mhurhangee/ep-ind-claims huggingface dataset:
Method for comparing a digital test image (IMGT) with a digital reference image (IMGR), said method being implemented by a computer and comprising a step of: - identifying at least two areas of interest (IZ1, IZ2, IZ3, IZ4) in the reference image, each area of interest comprising a set of pixels, said method being characterized in that it comprises steps of: - randomly selecting at least one of the areas of interest identified in the reference image, - selecting at least one subset of the reference image, said subset comprising at least one pixel of at least one selected area of interest, - for each selected subset of the reference image, selecting, on the basis of similarity, a corresponding subset of the test image, and - comparing said subset of the test image with the corresponding subset of the reference image. - identifying at least two areas of interest (IZ1, IZ2, IZ3, IZ4) in the reference image, each area of interest comprising a set of pixels, - randomly selecting at least one of the areas of interest identified in the reference image, - selecting at least one subset of the reference image, said subset comprising at least one pixel of at least one selected area of interest, - for each selected subset of the reference image, selecting, on the basis of similarity, a corresponding subset of the test image, and - comparing said subset of the test image with the corresponding subset of the reference image.
Method of making hybrid organic-inorganic core-shell nano-particles, comprising the steps of a) providing a dispersion of colloidal organic particles as a template; b) adding at least one inorganic oxide precursor; and c) forming an inorganic shell layer from the precursor on the template to result in core-shell nano-particles, wherein the colloidal particles comprise an organic synthetic polyampholyte and have an average particle size of 10-300 nm as measured by Dynamic Light Scattering, and wherein the polyampholyte is a copolymer obtained from • at least one cationic or basic monomer; • at least one anionic or acidic monomer; and • at least one neutral or non-ionic monomer. a) providing a dispersion of colloidal organic particles as a template; b) adding at least one inorganic oxide precursor; and c) forming an inorganic shell layer from the precursor on the template to result in core-shell nano-particles, wherein the colloidal particles comprise an organic synthetic polyampholyte and have an average particle size of 10-300 nm as measured by Dynamic Light Scattering, and wherein the polyampholyte is a copolymer obtained from • at least one cationic or basic monomer; • at least one anionic or acidic monomer; and • at least one neutral or non-ionic monomer. • at least one cationic or basic monomer; • at least one anionic or acidic monomer; and • at least one neutral or non-ionic monomer.
Device for detecting arcing faults, comprising, - an optical sensor which is designed to detect an arcing fault and when an arcing fault is detected to generate and transmit a detection signal, - a switching device which is designed cut an electrically conducting connection, - a lighting means, characterised in that that the device - has a test button, wherein the lighting means is designed to emit a testing light beam when the test button is actuated, and wherein the optical sensor is designed to detect the testing light beam emitted from the lighting means and when the testing light beam is detected to generate and transmit a detection signal, and wherein the switching device is designed, when the detection signal is received, to cut the electrically conducting connection. - an optical sensor which is designed to detect an arcing fault and when an arcing fault is detected to generate and transmit a detection signal, - a switching device which is designed cut an electrically conducting connection, - a lighting means, - has a test button, wherein the lighting means is designed to emit a testing light beam when the test button is actuated, and wherein the optical sensor is designed to detect the testing light beam emitted from the lighting means and when the testing light beam is detected to generate and transmit a detection signal, and wherein the switching device is designed, when the detection signal is received, to cut the electrically conducting connection.
A container for storing a plurality of test strips comprising: a housing having a front housing portion opposing a rear housing portion and a base, wherein the front housing portion has a height H1 and the rear housing portion has a height H2, the housing defines a cavity; a lid hingedly connected to the rear housing portion having a front lid portion opposing a rear lid portion, wherein the front lid portion has a height H3 and the rear lid portion has a height H4; and an insert provided in the cavity of the housing having at least one channel with at least one retaining member provided lengthwise which releasably retains the plurality of test strips substantially perpendicular to the base of the housing; where the at least one channel comprises two longitudinal sides which define the length of the channel; wherein the longitudinal sides are spaced apart from one another to allow the insertion of a test strip oriented perpendicular to the longitudinal sides, wherein each of the at least one retaining member comprises an elastomeric strip, wherein each of the at least one retaining member extends into the at least one channel. a housing having a front housing portion opposing a rear housing portion and a base, wherein the front housing portion has a height H1 and the rear housing portion has a height H2, the housing defines a cavity; a lid hingedly connected to the rear housing portion having a front lid portion opposing a rear lid portion, wherein the front lid portion has a height H3 and the rear lid portion has a height H4; and
A process for producing an aqueous polymer solution comprising the steps of (a) providing a hydrated polymer that has been prepared by aqueous solution polymerisation of ethylenically unsaturated monomers, which hydrated polymer comprises at least 10% by weight active polymer; (b) cutting the hydrated polymer by subjecting the hydrated polymer to at least one cutting stage comprising at least one stream of aqueous liquid at a pressure of at least 150 bar to reduce the size of the hydrated polymer, (c) dissolving the hydrated polymer in an aqueous liquid so as to obtain an aqueous polymer solution. (a) providing a hydrated polymer that has been prepared by aqueous solution polymerisation of ethylenically unsaturated monomers, which hydrated polymer comprises at least 10% by weight active polymer; (b) cutting the hydrated polymer by subjecting the hydrated polymer to at least one cutting stage comprising at least one stream of aqueous liquid at a pressure of at least 150 bar to reduce the size of the hydrated polymer, (c) dissolving the hydrated polymer in an aqueous liquid so as to obtain an aqueous polymer solution.
An illumination light communication device comprising: a light source unit including light emitting elements; a power supply unit (1, 2, 3, 5, 6, 7, C1) which controls a load current flowing through the light source unit to be maintained at a constant value based on a dimming signal; the illumination light communication device being characterised in that it further comprises: an impedance unit connected in series to the light source unit to vary an impedance; a switch element connected in parallel to the impedance unit to connect or disconnect the impedance unit with the light source unit; and a control unit (8, 9) configured to control on/off of the switch element to modulate a light intensity of illumination light outputted from the light source unit such that a binary communication signal is superimposed on the illumination light, wherein the control unit (8, 9) controls the impedance of the impedance unit such that a difference between a magnitude of the load current when a pulse of the communication signal is superimposed and a magnitude of the load current when a pulse of the communication signal is not superimposed is maintained constant regardless of a dimming rate of the dimming signal in a range of a dimming rate equal to or greater than a predetermined dimming rate. a light source unit including light emitting elements; a power supply unit (1, 2, 3, 5, 6, 7, C1) which controls a load current flowing through the light source unit to be maintained at a constant value based on a dimming signal; an impedance unit connected in series to the light source unit to vary an impedance; a switch element connected in parallel to the impedance unit to connect or disconnect the impedance unit with the light source unit; and a control unit (8, 9) configured to control on/off of the switch element to modulate a light intensity of illumination light outputted from the light source unit such that a binary communication signal is superimposed on the illumination light,
A method for determining at least one fuel consumption domain for an aircraft, the method being implemented by an electronic determining device and comprising the following step: - acquiring a flight envelope of the aircraft, the flight envelope being a function of the altitude and a propulsion property (PROP) of the aircraft, characterized in that it further comprises, for at least one respective flight phase, the following steps: - calculating a fuel consumption limiting curve as a function of the altitude and the propulsion property (PROP), the consumption limiting curve corresponding to an average consumption provided for said flight phase, - determining, from the flight envelope and the consumption limiting curve, a fuel consumption domain as a function of the altitude and the propulsion property (PROP), the fuel consumption domain including a first consumption subdomain below the anticipated consumption for said flight phase and a second consumption subdomain above said anticipated consumption, the first and second consumption subdomains being separated by the consumption limit curve, a symbol representative of an instantaneous consumption of the aircraft being further determined, to be displayed on the fuel consumption domain, and - displaying, on a display screen, the fuel consumption domain determined for said flight phase. - acquiring a flight envelope of the aircraft, the flight envelope being a function of the altitude and a propulsion property (PROP) of the aircraft, - calculating a fuel consumption limiting curve as a function of the altitude and the propulsion property (PROP), the consumption limiting curve corresponding to an average consumption provided for said flight phase, - determining, from the flight envelope and the consumption limiting curve, a fuel consumption domain as a function of the altitude and the propulsion property (PROP), the fuel consumption domain including a first consumption subdomain below the anticipated consumption for said flight phase and a second consumption subdomain above said anticipated consumption, the first and second consumption subdomains being separated by the consumption limit curve, a symbol representative of an instantaneous consumption of the aircraft being further determined, to be displayed on the fuel consumption domain, and - displaying, on a display screen, the fuel consumption domain determined for said flight phase.
A method for dosing a target component, wherein a dosing system doses the target component to a target value which corresponds to a desired nominal value (S20soll), characterized in that a further dosing system doses at least one further component (21, 22, 23) different from the target component for after-dosing to a target value of the component (21, 22, 23) for after-dosing which is lower than a desired nominal value (S21soll) of the component (21, 22, 23) for after-dosing, wherein then an actual value (G20ist) of the target component and at least one actual value (G21ist) of the component (21, 22, 23) for after-dosing are determined, wherein then a content of the target component is calculated depending on the actual value (G20ist) of the target component and/or the actual value (G21ist) of the component (21, 22, 23) for after-dosing, and the content is compared to a limit value or tolerance band, wherein if the limit value or tolerance band is exceeded, at least the component (21, 22, 23) for after-dosing is dosed again.
An automotive safety electronic control system, comprising: a processor including a processor clock, wherein the processor is configured to output a cyclic test clock signal representative of the processor clock; a reference clock source configured to output a cyclic reference clock signal, and; a test device; wherein the test device is configured to: include a test counter, the test counter configured to count a number of cycles of the test clock signal, and to store a test count value representing a number of test count cycles; include a reference counter, the reference counter configured to count a number of cycles of the reference clock signal, and to store a reference count value representing a number of reference count cycles, and; modify the test count value upon receipt by the test device of each cycle of the test clock signal; modify the reference count value upon receipt by the test device of each cycle of the reference clock signal, and; calculate a difference between the test count value and the reference count value. a processor including a processor clock, wherein the processor is configured to output a cyclic test clock signal representative of the processor clock; a reference clock source configured to output a cyclic reference clock signal, and; a test device; wherein the test device is configured to: include a test counter, the test counter configured to count a number of cycles of the test clock signal, and to store a test count value representing a number of test count cycles; include a reference counter, the reference counter configured to count a number of cycles of the reference clock signal, and to store a reference count value representing a number of reference count cycles, and; modify the test count value upon receipt by the test device of each cycle of the test clock signal; modify the reference count value upon receipt by the test device of each cycle of the reference clock signal, and; calculate a difference between the test count value and the reference count value. include a test counter, the test counter configured to count a number of cycles of the test clock signal, and to store a test count value representing a number of test count cycles; include a reference counter, the reference counter configured to count a number of cycles of the reference clock signal, and to store a reference count value representing a number of reference count cycles, and; modify the test count value upon receipt by the test device of each cycle of the test clock signal; modify the reference count value upon receipt by the test device of each cycle of the reference clock signal, and; calculate a difference between the test count value and the reference count value.
Process for recovering and regenerating a tungsten compound suitable as co-catalyst in converting carbohydrates with hydrogen into alkylene glycols and polyols, from ash comprising one or more tungsten-oxygen components wherein said process comprises the steps of: a. contacting the ash with an inorganic acid having a pH of below 2; b. separating the mixture obtained from step a. in a solid fraction and a liquid fraction; c. washing the solid fraction obtained by step b. with an aqueous liquid; d. solubilising at least a part of the washed solids obtained by step c. in an alkylene glycol composition and dissolving an alkali hydroxide in said alkylene glycol composition, wherein the amount of alkali hydroxide is chosen such that the molar ratio alkali hydroxide: tungstic acid in the resulting composition is between 0.2 and 2. a. contacting the ash with an inorganic acid having a pH of below 2; b. separating the mixture obtained from step a. in a solid fraction and a liquid fraction; c. washing the solid fraction obtained by step b. with an aqueous liquid; d. solubilising at least a part of the washed solids obtained by step c. in an alkylene glycol composition and dissolving an alkali hydroxide in said alkylene glycol composition, wherein the amount of alkali hydroxide is chosen such that the molar ratio alkali hydroxide: tungstic acid in the resulting composition is between 0.2 and 2.
A ventilator comprising: a first pathway for supplying a first gas; a second pathway for supplying a second gas, the second gas being mixed with the first gas to produce mixed gas comprising a predetermined percentage of the second gas; a conduit for providing the mixed gas from the first and second pathways to an access port during an inspiratory phase, and for providing discharged gas from the access port to the first pathway during an expiratory phase; and a controller for delaying supply of the second gas from the second pathway for a delay time in order to maintain the predetermined percentage of the second gas in the mixed gas provided to the access port during a subsequent inspiratory phase, characterized in that the controller determines the volume of the discharged gas received by the first pathway during the expiratory phase based on the determined flow of the discharged gas and determines the delay time based on the determined volume of the discharged gas. a first pathway for supplying a first gas; a second pathway for supplying a second gas, the second gas being mixed with the first gas to produce mixed gas comprising a predetermined percentage of the second gas; a conduit for providing the mixed gas from the first and second pathways to an access port during an inspiratory phase, and for providing discharged gas from the access port to the first pathway during an expiratory phase; and a controller for delaying supply of the second gas from the second pathway for a delay time in order to maintain the predetermined percentage of the second gas in the mixed gas provided to the access port during a subsequent inspiratory phase, characterized in that the controller determines the volume of the discharged gas received by the first pathway during the expiratory phase based on the determined flow of the discharged gas and determines the delay time based on the determined volume of the discharged gas.
A base station apparatus comprising: reception circuitry; and transmission circuitry adapted to transmit to a terminal apparatus, assistance control information by using a Physical Downlink Shared CHannel, PDSCH, in a first cell, wherein the assistance control information is to be used to suppress an interference from a second cell, wherein the second cell is a neighbor cell of the first cell, wherein the assistance control information includes at least a cell ID of the second cell, information regarding a power ratio between a reference signal and a data signal channel in the second cell, and information regarding a transmission mode in the second cell; and wherein the information regarding a transmission mode is information which indicates a precoding scheme of the data signal channel in the second cell. reception circuitry; and transmission circuitry adapted to transmit to a terminal apparatus, assistance control information by using a Physical Downlink Shared CHannel, PDSCH, in a first cell, wherein the assistance control information is to be used to suppress an interference from a second cell, wherein the second cell is a neighbor cell of the first cell, wherein the assistance control information includes at least a cell ID of the second cell, information regarding a power ratio between a reference signal and a data signal channel in the second cell, and information regarding a transmission mode in the second cell; and wherein the information regarding a transmission mode is information which indicates a precoding scheme of the data signal channel in the second cell.
A bottle case (10, 10') with a base (11, 11'), four side elements (12, 13, 14, 15) essentially extending from the base in vertical direction and a framework with compartments for receiving bottles, wherein the bottle case (10, 10') furthermore includes a mechanism at least at two opposite side elements (12, 13) and/or (14, 15) and at the case base (11, 11') for stacking plural bottle cases (10, 10') in a rotated arrangement, wherein the mechanism is configured so that an upper bottle case - is attachable to a lower bottle case in a placement position and - is insertable into the lower bottle case in a nesting position in an orientation that is rotated about a vertical axis by 180° with respect to the placement position, wherein the column elements (50, 50' 60, 60') essentially form the side elements (12, 13, 14, 15) of the bottle case (10, 10'), wherein the column elements are connected with one another through a circumferential frame element at an upper end of the bottle case and wherein the side elements (12, 13, 14, 15) are configured open, characterized in that the mechanism is configured out of - at least two or a plurality of column elements (50, 50', 60, 60') protruding into the interior of the case are arranged at each of the side elements, and - at least two or a plurality of edge recesses (55, 65) adapted to the column elements at the case base (11, 11') at each of the side elements, wherein the column elements and the recesses of each side element are arranged so that in the placement position, the column elements (50', 60') of the upper bottle case are alignable with the column elements (50,60) of the lower bottle case so that the column elements (50', 60') of the upper bottle case are attachable to the column elements (50, 60) of the lower bottle case and in the nesting position, the column elements (50, 60) of the lower bottle case are alignable with the respective recesses of the upper bottle case and are thus receivable in the respective recess of the upper bottle case. - is attachable to a lower bottle case in a placement position and - is insertable into the lower bottle case in a nesting position in an orientation that is rotated about a vertical axis by 180° with respect to the placement position, - at least two or a plurality of column elements (50, 50', 60, 60') protruding into the interior of the case are arranged at each of the side elements, and - at least two or a plurality of edge recesses (55, 65) adapted to the column elements at the case base (11, 11') at each of the side elements,
A system for activated communication between an object and a reader, the system comprising a first radio frequency tag attached to the object, the first radio frequency tag being configured for communication with the reader when the first radio frequency tag is active, characterized in that the system further comprises a second radio frequency tag attached to the object, wherein the second radio frequency tag is configured to be activated when the object enters an RF field operating at the frequency of the second radio frequency tag, wherein the second radio frequency tag is configured to activate the first radio frequency tag when activated by the RF field. the system comprising a first radio frequency tag attached to the object, the first radio frequency tag being configured for communication with the reader when the first radio frequency tag is active, characterized in that the system further comprises a second radio frequency tag attached to the object, wherein the second radio frequency tag is configured to be activated when the object enters an RF field operating at the frequency of the second radio frequency tag, wherein the second radio frequency tag is configured to activate the first radio frequency tag when activated by the RF field.