mhurhangee/patent-ind-claim-en huggingface dataset:
A leak detection device for detecting a leak in a test zone of a sealing membrane of a sealed and thermally insulating tank, the leak detection device including: - a leak detection dome including a main body intended to be disposed in the test zone and a seal connected to the main body and configured to define a detection chamber between the main body and the test zone , the seal including a peripheral sealing lip configured to come into contact with the sealing membrane and having a closed contour encircling the detection chamber , - a vacuum pump connected to the detection chamber to generate a reduced pressure in the detection chamber , and - an analysis tool connected to the detection chamber to analyze a gas present in the detection chamber , in which the sealing lip is configured to occupy two positions, namely a first position in an initial state, without application of a vacuum in the detection chamber , and a second position in a service state, with application of a vacuum in the detection chamber , characterized in that the sealing lip comprises only in the second position relative to the service state a pinch portion that is pinched between the main body and the sealing membrane over at least a part of the periphery of the detection chamber , the sealing lip having a flexibility allowing the formation of said pinch portion by deformation of the sealing lip towards the detection chamber under the effect of the depression in the detection chamber . - a leak detection dome including a main body intended to be disposed in the test zone and a seal connected to the main body and configured to define a detection chamber between the main body and the test zone , the seal including a peripheral sealing lip configured to come into contact with the sealing membrane and having a closed contour encircling the detection chamber , - a vacuum pump connected to the detection chamber to generate a reduced pressure in the detection chamber , and - an analysis tool connected to the detection chamber to analyze a gas present in the detection chamber ,
Method for maintaining spinning units of a spinning machine , whereas the spinning machine features a multiple number of spinning units arranged next to one another and at least one maintenance device , which is movable along the spinning units and by means of which the spinning units are maintained, whereas, prior to the maintenance of a spinning unit , a housing of the spinning unit is opened, the spinning unit is maintained by the maintenance device and, after the maintenance of the spinning unit , the housing is closed again, characterized in that the housing of the spinning unit is autonomously opened for maintenance with the assistance of a sealing device arranged at the spinning unit and/or is autonomously closed after maintenance, whereas the sealing device comprises an actuator, which opens and/or closes the housing .
Liquid water softener composition comprising: - at least one amino carboxylic complexing agent selected from the group consisting of methyl glycine diacetic acid (MGDA), glutamic acid diacetic acid (GLDA), their salts and combinations thereof; - at least one monomeric polycarboxylate selected from the group consisting of, citrates, gluconates, oxydisuccinates, glycerol mono- di- and trisuccinates, carboxymethyloxysuccinates, carboxymethyloxymalonates, dipicolinates, hydroxyethyliminodiacetates, iminodisuccinates, and combinations thereof; - and at least one organic acid selected from the group consisting of citric, acetic, formic, glycolic and oxalic acid, and combinations thereof; wherein the ratio in weight of the at least one monomeric polycarboxylate to the at least one organic acid is between 5:1 and 1:1; wherein the composition has a pH of less than 7; and wherein the composition is substantially free from surfactant. - at least one amino carboxylic complexing agent selected from the group consisting of methyl glycine diacetic acid (MGDA), glutamic acid diacetic acid (GLDA), their salts and combinations thereof; - at least one monomeric polycarboxylate selected from the group consisting of, citrates, gluconates, oxydisuccinates, glycerol mono- di- and trisuccinates, carboxymethyloxysuccinates, carboxymethyloxymalonates, dipicolinates, hydroxyethyliminodiacetates, iminodisuccinates, and combinations thereof; - and at least one organic acid selected from the group consisting of citric, acetic, formic, glycolic and oxalic acid, and combinations thereof; wherein the ratio in weight of the at least one monomeric polycarboxylate to the at least one organic acid is between 5:1 and 1:1; wherein the composition has a pH of less than 7; and wherein the composition is substantially free from surfactant.
Method for lane (S1-S3) detection and road detection, wherein a multitask DNN architecture consisting of at least one encoder and at least a first and a second decoder is used for detection, comprising the following steps of: - providing (VS1) an input image by means of an optical capture device, - filtering (VS2) the input image by means of the encoder, - generating (VS3) a first representation of the lane (S1-S3) and/or road by means of the encoder, - forwarding (VS4) the first representation to the first and second decoders, - processing (VS5) the first representation in the first and second decoders, - outputting (VS6) two further different representations from the first and second decoders, wherein the first decoder carries out a semantic segmentation and the second decoder carries out a key point regression, and wherein the first decoder provides a pixel classification and the second decoder provides key points as the output, wherein the pixel classification provides a free area of the road and/or lane, and the key points provide visible boundaries of the road and/or lane, - combining (VS7) the two representations from the first and second decoders, wherein the two representations are fused when combining them, and - outputting (VS8) identified lanes (S1-S3) and lane boundaries and the road . - providing (VS1) an input image by means of an optical capture device, - filtering (VS2) the input image by means of the encoder, - generating (VS3) a first representation of the lane (S1-S3) and/or road by means of the encoder, - forwarding (VS4) the first representation to the first and second decoders, - processing (VS5) the first representation in the first and second decoders, - outputting (VS6) two further different representations from the first and second decoders, wherein the first decoder carries out a semantic segmentation and the second decoder carries out a key point regression, and wherein the first decoder provides a pixel classification and the second decoder provides key points as the output, wherein the pixel classification provides a free area of the road and/or lane, and the key points provide visible boundaries of the road and/or lane, - combining (VS7) the two representations from the first and second decoders, wherein the two representations are fused when combining them, and - outputting (VS8) identified lanes (S1-S3) and lane boundaries and the road .
A method for transmitting to an electrical element the power of a radio frequency type signal received by a radio frequency receiver , for example a radio frequency identification (RFID) type chip, the receiver being provided with a receiving antenna and a voltage rectifier , the method being implemented by a transmission device comprising a control system and a voltage converter , the method being characterised in that it comprises the following steps consisting in: - momentarily deriving the signal from the rectifier to the control system to define an optimal input voltage of the converter for which the input impedance of the converter corresponds to the output impedance of the rectifier , - redirecting the DC signal to the voltage converter , - providing the converter with an input voltage setpoint corresponding to the optimal voltage so that the maximum power is transmitted to the converter, - converting the signal voltage thanks to the voltage converter , the output voltage of the converter being predefined depending on the electrical element , - transmitting the signal converted by the converter to the electrical element . - momentarily deriving the signal from the rectifier to the control system to define an optimal input voltage of the converter for which the input impedance of the converter corresponds to the output impedance of the rectifier , - redirecting the DC signal to the voltage converter , - providing the converter with an input voltage setpoint corresponding to the optimal voltage so that the maximum power is transmitted to the converter, - converting the signal voltage thanks to the voltage converter , the output voltage of the converter being predefined depending on the electrical element , - transmitting the signal converted by the converter to the electrical element .
A method for producing Metal Organic Framework (MOF) having a framework that encapsulates a bio-molecule, the method comprising combining in a solution the bio-molecule and MOF precursors, wherein the MOF precursors comprise a metal ion and an organic ligand, the organic ligand having at least two groups selected from the group consisting of carboxylate groups, phosphonate groups, sulfonate groups, N-heterocyclic groups, and combinations thereof, and the bio-molecule (i) is selected from the group consisting of a protein, a peptide, a nucleic acid, an amino acid, and combinations thereof, and (ii) promotes formation of the encapsulating framework such that the bio-molecule sits within the framework as a heterogeneous and discontinuous guest phase within a self-defined cavity. the MOF precursors comprise a metal ion and an organic ligand, the organic ligand having at least two groups selected from the group consisting of carboxylate groups, phosphonate groups, sulfonate groups, N-heterocyclic groups, and combinations thereof, and the bio-molecule (i) is selected from the group consisting of a protein, a peptide, a nucleic acid, an amino acid, and combinations thereof, and (ii) promotes formation of the encapsulating framework such that the bio-molecule sits within the framework as a heterogeneous and discontinuous guest phase within a self-defined cavity. (i) is selected from the group consisting of a protein, a peptide, a nucleic acid, an amino acid, and combinations thereof, and (ii) promotes formation of the encapsulating framework such that the bio-molecule sits within the framework as a heterogeneous and discontinuous guest phase within a self-defined cavity.
Glass sheet having a boron- and lithium-free glass composition comprising the following in weight percentage, expressed with respect to the total weight of glass : 65 ≤ SiO 2 ≤ 78 % 5 ≤ Na 2 O ≤ 20 % 0 ≤ K 2 O < 3 % 2 ≤ Al 2 O 3 ≤ 3 wt% 0 ≤ CaO < 4% 4 ≤ MgO ≤ 12 % ; as well as a (CaO/MgO) ratio which is less than 1, and a total iron as follows: 0.06 < Fe 2 O 3 ≤ 1.7 % by weight. 65 ≤ SiO 2 ≤ 78 % 5 ≤ Na 2 O ≤ 20 % 0 ≤ K 2 O < 3 % 2 ≤ Al 2 O 3 ≤ 3 wt% 0 ≤ CaO < 4% 4 ≤ MgO ≤ 12 % ;
Method for operating an in-vitro-diagnostics laboratory system, IVD laboratory system, the IVD laboratory system having - a housing with an opening ; - an actuator device , arranged in the housing , for processing sample containers; - a cover configured to cover the opening ; - a cooling device configured to cool the sample containers; and - a cooling device control unit configured to control operation of the cooling device ; wherein the method comprises: - determining whether the cover is open; - determining whether the cooling device control unit is active; - in a normal system mode, disabling operation of the actuator device based on at least one of the cover being open and the cooling device control unit being inactive; and - in a bypass system mode, enabling operation of the actuator device based on the cover being open and the cooling device control unit being active. - a housing with an opening ; - an actuator device , arranged in the housing , for processing sample containers; - a cover configured to cover the opening ; - a cooling device configured to cool the sample containers; and - a cooling device control unit configured to control operation of the cooling device ; - determining whether the cover is open; - determining whether the cooling device control unit is active; - in a normal system mode, disabling operation of the actuator device based on at least one of the cover being open and the cooling device control unit being inactive; and - in a bypass system mode, enabling operation of the actuator device based on the cover being open and the cooling device control unit being active.
A method performed by a user equipment, the method comprising: receiving downlink orthogonal frequency division multiplexing signals including a synchronization signal, where the synchronization signal is transmitted with a first subcarrier spacing and a first bandwidth; performing cell detection using the received downlink orthogonal frequency division multiplexing signals to detect at least one cell; selecting a cell of the at least one detected cell; receiving information of at least one subcarrier spacing associated with the selected cell, where the at least one subcarrier spacing is used for communication; selecting a second subcarrier spacing from the at least one subcarrier spacing; obtaining fine downlink timing information from an extended synchronization signal having a second bandwidth when the selected second subcarrier spacing is larger than the first subcarrier spacing; and transmitting using the fine downlink timing information. receiving downlink orthogonal frequency division multiplexing signals including a synchronization signal, where the synchronization signal is transmitted with a first subcarrier spacing and a first bandwidth; performing cell detection using the received downlink orthogonal frequency division multiplexing signals to detect at least one cell; selecting a cell of the at least one detected cell; receiving information of at least one subcarrier spacing associated with the selected cell, where the at least one subcarrier spacing is used for communication; selecting a second subcarrier spacing from the at least one subcarrier spacing; obtaining fine downlink timing information from an extended synchronization signal having a second bandwidth when the selected second subcarrier spacing is larger than the first subcarrier spacing; and transmitting using the fine downlink timing information.
An in-vitro method for determining the modulating effect of a test compound on the epithelial barrier function, the method comprising the steps of a) providing a microfluidic system comprising multiple hollow microfluidic channels, wherein the channel is filled at least in part with a hydrogel; b) introducing epithelial cells into the microfluidic channels and allowing the epithelial cells to contact the hydrogel; c) culturing the epithelial cells that were introduced into the microfluidic channels, thereby allowing the cells to form on the hydrogel a layer of cells with an apical and a basolateral side; d) providing to the epithelial cells in the microfluidic channel a marker substance and the test compound, wherein the marker substance and the test compound are, independently, provided to the apical side, to the basolateral side or to both the apical and basolateral side, and wherein the test compound is provided to the cells either before, after or at the same time with the marker substance; e) determining at at least two time points the signal provided by the marker substance in the microfluidic channel or in the hydrogel, or both in the microfluidic channel and in the hydrogel; a) providing a microfluidic system comprising multiple hollow microfluidic channels, wherein the channel is filled at least in part with a hydrogel; b) introducing epithelial cells into the microfluidic channels and allowing the epithelial cells to contact the hydrogel; c) culturing the epithelial cells that were introduced into the microfluidic channels, thereby allowing the cells to form on the hydrogel a layer of cells with an apical and a basolateral side; d) providing to the epithelial cells in the microfluidic channel a marker substance and the test compound, wherein the marker substance and the test compound are, independently, provided to the apical side, to the basolateral side or to both the apical and basolateral side, and wherein the test compound is provided to the cells either before, after or at the same time with the marker substance; e) determining at at least two time points the signal provided by the marker substance in the microfluidic channel or in the hydrogel, or both in the microfluidic channel and in the hydrogel;
A hearing aid configured to be arranged at least partly in the ear canal of a specific person, the hearing aid comprising: - A faceplate , - A custom ear shell , adapted to at least partly fit the ear canal of the specific person, the custom ear shell being connected to the faceplate , - A rechargeable battery enclosed in the faceplate and custom earshell , and - An induction coil , such as a hearing aid induction coil, for wireless charging of the rechargeable battery, wherein the induction coil is separate from the rechargeable battery, the induction coil being arranged at least partly in contact with the ear shell , wherein the induction coil is arranged as a printed or deposited material on a flexible substrate. - A faceplate , - A custom ear shell , adapted to at least partly fit the ear canal of the specific person, the custom ear shell being connected to the faceplate , - A rechargeable battery enclosed in the faceplate and custom earshell , and - An induction coil , such as a hearing aid induction coil, for wireless charging of the rechargeable battery, wherein the induction coil is separate from the rechargeable battery, the induction coil being arranged at least partly in contact with the ear shell , wherein the induction coil is arranged as a printed or deposited material on a flexible substrate.
A connecting structure comprising an electric wire and a terminal , in which the terminal is to be inserted into a terminal insertion hole of a connector housing , wherein the terminal is crimped to a conductor exposed by stripping off a coated insulator at an end portion of the electric wire , wherein the terminal is only crimped to the exposed conductor at the end portion of the electric wire but not to the insulator of the electric wire , a coating resin is coated on a connecting portion formed of a conductor exposed portion of the conductor exposed at the end portion of the electric wire , an insulator coated portion which is adjacent to the conductor exposed portion and is coated with the insulator , and a conductor crimping portion of the terminal , to which the conductor is connected, the coating resin is formed into a thickness which allows the connecting portion coated with the coating resin to be inserted into the terminal insertion hole of the connector housing , and the insulator of the insulator coated portion , which is to be inserted into an inlet of the terminal insertion hole , is processed to be thinner than the insulator of a non-thinned portion that is adjacent to the thinned insulator coated portion . the terminal is crimped to a conductor exposed by stripping off a coated insulator at an end portion of the electric wire , wherein the terminal is only crimped to the exposed conductor at the end portion of the electric wire but not to the insulator of the electric wire , a coating resin is coated on a connecting portion formed of a conductor exposed portion of the conductor exposed at the end portion of the electric wire , an insulator coated portion which is adjacent to the conductor exposed portion and is coated with the insulator , and a conductor crimping portion of the terminal , to which the conductor is connected, the coating resin is formed into a thickness which allows the connecting portion coated with the coating resin to be inserted into the terminal insertion hole of the connector housing , and the insulator of the insulator coated portion , which is to be inserted into an inlet of the terminal insertion hole , is processed to be thinner than the insulator of a non-thinned portion that is adjacent to the thinned insulator coated portion .
A method for determining the amount of insulin in a biological sample when taken from a human, by tandem mass spectrometry, the method comprising: (a) subjecting the sample to conditions suitable to generate insulin A chains from insulin; (b) processing the sample from step (a) to obtain a fraction enriched in insulin A chains; (c) subjecting the enriched insulin A chains to an ionization source under conditions suitable to generate one or more insulin A chain ions detectable by mass spectrometry, wherein said insulin A chains are chemically modified prior to ionization wherein said chemical modification comprises alkylating said insulin A chains; and (d) determining the amount of one or more insulin A chain ions by tandem mass spectrometry wherein the one or more insulin A chain ions comprise one or more fragment ions from an alkylated insulin A chain precursor ion with a mass to charge ratio (m/z) of 1306.0 ± 0.5 and one or more fragment ions from an alkylated insulin A chain precursor ion with m/z of 871.0 ± 0.5; wherein the amount of ions determined in step (d) is related to the amount of insulin in said sample. (a) subjecting the sample to conditions suitable to generate insulin A chains from insulin; (b) processing the sample from step (a) to obtain a fraction enriched in insulin A chains; (c) subjecting the enriched insulin A chains to an ionization source under conditions suitable to generate one or more insulin A chain ions detectable by mass spectrometry, wherein said insulin A chains are chemically modified prior to ionization wherein said chemical modification comprises alkylating said insulin A chains; and (d) determining the amount of one or more insulin A chain ions by tandem mass spectrometry wherein the one or more insulin A chain ions comprise one or more fragment ions from an alkylated insulin A chain precursor ion with a mass to charge ratio (m/z) of 1306.0 ± 0.5 and one or more fragment ions from an alkylated insulin A chain precursor ion with m/z of 871.0 ± 0.5;