mhurhangee/ep-ind-claims huggingface dataset:
A method for allowing a change in configuration of an Intelligent Electronic Device of a power system, the method comprising: receiving a request at the IED for changing the configuration, wherein the request comprises a configuration change signal, wherein the configuration change signal is received from a signalling component of the power system at the IED in response to establishing a connection between an I/O module of the IED and the signalling component; verifying the request automatically by the IED, wherein verifying the request comprises detecting a predetermined signal pattern at the I/O module upon receiving the configuration change signal, wherein the predetermined signal pattern is stored in a memory associated with the IED; and enabling the change in configuration in response to verification of the request by the IED, wherein the signalling component is a power supply, and wherein establishing the connection between the I/O module and the power supply comprises creating a feedback loop using at least one input (BI1, BI2) of the I/O module of the IED, at least one output of the I/O module of the IED, and the power supply.. receiving a request at the IED for changing the configuration, wherein the request comprises a configuration change signal, wherein the configuration change signal is received from a signalling component of the power system at the IED in response to establishing a connection between an I/O module of the IED and the signalling component; verifying the request automatically by the IED, wherein verifying the request comprises detecting a predetermined signal pattern at the I/O module upon receiving the configuration change signal, wherein the predetermined signal pattern is stored in a memory associated with the IED; and enabling the change in configuration in response to verification of the request by the IED, wherein the signalling component is a power supply, and wherein establishing the connection between the I/O module and the power supply comprises creating a feedback loop using at least one input (BI1, BI2) of the I/O module of the IED, at least one output of the I/O module of the IED, and the power supply..
A method for battery shutdown followed by a standby mode, said method comprising: transferring an alkaline electrolyte solution of a battery to an electrolyte tank, thereby emptying the electrolyte solution from the battery; circulating a washing solution through said battery; adding an acidic agent to said washing solution using an acidic agent dosing element; and transferring said washing solution to a washing solution reservoir, thereby emptying the washing solution from the battery. transferring an alkaline electrolyte solution of a battery to an electrolyte tank, thereby emptying the electrolyte solution from the battery; circulating a washing solution through said battery; adding an acidic agent to said washing solution using an acidic agent dosing element; and transferring said washing solution to a washing solution reservoir, thereby emptying the washing solution from the battery.
Method for manufacturing an ophthalmic article comprising a substrate having ophthalmic properties and a functional wafer securely fastened to a first curved face of said substrate, said manufacturing method comprising the steps of: - providing said functional wafer preformed according to a first desired shape, the preformed functional wafer having a first preformed face intended to be applied on said first curved face of said substrate, said first preformed face being defined by first geometrical characteristics; - determining second geometrical characteristics of the first curved face of said substrate to be manufactured according to the first geometrical characteristics of said first preformed face of said preformed functional wafer; - manufacturing said first curved face according to the second geometrical characteristics determined, wherein said manufacturing of said first curved face is carried out so that ophthalmic properties of said substrate are maintained when the substrate is a semi-finished lens or a finished lens, or is carried out to provide desired ophthalmic properties when the substrate is a blank; - fixing said preformed functional wafer to said manufactured substrate by applying the first preformed face on the first curved face in order to form said ophthalmic lens. - providing said functional wafer preformed according to a first desired shape, the preformed functional wafer having a first preformed face intended to be applied on said first curved face of said substrate, said first preformed face being defined by first geometrical characteristics; - determining second geometrical characteristics of the first curved face of said substrate to be manufactured according to the first geometrical characteristics of said first preformed face of said preformed functional wafer; - manufacturing said first curved face according to the second geometrical characteristics determined, wherein said manufacturing of said first curved face is carried out so that ophthalmic properties of said substrate are maintained when the substrate is a semi-finished lens or a finished lens, or is carried out to provide desired ophthalmic properties when the substrate is a blank; - fixing said preformed functional wafer to said manufactured substrate by applying the first preformed face on the first curved face in order to form said ophthalmic lens.
7-(2,5-dihydro-4-imidazo[1,2-a]pyridine-3-yl-2,5-dioxo-1H-pyrrol-3-yl)-9-fluoro-1,2,3,4-tetrahydro-2-(1-piperidinylcarbonyl)-pyrrolo[3,2,1-jk][1,4]-benzodiazepine or a pharmaceutically acceptable salt or a solvate thereof for use in combination with a chemotherapeutic agent selected from the group consisting of CPT-11, pemetrexed, gemcitabine, etoposide, doxorubicin, and platinum chemotherapeutic agents for the treatment of ovarian cancer, non-small cell lung cancer, or colorectal cancer.
A method of decoding encoded pictures, the method comprising: receiving an encoded picture (n), a decoding timing Tr(n) which represents a timing at which the encoded picture (n) is to be decoded, and a maximum delay time (dpb_output_delay (n)) which represents a time period by which output of the encoded picture (n) for display is to be delayed after the encoded picture (n) is decoded at the decoding timing Tr(n); decoding the encoded picture (n) at the decoding timing Tr(n) and deriving a decoded picture (n); calculating, for a backward-prediction-non-associated frame, an output timing To(n) of the backward-prediction-non-associated frame in such a way as to add the decoding timing Tr(n) with the maximum delay time (dpb_output_delay (n)), wherein the output timing To(n) = the decoding timing Tr(n) + the maximum delay time (dpb_output_delay (n)); holding the decoded picture (n) from being outputted for display from a decoded picture buffer for a time period represented by the maximum delay time (dpb_output_delay(n)) after the decoded picture (n) is decoded at the decoded timing Tr(n) and outputting the decoded picture (n) from the decoded picture buffer at the output timing To(n), wherein the decoded picture buffer holds at least one decoded picture used for reference to decode at least one of the encoded pictures. receiving an encoded picture (n), a decoding timing Tr(n) which represents a timing at which the encoded picture (n) is to be decoded, and a maximum delay time (dpb_output_delay (n)) which represents a time period by which output of the encoded picture (n) for display is to be delayed after the encoded picture (n) is decoded at the decoding timing Tr(n); decoding the encoded picture (n) at the decoding timing Tr(n) and deriving a decoded picture (n); calculating, for a backward-prediction-non-associated frame, an output timing To(n) of the backward-prediction-non-associated frame in such a way as to add the decoding timing Tr(n) with the maximum delay time (dpb_output_delay (n)), wherein the output timing To(n) = the decoding timing Tr(n) + the maximum delay time (dpb_output_delay (n)); holding the decoded picture (n) from being outputted for display from a decoded picture buffer for a time period represented by the maximum delay time (dpb_output_delay(n)) after the decoded picture (n) is decoded at the decoded timing Tr(n) and outputting the decoded picture (n) from the decoded picture buffer at the output timing To(n), wherein the decoded picture buffer holds at least one decoded picture used for reference to decode at least one of the encoded pictures.
An active bias circuit formed on a wafer for providing an output biasing voltage to an electrical circuit formed on the same wafer as the active bias circuit and comprising the same types of field effect transistors (FETs) as the active bias circuit, the active bias circuit comprising first FET and second FETs, the first FET having a drain connected to a gate of the second FET and to a resistor, the second FET having a source connected to a gate of the first FET, said resistor having another terminal connected to a reference voltage, the active biasing circuit thereby being arranged to regulate an amount of current flowing through the channels of the first and second FETs (24a, 36b), the current flowing through the second FET being arranged to set the output biasing voltage and the voltage at the gate of the first FET, the active bias circuit thereby being arranged to proportionally change the current flowing through the first and second FETs (24a, 36b) as a function of wafer lot variations such that the output biasing voltage of the active bias circuit is arranged to correspondingly compensate for variations in the electrical circuit and the active bias circuit as a result of wafer lot to wafer lot variations; wherein the electrical circuit comprises an amplifier having at least one amplifier FET having a gate connected to the gate of the first FET to receive said output bias voltage; and the active bias circuit further comprising a sink circuit connected to the gate (32,32a) of the first FET (24,24a) to sink any leakage current from the amplifier FET.
A method for detecting a target in a target site in a histological sample, wherein the target site comprises a binding partner for a binding agent, comprising (a) Incubating the sample presumably comprising the target in one or more target sites in an incubation medium comprising a binding agent which is capable of specifically binding to its binding partner comprised in said one or more target sites, wherein the amount of the binding agent is sufficient to bind to substantially all units of the binding partner present in the sample, and wherein the binding agent is characterized in that it comprises first binding molecules and second binding molecules, wherein the first binding molecules comprise a binding part and a detectable part, and the second binding molecules comprise a binding part, wherein the binding part of both first and second binding molecules is capable of specifically binding to the binding partner and competing for said binding, and wherein the second binding molecules do not comprise a part that is substantially identical to the detectable part of the first binding molecules; (b) Detecting the detectable part of the first binding molecules in the sample, thereby detecting the target in the target sites. (a) Incubating the sample presumably comprising the target in one or more target sites in an incubation medium comprising a binding agent which is capable of specifically binding to its binding partner comprised in said one or more target sites, wherein the amount of the binding agent is sufficient to bind to substantially all units of the binding partner present in the sample, and wherein the binding agent is characterized in that it comprises first binding molecules and second binding molecules, wherein the first binding molecules comprise a binding part and a detectable part, and the second binding molecules comprise a binding part, wherein the binding part of both first and second binding molecules is capable of specifically binding to the binding partner and competing for said binding, and wherein the second binding molecules do not comprise a part that is substantially identical to the detectable part of the first binding molecules; (b) Detecting the detectable part of the first binding molecules in the sample, thereby detecting the target in the target sites.
A stainless steel for use in engine gaskets characterised by having a structure in which the half-value width by x-ray diffraction measured using CuK α radiation for, planes on austenite matrix is at least 0.15° and at most 0.35°, the structure being a temper rolled metal structure of a steel having a recovered unrecrystallised structure or a mixed structure of a recovered unrecrystallised structure and a recrystallised structure at a temper-rolling percentage of at least 40%, the stainless steel consisting of, by weight percent, C: at most 0.03%, Si: at most 1.0%, Mn: at most 2.0%, Cr: at least 16.0% and that most 18.0%, Ni: at least 6.0% and at most 8.0%, and N: at most 0.20%, balance Fe.
Component comprising at least one part at the surface of which is positioned a layer of copper or of weakly alloyed copper alloy comprising nitrogen atoms inserted over a thickness of greater than or equal to 0.05 μm, for example of greater than or equal to 0.1 μm, even, for example, of greater than or equal to 0.2 μm, indeed even of greater than or equal to 0.5 μm, where the concentration profile of the nitrogen as a function of the thickness of the layer is a curve resulting from the sum of at least two Gaussian curves, where the composition of the said layer is defined by the following ranges of the contents of the following major constituents, expressed as percentages by weight: Copper (Cu) ≥ 97.5; Oxygen 0 to 0.5; preferably ≤ 0.1; Cadmium (Cd) 0 to 2.5; preferably ≤ 1; Silver (Ag) 0 to 2.5; preferably ≤ 0.5; for example ≤ 0.1; Tin (Sn) 0 to 2.5; preferably ≤ 0.5; for example ≤ 0.15; Tellurium (Te) 0 to 2.5; preferably ≤ 1; Sulphur 0 to 2.5; preferably ≤ 1; Lead 0 to 2.5; preferably ≤ 1; Chromium (Cr) 0 to 2.5; preferably ≤ 1; Zirconium (Zr) 0 to 2.5; preferably ≤ 0.2; Phosphorus 0 to 2.5; preferably ≤ 0.1; Iron (Fe) 0 to 2.5; preferably ≤ 1.5; Cobalt (Co) 0 to 2.5; preferably ≤ 1; Alumina (Al 2 O 3) 0 to 2.5; preferably ≤ 1; Titanium oxide (TiO 2) 0 to 2.5; preferably ≤ 1; where the percentage of other "minor" constituents is less than or equal to 0.1, comprising nitrogen atoms and the surface nanohardness of which is greater than or equal to 2 GPa, for example greater than or equal to 4 GPa, and/or the Vickers hardness of which is greater than or equal to 200 for a load of 5 g, indeed even of 50 g.
Organized assembly of adjacent silicon single crystals configured for the directional solidification of an ingot along a favoured solidification direction Z, with more than 70% by number of the single crystals of the assembly, referred to as "oriented single crystals", observed over a section perpendicular to the favoured solidification direction Z being such that: a) the misorientation θ d of an oriented single crystal with the oriented single crystal or crystals that are adjacent thereto is greater than 8°, b) the smallest α of the angles between a normal to the boundary separating an oriented single crystal from one or some adjacent oriented single crystals and the directions <111> of the adjacent oriented single crystal(s) is greater than 4°, c) the smallest β of the angles between the favoured solidification direction Z and the directions <100> of said oriented single crystal is less than 25° and/or the smallest of the angles between the favoured solidification direction Z and the directions <111> of the oriented single crystal is less than 10°, and d) the projection distance l i in a plane perpendicular to the favoured solidification direction Z, of the largest dimension d i of the oriented single crystal, measured among the planes and along the directions <110>, is less than 40 mm, the oriented single crystals being such that the boundary separating one oriented single-crystal from one or some adjacent oriented single crystals is different from a boundary close to a boundary having a coincidence index ∑ n, with n chosen from the numbers 3, 5, 9, 11, 27, 51 and 59. a) the misorientation θ d of an oriented single crystal with the oriented single crystal or crystals that are adjacent thereto is greater than 8°, b) the smallest α of the angles between a normal to the boundary separating an oriented single crystal from one or some adjacent oriented single crystals and the directions <111> of the adjacent oriented single crystal(s) is greater than 4°, c) the smallest β of the angles between the favoured solidification direction Z and the directions <100> of said oriented single crystal is less than 25° and/or the smallest of the angles between the favoured solidification direction Z and the directions <111> of the oriented single crystal is less than 10°, and d) the projection distance l i in a plane perpendicular to the favoured solidification direction Z, of the largest dimension d i of the oriented single crystal, measured among the planes and along the directions <110>, is less than 40 mm,
A fluid dosing valve operated by an electric actuator generating the translation of a shutter, with the electric actuator comprising a multiphase motor consisting of a stator having a plurality of wound poles formed by stacking a plurality of sheets, and a rotor comprising means for transforming the rotational movement into a linear movement of an output member, with a non-magnetic sleeve insulating the rotor from the stator, and magneto-sensitive elements for detecting the position of the rotor positioned outside the sleeve, characterized in that said magneto-sensitive elements sense the position of the rotor through the insulating sleeve, with said non-magnetic sleeve being so configured as to completely insulate: - a volume defined by the space inside the assembly formed by the sleeve and a plug, with said volume containing the rotor and communicating with the valve head, a threaded screw and a shutter; and - a volume defined by the space outside the assembly formed by the sleeve and the plug and comprising the stator, electric circuits and connections. - a volume defined by the space inside the assembly formed by the sleeve and a plug, with said volume containing the rotor and communicating with the valve head, a threaded screw and a shutter; and - a volume defined by the space outside the assembly formed by the sleeve and the plug and comprising the stator, electric circuits and connections.
A communication device (200a-c, 201a-d) configured to operate in a network-assisted communication mode and an ad-hoc communication mode, wherein there is only a control plane between the communication device (200a-200c) in the network-assisted communication mode and a base station of a cellular network, and there is both a control plane and a data plane between the communication devices (201a-d) in the ad-hoc communication mode, characterized in that in the network-assisted communication mode the communication device (200a-c) is configured to transmit control data related to the network-assisted communication mode using a first communication resource being associated with the network-assisted communication mode to another communication device (200a-c) within a control channel, and wherein in the ad-hoc communication mode the communication device (201a-d) is configured to transmit control data related to the ad-hoc communication mode using a second communication resource being associated with the ad-hoc communication mode to another communication device (201a-d) within the control channel.
A lighting system, comprising: - at least one controllable lighting unit for providing an output beam of light and - a controller for supplying control commands to the at least one lighting unit, having means for receiving lighting design data comprising identification information relating to the lighting design data, which controller is configured to generate said control commands from said received lighting design data, said control commands are generated so that said output beam comprises a detectable signal, which corresponds to said identification information, wherein the lighting system is characterized in that said identification information comprises information, individualizing the lighting design data. - at least one controllable lighting unit for providing an output beam of light and - a controller for supplying control commands to the at least one lighting unit, having means for receiving lighting design data comprising identification information relating to the lighting design data, which controller is configured to generate said control commands from said received lighting design data, said control commands are generated so that said output beam comprises a detectable signal, which corresponds to said identification information, wherein the lighting system is characterized in that said identification information comprises information, individualizing the lighting design data.
An article sorting machine, comprising: image data acquisition means for acquiring an image of a target object as a target object image data; and variation image generation means for generating variation image data similar to the target object image data; characterized by: identifying means for determining whether or not identification of the target object is possible by comparing a target object secondary image data acquired by imaging the target object again with the target object image data, by comparing the target object image data with the variation image data; and control means for executing processing for identifying the target object based on the determination result of the identifying means. image data acquisition means for acquiring an image of a target object as a target object image data; and variation image generation means for generating variation image data similar to the target object image data; characterized by: identifying means for determining whether or not identification of the target object is possible by comparing a target object secondary image data acquired by imaging the target object again with the target object image data, by comparing the target object image data with the variation image data; and control means for executing processing for identifying the target object based on the determination result of the identifying means. identifying means for determining whether or not identification of the target object is possible by comparing a target object secondary image data acquired by imaging the target object again with the target object image data, by comparing the target object image data with the variation image data; and control means for executing processing for identifying the target object based on the determination result of the identifying means.
Lighting apparatus comprising a plurality of LEDs (23, 24), a housing containing the LEDs and having opaque walls (42 to 44) surrounding an opening, and a transparent light guide extending facing the opening, the LEDs and the light guide being arranged so that the light flux emitted by the LEDs penetrates, at least in part, into the guide through at least one edge (25, 26) of the guide, the lighting apparatus being characterized in that it further comprises an inductor to which the LEDs are connected, in that at least one main face (50, 51) of the guide includes diffusing elements or patterns, and in that the lighting apparatus includes one or more magnets secured to the housing and enabling it to be held secured to a wall including a coil adapted to power the lighting apparatus by induction.