and a second gate driver connected to the second switch (S2) to control operation of the first switch (S1); and a voltage monitor/controller configured to perform a built-in test of the system by controlling the state of the first and second switches (S1/S2) by controlling enable signals (EN1/EN2) provided to the first and second gate drivers (210/216); wherein the first gate driver is connected to and powered by the first voltage supply (V_1) and the second gate driver is connected to and powered by the second voltage supply (V_2). a first voltage supply (V_1); a serially connected first diode (D1) and first switch connected between the first voltage supply (V_1) and an output of the voltage supply system; and a first gate driver connected to the first switch (S1) to control operation of the first switch (S1); a second power supply branch that includes: a second voltage supply (V_2); a serially connected second diode (D2) and second switch (S2) connected between the second voltage supply (V-2) and the output of the voltage supply system; and a second gate driver connected to the second switch (S2) to control operation of the first switch (S1); and a voltage monitor/controller configured to perform a built-in test of the system by controlling the state of the first and second switches (S1/S2) by controlling enable signals (EN1/EN2) provided to the first and second gate drivers (210/216); wherein the first gate driver is connected to and powered by the first voltage supply (V_1) and the second gate driver is connected to and powered by the second voltage supply (V_2). a second voltage supply (V_2); a serially connected second diode (D2) and second switch (S2) connected between the second voltage supply (V-2) and the output of the voltage supply system; and a second gate driver connected to the second switch (S2) to control operation of the first switch (S1); and a voltage monitor/controller configured to perform a built-in test of the system by controlling the state of the first and second switches (S1/S2) by controlling enable signals (EN1/EN2) provided to the first and second gate drivers (210/216); wherein the first gate driver is connected to and powered by the first voltage supply (V_1) and the second gate driver is connected to and powered by the second voltage supply (V_2).
Coin with a disc-shaped coin body , which has an edge , wherein in the edge of the coin body at least one recess is provided, in which at least one luminescent substance is provided, characterized in that the coin body is made of metal or a metal alloy, and the luminescent substance is introduced into the recess with the help of an organic resin or with the help of adhesive systems, in which the luminescent substance is dissolved or dispersed.
A method of managing a domain comprising a plurality of member devices, the method comprising the steps of: - storing (S50), by a first domain manager, domain management information into said plurality of member devices, said storing step (S50) comprising the sub-steps of: - generating (S500), using secret sharing, a plurality of pieces of data from at least part of said domain management information, such that at least two pieces of data which are different from each other are required for recovering said at least part of said domain management information; - distributing (S501) said plurality of pieces of data to said plurality of member devices, respectively; - obtaining (S51), by a second domain manager, said domain management information from at least two of said plurality of member devices, wherein said obtaining step comprises the sub-steps of: - receiving (S510) at least two pieces of the plurality of pieces of data which are different from each other from at least two of said plurality of member devices; - recovering (S511) said at least part of said domain management information from the received at least two pieces of data. - storing (S50), by a first domain manager, domain management information into said plurality of member devices, said storing step (S50) comprising the sub-steps of: - generating (S500), using secret sharing, a plurality of pieces of data from at least part of said domain management information, such that at least two pieces of data which are different from each other are required for recovering said at least part of said domain management information; - distributing (S501) said plurality of pieces of data to said plurality of member devices, respectively; - generating (S500), using secret sharing, a plurality of pieces of data from at least part of said domain management information, such that at least two pieces of data which are different from each other are required for recovering said at least part of said domain management information; - distributing (S501) said plurality of pieces of data to said plurality of member devices, respectively; - obtaining (S51), by a second domain manager, said domain management information from at least two of said plurality of member devices, wherein said obtaining step comprises the sub-steps of: - receiving (S510) at least two pieces of the plurality of pieces of data which are different from each other from at least two of said plurality of member devices; - recovering (S511) said at least part of said domain management information from the received at least two pieces of data. - receiving (S510) at least two pieces of the plurality of pieces of data which are different from each other from at least two of said plurality of member devices; - recovering (S511) said at least part of said domain management information from the received at least two pieces of data.
Electrically propellable vehicle comprising at least one current collector (2a, 2b; 102; 202), the at least one current collector being adapted to co-act with at least one rail element comprising at least one electric conductor arranged in at least one groove in said rail element and being adapted to be put under voltage for supplying electric power to said vehicle, said at least one rail element being located in a road section on which the vehicle is adapted to travel, wherein the at least one current collector (2a, 2b; 102; 202) comprises at least one contact element (6a, 6b; 106; 206), each contact element being adapted to connect mechanically and electrically with a corresponding contact portion of the at least one electric conductor , further comprising a sliding device (7; 107; 207) being displaceable in a lateral direction of the vehicle at an underside thereof, characterized in that the at least one current collector is rotatably connected to the sliding device to rotate around a rotational axis which forms an angle of less than 10 degrees with a longitudinal direction of the vehicle, said at least one current collector being arranged to rotate around said rotational axis between a folded-down position where the at least one contact element of said current collector is substantially vertically disposed, and a folded-up position where the at least one contact element is non-vertically disposed, and wherein the at least one contact element (6a, 6b; 106; 206) of said current collector is vertically displaceable relative to the vehicle in said folded-down position.
An image sensor for recording incident radiation, comprising a first layer for filtering the incident radiation by attenuating incident radiation with a frequency that is below one or more cutoff frequencies; and a second light-sensitive layer for absorbing radiation passing through the first layer , the light-sensitive layer comprising an array of pixels, wherein the first layer precedes the second light-sensitive layer in a direction of propagation of the incident radiation and the first layer comprises an array of apertures passing through the first layer to the second light-sensitive layer for propagating radiation therethrough, wherein the cross sectional size of each aperture of the array of apertures is configured to provide a cutoff frequency so that incident radiation with a frequency below the cutoff frequency is attenuated inside the aperture by decaying exponentially inside the aperture and incident radiation with a frequency above the cutoff frequency propagates through the aperture by coupling to one or more propagating modes inside the aperture , and wherein the intensity of radiation that has a frequency below the cutoff frequency and that reaches the second light-sensitive layer is controlled by the thickness of the first layer . a first layer for filtering the incident radiation by attenuating incident radiation with a frequency that is below one or more cutoff frequencies; and a second light-sensitive layer for absorbing radiation passing through the first layer , the light-sensitive layer comprising an array of pixels, wherein the first layer precedes the second light-sensitive layer in a direction of propagation of the incident radiation and the first layer comprises an array of apertures passing through the first layer to the second light-sensitive layer for propagating radiation therethrough, wherein the cross sectional size of each aperture of the array of apertures is configured to provide a cutoff frequency so that incident radiation with a frequency below the cutoff frequency is attenuated inside the aperture by decaying exponentially inside the aperture and incident radiation with a frequency above the cutoff frequency propagates through the aperture by coupling to one or more propagating modes inside the aperture , and wherein the intensity of radiation that has a frequency below the cutoff frequency and that reaches the second light-sensitive layer is controlled by the thickness of the first layer .
Cosmetic, non-therapeutic use of an effective amount of at least roasted coffee beans or an alcoholic or aqueous-alcoholic extract thereof, as an active agent for treating and/or preventing over expression or accumulation of melanin in the skin, wherein said active agent is comprised in an oral composition.
Method for fabricating a micromechanical component made of a silicon-based material comprising the following steps: a) taking a silicon-based substrate ; b) forming a mask pierced with holes on a horizontal portion of the substrate ; c) etching, in an etching chamber, predetermined oblique walls , in part of the thickness of the substrate , from holes in the mask , in order to form upper chamfered surfaces of the micromechanical component ; d) etching, in the etching chamber, substantially vertical walls , in at least part of the thickness of the substrate , from the back of the first etch , in order to form the peripheral walls of the micromechanical component beneath the upper chamfered surfaces ; e) releasing the micromechanical component from the substrate and the mask , the method including, between step d) and step e), the following steps: f) forming a protective layer on the oblique walls and the substantially vertical walls , leaving the back of the etch made in step d) without any protective layer; g) etching, in the etching chamber, predetermined oblique walls , in the remaining thickness of the substrate from the bottom without any protective layer, in order to form lower chamfered surfaces of the micromechanical component , and characterised in that the method includes, before step e), the following step: h) filling a cavity created during the etchings of the micromechanical component , formed by an upper chamfered surface , a peripheral wall and a lower chamfered surface , with a metal or metal alloy in order to provide an attachment to the micromechanical component . a) taking a silicon-based substrate ; b) forming a mask pierced with holes on a horizontal portion of the substrate ; c) etching, in an etching chamber, predetermined oblique walls , in part of the thickness of the substrate , from holes in the mask , in order to form upper chamfered surfaces of the micromechanical component ; d) etching, in the etching chamber, substantially vertical walls , in at least part of the thickness of the substrate , from the back of the first etch , in order to form the peripheral walls of the micromechanical component beneath the upper chamfered surfaces ; e) releasing the micromechanical component from the substrate and the mask , f) forming a protective layer on the oblique walls and the substantially vertical walls , leaving the back of the etch made in step d) without any protective layer; g) etching, in the etching chamber, predetermined oblique walls , in the remaining thickness of the substrate from the bottom without any protective layer, in order to form lower chamfered surfaces of the micromechanical component ,
A thrust reverser for propulsion unit of aircraft , characterised in that it comprises a rear fixed structure forming an outer shroud for guiding a flow of fluid and three gates movable between a direct thrust position, wherein the gates are retracted radially outside the rear fixed structure , and a reverse thrust position wherein they are configured to extend axially downstream of an outlet section of the propulsion unit so as to redirect said flow of fluid leaving the propulsion unit via this outlet section upstream of the propulsion unit .
A device management server comprising a processor and a memory , the memory storing computer-executable instruction that, when executed by the processor, cause the device management server to: maintain in the memory of the device management server a device description framework managed object that stores, for each of a plurality of other managed objects supported by the device management server, a copy of a device description framework document for that other managed object; receive a request to register a new managed object with the device management server, the request including a device description framework document for the new managed object; validate a format of the device description framework document of the new managed object; and based on validating the format of the device description framework document for the new managed object, add the device description framework document for the new managed object to the device description framework managed object maintained by the device management server. maintain in the memory of the device management server a device description framework managed object that stores, for each of a plurality of other managed objects supported by the device management server, a copy of a device description framework document for that other managed object; receive a request to register a new managed object with the device management server, the request including a device description framework document for the new managed object; validate a format of the device description framework document of the new managed object; and based on validating the format of the device description framework document for the new managed object, add the device description framework document for the new managed object to the device description framework managed object maintained by the device management server.
A method for stratifying a human female subject with respect to expected outcomes of embryo implantation in an assisted reproduction technology protocol, the method comprising determining the levels of CSF3 and/or CSF3R in a fluid sample together with IL-17A and/or PlGF, wherein elevated levels of CSF3 relative to a control are indicative of a low likelihood of a successful pregnancy and reduced levels of CSF3R relative to a control are indicative of a low likelihood of a successful pregnancy and elevated levels of IL-17A and/or PlGF relative to controls are indicative of low likelihood of successful pregnancy and where normal CSF3 levels is indicative of high likelihood of a successful pregnancy outcome and normal levels of CSF3R are indicative of high likelihood of a successful pregnancy outcome and normal levels of IL-17A and/or PlGF are indicative of high likelihood of a successful pregnancy outcome, all relative to controls, wherein the fluid sample is selected from the list consisting of uterine lavage, blood, plasma or serum, ascites, lymph fluid, tissue exudate and urine.
A door handle comprising a door handle case; a first detection electrode and a second detection electrode disposed in the door handle case; and a controller connected to the first detection electrode and the second detection electrode , wherein the controller separately measures a first capacitance between the first detection electrode and an operation body and a second capacitance between the second detection electrode and the operation body, and the controller determines whether an operation is performed by the operation body based on the first capacitance or the second capacitance wherein the controller measures a total capacitance between the first detection electrode and the second detection electrode versus the operation body, and in a case where the total capacitance exceeds another predetermined reference value, the controller separately measures the first capacitance between the first detection electrode and the operation body and the second capacitance between the second detection electrode and the operation body. a door handle case; a first detection electrode and a second detection electrode disposed in the door handle case; and a controller connected to the first detection electrode and the second detection electrode , wherein the controller separately measures a first capacitance between the first detection electrode and an operation body and a second capacitance between the second detection electrode and the operation body, and the controller determines whether an operation is performed by the operation body based on the first capacitance or the second capacitance wherein the controller measures a total capacitance between the first detection electrode and the second detection electrode versus the operation body, and in a case where the total capacitance exceeds another predetermined reference value, the controller separately measures the first capacitance between the first detection electrode and the operation body and the second capacitance between the second detection electrode and the operation body.
A method performed by a terminal (5a-35, 5c-15, 5e-01) in a wireless communication system, the method comprising: receiving (5e-10, 5e-20) a radio resource control, RRC, message for establishing an RRC connection or for establishing a radio bearer, the RRC message including configuration information for configuring one or more logical channels, and the configuration information including priority information on a priority order of the one or more logical channels and maximum time duration allowed for each of the one or more logical channels; receiving (5e-45) a message for allocating uplink resources, the message including information indicating time duration allowed for the uplink resources, among a plurality of time durations; identifying at least one logical channel (5f-01, 5f-02, 5f-03, 5f-04) satisfying a condition that maximum time duration allowed for the at least one logical channel is larger than or equal to the time duration allowed for the uplink resources; allocating (5e-50) the uplink resources to the identified at least one logical channel based on the priority order of the at least one logical channel, wherein a logical channel for an uplink common control channel, UL-CCCH, is higher priority order than a logical channel for a buffer status report, BSR, or a power headroom report, PHR, based on the priority order of the at least one logical channel; and transmitting (5e-55) data on the uplink resources, the data being generated based on the at least one logical channel. receiving (5e-10, 5e-20) a radio resource control, RRC, message for establishing an RRC connection or for establishing a radio bearer, the RRC message including configuration information for configuring one or more logical channels, and the configuration information including priority information on a priority order of the one or more logical channels and maximum time duration allowed for each of the one or more logical channels; receiving (5e-45) a message for allocating uplink resources, the message including information indicating time duration allowed for the uplink resources, among a plurality of time durations; identifying at least one logical channel (5f-01, 5f-02, 5f-03, 5f-04) satisfying a condition that maximum time duration allowed for the at least one logical channel is larger than or equal to the time duration allowed for the uplink resources; allocating (5e-50) the uplink resources to the identified at least one logical channel based on the priority order of the at least one logical channel, wherein a logical channel for an uplink common control channel, UL-CCCH, is higher priority order than a logical channel for a buffer status report, BSR, or a power headroom report, PHR, based on the priority order of the at least one logical channel; and transmitting (5e-55) data on the uplink resources, the data being generated based on the at least one logical channel.
PTFE polymer-based sliding material with fillers improving the tribological properties, characterised in that the fillers comprise calcium phosphate and at least one metal sulphide as primary filler and wherein the metal sulphide content of the sliding material is at least > 2 vol%, wherein the contents by volume are determined by weight and density and the at least one metal sulphide comprises SnS 2 , Bi 2 S 3 , WS 2 , ZnS or CuS as well as combinations thereof and the PTFE polymer base of the sliding material comprises at least 70 vol% PTFE and wherein the sliding material contains the solid lubricants BaS0 4 as secondary fillers.