mhurhangee/ep-ind-claims huggingface dataset:
Housing for accommodating an electronic circuit carrier, wherein - the circuit carrier has a first side and an opposite second side and - the circuit carrier has at least one contact line (30, 32, 34) which is pressed in from the first side, wherein - the housing has at least one supporting element (12, 13, 14, 42, 44, 46, 48, 52, 54, 56), wherein - the at least one supporting element (12, 13, 14, 42, 44, 46, 48, 52, 54, 56) is associated with a region (24, 24', 24'') on the second side of the circuit carrier around the pressed-in contact line (30, 32, 34), so that, during the process of pressing-in the contact line, deflection and warping of the circuit carrier is limited, characterized in that an air gap is arranged between the circuit carrier and the at least one supporting element (12, 13, 14, 42, 44, 46, 48, 52, 54, 56), wherein the width (d) of the air gap is selected, depending on the flexibility of the circuit carrier, such that the supporting element (12, 13, 14, 42, 44, 46, 48, 52, 54, 56) still supports the circuit carrier during the pressing-in process. - the circuit carrier has a first side and an opposite second side and - the circuit carrier has at least one contact line (30, 32, 34) which is pressed in from the first side, wherein - the housing has at least one supporting element (12, 13, 14, 42, 44, 46, 48, 52, 54, 56), wherein - the at least one supporting element (12, 13, 14, 42, 44, 46, 48, 52, 54, 56) is associated with a region (24, 24', 24'') on the second side of the circuit carrier around the pressed-in contact line (30, 32, 34), so that, during the process of pressing-in the contact line, deflection and warping of the circuit carrier is limited,
A method of testing the integrity of a second seal of an electrical insulator comprising an insulating body enclosing a first volume for housing a gas, the body being provided with an opening, and a sealing arrangement comprising a first sealing element and a second sealing element and arranged to seal said opening in the body, the method comprising: - filling the first volume of the insulator with a gas comprising a detectable component, - closing a second closable opening of a second gas-tight sealing element for sealing the opening of the body and arranged inside a firstgas-tight sealing element for sealing said opening and provided with a first closable opening, wherein the second closable opening enables control of the gas pressure in the first volume in cooperation with the first closable opening, - evacuating a second volume, significantly smaller than the first volume and defined between the first and secondgas-tight sealing elements, through the first closable opening, and - determining that a second seal between the secondgas-tight sealing element and the body or the closed second closable opening is leaking if the detectable component is detected in the evacuated gas from the second volume. - filling the first volume of the insulator with a gas comprising a detectable component, - closing a second closable opening of a second gas-tight sealing element for sealing the opening of the body and arranged inside a firstgas-tight sealing element for sealing said opening and provided with a first closable opening, wherein the second closable opening enables control of the gas pressure in the first volume in cooperation with the first closable opening, - evacuating a second volume, significantly smaller than the first volume and defined between the first and secondgas-tight sealing elements, through the first closable opening, and - determining that a second seal between the secondgas-tight sealing element and the body or the closed second closable opening is leaking if the detectable component is detected in the evacuated gas from the second volume.
A pro-fragrance composition comprising a plurality of complexes of cucurbiturils with one or more fragrance molecule(s), wherein the cucurbiturils are present as a mixture, wherein the mixture comprises at least two different cucurbiturils selected from CB, CB, CB and CB, whereby the complexed fragrance molecule(s) is released when the composition is exposed to a stimulus, wherein the composition comprises CB, CB and CB, more preferably the composition comprises CB, CB, CB and CB, wherein the one or more fragrance molecules is not a malodour molecule, wherein the malodour molecule includes a malodour molecule emanating from kitchen and food processing such as garlic and/or onion. wherein the one or more fragrance molecules is not a malodour molecule, wherein the malodour molecule includes a malodour molecule emanating from kitchen and food processing such as garlic and/or onion.
Use of a mineral foam having a dry density ranging from 100 to 300 kg/m 3 obtained by contacting an aqueous foam with a cement slurry, said cement slurry comprising water W, a binder B and a water-reducing admixture, the binder B comprises Portland cement and less than 0.5 % of calcium aluminate cement, % expressed by mass relative to the mass of binder, wherein the weight water/binder (W/B) ratio of the cement slurry is reduced to a value below 0.44 but above 0.29 in order to improve adhesion of the mineral foam to a flat surface of a concrete slab and allow the production of a prefabricated layered wall (1, 11, 12) comprising at least one connecting element (5, 51) and a layer of said mineral foam in contact with at least one concrete slab by putting in contact the mineral foam with a flat surface of said concrete slab, the at least one connecting element (5, 51) linking the layer of mineral foam with said concrete slab.
Method for selecting a route for a vehicle, comprising: a) associating a navigation module to a vehicle fitted with tires; b) estimating a weight of the vehicle, c) identifying at least one route for going from an origin to a destination; characterized by comprising d) calculating based on the estimated weight, for said at least one route, an estimated vehicle range for each one of a plurality of predefined drive styles that a vehicle driver is allowed to set; e) for said at least one route, assessing whether the estimated vehicle range for at least one of said plurality of predefined drive styles is sufficient for reaching the destination, and f) if the estimated vehicle range for said at least one of said plurality of predefined driver styles is not sufficient for reaching the destination, making the vehicle driver aware that said at least one of said plurality of predefined drive styles is not compatible with an available fuel/energy storage at the vehicle. a) associating a navigation module to a vehicle fitted with tires; b) estimating a weight of the vehicle, c) identifying at least one route for going from an origin to a destination; characterized by comprising d) calculating based on the estimated weight, for said at least one route, an estimated vehicle range for each one of a plurality of predefined drive styles that a vehicle driver is allowed to set; e) for said at least one route, assessing whether the estimated vehicle range for at least one of said plurality of predefined drive styles is sufficient for reaching the destination, and f) if the estimated vehicle range for said at least one of said plurality of predefined driver styles is not sufficient for reaching the destination, making the vehicle driver aware that said at least one of said plurality of predefined drive styles is not compatible with an available fuel/energy storage at the vehicle.
An isolated synthetic duplex microRNA mimetic comprising: (i) a guide strand nucleic acid molecule consisting of a nucleotide sequence of 18 to 25 nucleotides, said guide strand nucleotide sequence comprising a seed region nucleotide sequence and a non-seed region nucleotide sequence, said seed region consisting of nucleotide positions 1 to 12 and said non-seed region consisting of nucleotide positions 13 to the 3' end of said guide strand, wherein position 1 of said guide strand represents the 5' end of said guide strand, wherein said seed region further comprises a consecutive nucleotide sequence of 8 nucleotides that is identical in sequence to a nucleotide sequence in SEQ ID NO:3, SEQ ID NO:6, SEQ ID NO:9 and SEQ ID NO:31; and (ii) a passenger strand nucleic acid molecule consisting of a nucleotide sequence of 18 to 25 nucleotides, said passenger strand comprising a nucleotide sequence that is complementary to the guide strand, except that said passenger strand nucleic acid molecule has one nucleotide sequence difference compared with the true reverse complement of the seed region of the guide strand, wherein the one nucleotide difference is located within nucleotide position 13 to the 3' end of the passenger strand. (i) a guide strand nucleic acid molecule consisting of a nucleotide sequence of 18 to 25 nucleotides, said guide strand nucleotide sequence comprising a seed region nucleotide sequence and a non-seed region nucleotide sequence, said seed region consisting of nucleotide positions 1 to 12 and said non-seed region consisting of nucleotide positions 13 to the 3' end of said guide strand, wherein position 1 of said guide strand represents the 5' end of said guide strand, wherein said seed region further comprises a consecutive nucleotide sequence of 8 nucleotides that is identical in sequence to a nucleotide sequence in SEQ ID NO:3, SEQ ID NO:6, SEQ ID NO:9 and SEQ ID NO:31; and (ii) a passenger strand nucleic acid molecule consisting of a nucleotide sequence of 18 to 25 nucleotides, said passenger strand comprising a nucleotide sequence that is complementary to the guide strand, except that said passenger strand nucleic acid molecule has one nucleotide sequence difference compared with the true reverse complement of the seed region of the guide strand, wherein the one nucleotide difference is located within nucleotide position 13 to the 3' end of the passenger strand.
An automated method for calibrating in real time a diagnostic analyzer, which comprises the steps of: - receiving diagnostic results of patient samples calculated by the analyzer using pre-set parameters of the analyzer; - calculating a centroid of the patient sample diagnostic results of the analyzer; - comparing the centroid of the patient sample diagnostic results of the analyzer with a centroid of diagnostic results of a reference population of comparable analyzers to determine a bias in the centroid of the patient sample diagnostic results of the analyzer; - comparing the bias in the centroid of the patient sample diagnostic results of the analyzer with predetermined acceptable limits; - if the bias of the centroid of the patient sample diagnostic results of the analyzer falls within the predetermined acceptable limits, then not applying an optimization factor to the patient sample diagnostic results calculated by the analyzer using the pre-set parameters of the analyzer; - if the bias of the centroid of the patient sample diagnostic results of the analyzer falls outside the predetermined acceptable limits, then applying the optimization factor to the patient sample diagnostic results of the analyzer to obtain optimized patient sample diagnostic results; and - outputting the optimized or un-optimized patient sample diagnostic results by the analyzer. - receiving diagnostic results of patient samples calculated by the analyzer using pre-set parameters of the analyzer; - calculating a centroid of the patient sample diagnostic results of the analyzer; - comparing the centroid of the patient sample diagnostic results of the analyzer with a centroid of diagnostic results of a reference population of comparable analyzers to determine a bias in the centroid of the patient sample diagnostic results of the analyzer; - comparing the bias in the centroid of the patient sample diagnostic results of the analyzer with predetermined acceptable limits; - if the bias of the centroid of the patient sample diagnostic results of the analyzer falls within the predetermined acceptable limits, then not applying an optimization factor to the patient sample diagnostic results calculated by the analyzer using the pre-set parameters of the analyzer; - if the bias of the centroid of the patient sample diagnostic results of the analyzer falls outside the predetermined acceptable limits, then applying the optimization factor to the patient sample diagnostic results of the analyzer to obtain optimized patient sample diagnostic results; and - outputting the optimized or un-optimized patient sample diagnostic results by the analyzer.
Process for preparing polyoxyalkylene macromers, comprising the step of reacting one or more H-functional starter substances and one or more alkylene oxides in the presence of a catalyst, characterized in that at least one of the H-functional starter substances comprises a carbon-carbon double bond which is part of a cyclic structure and wherein the starter substance and the alkylene oxide are metered continuously into the reactor during the reaction.
A radiation detector assembly comprising: a semiconductor detector having a surface; plural pixelated anodes disposed on the surface, each pixelated anode configured to generate a primary signal responsive to reception of a photon by the pixelated anode and to generate at least one secondary signal responsive to an induced charge caused by reception of a photon by at least one adjacent anode; and at least one processor operably coupled to the pixelated anodes, the at least one processor configured to: define sub-pixels for each pixelated anode; acquire signals corresponding to acquisition events from the pixelated anodes, wherein the signals comprise the primary signal and the at least one secondary signal; determine sub-pixel locations for the acquisition events using the signals; and apply at least one calibration parameter on a per sub-pixel basis for the acquisition events based on the determined sub-pixel locations; wherein the at least one processor is configured to apply a uniformity map calibration to the signals. a semiconductor detector having a surface; plural pixelated anodes disposed on the surface, each pixelated anode configured to generate a primary signal responsive to reception of a photon by the pixelated anode and to generate at least one secondary signal responsive to an induced charge caused by reception of a photon by at least one adjacent anode; and at least one processor operably coupled to the pixelated anodes, the at least one processor configured to: define sub-pixels for each pixelated anode; acquire signals corresponding to acquisition events from the pixelated anodes, wherein the signals comprise the primary signal and the at least one secondary signal; determine sub-pixel locations for the acquisition events using the signals; and apply at least one calibration parameter on a per sub-pixel basis for the acquisition events based on the determined sub-pixel locations; define sub-pixels for each pixelated anode; acquire signals corresponding to acquisition events from the pixelated anodes, wherein the signals comprise the primary signal and the at least one secondary signal; determine sub-pixel locations for the acquisition events using the signals; and apply at least one calibration parameter on a per sub-pixel basis for the acquisition events based on the determined sub-pixel locations; wherein the at least one processor is configured to apply a uniformity map calibration to the signals.
Ejectable and buoyant combined rescue beacon and flight recorder device for an aircraft, comprising a foam or honeycomb-type stiffening structure forming a chassis, said chassis being provided with at least one outer lateral face provided with a solar panel, said device being designed to be positioned in a recess created in a wing element of the aircraft, and being formed as an element of an aerodynamic panel on both faces of said wing element, the mass/volume ratio of the device granting it its buoyancy.
Process for preparing NCO-modified polyoxymethylene block copolymers, comprising the step of polymerizing formaldehyde in the presence of a catalyst, characterized in that the polymerization of formaldehyde is additionally effected in the presence of a starter compound having at least 2 Zerewitinoff-active hydrogen atoms, giving an intermediate having a number-average molecular weight of < 4500 g/mol determined by means of gel permeation chromatography against polypropylene glycol standards, and in that the resultant intermediate is reacted with an isocyanate to give an NCO-modified polyoxymethylene block copolymer.
An aqueous dispersion comprising a polyurethane synthesized from a) organic diisocyanates b) dihydroxy compounds having a molar weight of 500 to 5000 g/mol and comprising no ionic group or group that can be converted to an ionic group c) mono- to trihydric alcohols additionally comprising an ionic group d) if appropriate, further compounds other than a) to c), wherein the polyurethane comprises less than 0.6% by weight of urea groups (calculated with a molar weight of 56 g/mol), the ionic group of c) has been at least partly neutralized with an alkali metal cation, and the reaction of compounds a), b), c), and d) does not take place in the presence of a catalyst containing a metal-carbon bond, and wherein compounds b) are polyether alcohols that are obtainable by polymerizing propylene oxide. a) organic diisocyanates b) dihydroxy compounds having a molar weight of 500 to 5000 g/mol and comprising no ionic group or group that can be converted to an ionic group c) mono- to trihydric alcohols additionally comprising an ionic group d) if appropriate, further compounds other than a) to c),
A method for preparing a composition suitable for use in the treatment or prophylaxis of disease in humans related to an impaired or reduced function of the gut microbiota and the enzyme quinone reductase obtained from fermented Cymbidium eyrthraeum comprising plant material including a plant or plant parts of all wild types, hybrids and cultivars, found in the wild or cultivated in vitro characterized in that the method comprises the steps of: - withering the plant material such as leaves, flowers, stem, seeds, cells, stem cells and/or root including tissues, cells and/or stem cells of the plants or plant parts, - macerating mechanically the withered plant material, - fermenting the macerating plant material by an enzymatic, bacterial or fungal process, - drying and pulverising the fermented plant material, - sonicating and macerating the pulverised plant material with solvents, and - extracting the macerated plant material. - withering the plant material such as leaves, flowers, stem, seeds, cells, stem cells and/or root including tissues, cells and/or stem cells of the plants or plant parts, - macerating mechanically the withered plant material, - fermenting the macerating plant material by an enzymatic, bacterial or fungal process, - drying and pulverising the fermented plant material, - sonicating and macerating the pulverised plant material with solvents, and - extracting the macerated plant material.
A method for sending tailored calling party data from a mobile client device in connection with a voice call, the method comprising: initiating, by a calling mobile client, the voice call; sending a pre-call message from the calling mobile client to a library server, the pre-call message concerning identification information of a called mobile client whereto the calling mobile client is starting to establish a voice call; informing, by the library server, the called mobile client of a forthcoming call from the calling mobile client; checking from the called mobile client if it accepts to receive tailored calling party data of the calling mobile client and, if allowed, sending, by the library server, the tailored calling party data of the calling mobile client to the called mobile client and sending to the calling mobile client an OK message depicting that the tailored calling party data of the calling mobile client is sent to the called mobile client; sending a voice call initiation message (56a, 56b, 39) from the calling mobile client to the called mobile client, if the calling mobile client has received the OK message from the library server; connecting (56a, 56b) the voice call from the calling mobile client to the called mobile client; and presenting (57, 40), during alerting the incoming voice call on a display of the called mobile client, tailored pre-call calling party data that is at least a part of the tailored calling party data. initiating, by a calling mobile client, the voice call; sending a pre-call message from the calling mobile client to a library server, the pre-call message concerning identification information of a called mobile client whereto the calling mobile client is starting to establish a voice call; informing, by the library server, the called mobile client of a forthcoming call from the calling mobile client; checking from the called mobile client if it accepts to receive tailored calling party data of the calling mobile client and, if allowed, sending, by the library server, the tailored calling party data of the calling mobile client to the called mobile client and sending to the calling mobile client an OK message depicting that the tailored calling party data of the calling mobile client is sent to the called mobile client; sending a voice call initiation message (56a, 56b, 39) from the calling mobile client to the called mobile client, if the calling mobile client has received the OK message from the library server; connecting (56a, 56b) the voice call from the calling mobile client to the called mobile client; and presenting (57, 40), during alerting the incoming voice call on a display of the called mobile client, tailored pre-call calling party data that is at least a part of the tailored calling party data.
MRI scanner, wherein the MRI scanner has a patient tunnel, a first receiving antenna for receiving a magnetic resonance signal from a patient in the patient tunnel, a second receiving antenna for receiving a signal having the Larmor frequency of the magnetic resonance signal, and a receiver, wherein the second receiving antenna is arranged outside or in the vicinity of an opening of the patient tunnel, wherein the receiver is connected to the first receiving antenna and the second receiving antenna for signalling and the receiver is designed to suppress an interference signal received with the second receiving antenna in a magnetic resonance signal received by the first receiving antenna; wherein the MRI scanner is designed to receive magnetic resonance signals having a Larmor frequency in an industrial band, i.e. in an ISM band; wherein the MRI scanner has a transmit path for transmitting an excitation pulse with an ISM filter, wherein the ISM filter is designed to suppress signals outside the ISM band. wherein the MRI scanner is designed to receive magnetic resonance signals having a Larmor frequency in an industrial band, i.e. in an ISM band; wherein the MRI scanner has a transmit path for transmitting an excitation pulse with an ISM filter, wherein the ISM filter is designed to suppress signals outside the ISM band.