mhurhangee/patent-ind-claim-en huggingface dataset:
An aeration method of an isolator system comprising an isolator as an aseptic work room whose inside is maintained at a positive pressure, an opening/closing door opening/closing an opening portion of the isolator , a chamber connected to the opening portion of the isolator from an outside of the isolator and allowing carrying in/out of an article to/from the isolator , decontaminating gas supply means for supplying a decontaminating gas into the chamber , a gas supply passage connecting the decontaminating gas supply means and the chamber , and a gas discharge passage for discharging the gas inside the chamber to an outside, and comprised such that after the inside of the chamber is decontaminated by supplying the decontaminating gas into the chamber , the gas inside the chamber is discharged to the outside and the inside of the chamber is aerated, characterized in that , the inside of the chamber is decontaminated by supplying the decontaminating gas into the chamber through the gas supply passage in a state where the opening/closing door is closed; and after that, the opening/closing door is opened in a state where the inside of the isolator is maintained at a positive pressure, the gas at the positive pressure in the isolator is introduced into the chamber through the opening portion , the gas in the chamber is discharged to the outside through the gas supply passage and the gas discharge passage , and aeration inside the chamber is carried out.
A lighting device comprising an elongate body having a first, light emitting surface and at least one second surface (10b; 100, 102) with an encapsulation layer at the at least one second surface (10b; 100, 102) and a distribution of electrically-powered light radiation sources arranged in the elongated body along the length thereof to project light radiation towards the light emitting surface , wherein the lighting device comprises: - electrically-conductive formations configured to convey electric signals with respect to the electrically-powered light radiation sources , and - at least one passageway (140; 140a) for said electrically-conductive formations through said encapsulation layer at the at least one second surface (10b; 100, 102), wherein at least part of said electrically-conductive formations pass through said at least one passageway (140; 140a), wherein said elongate body has a front, light emitting surface , a rear surface (10b; 100) opposite the light emitting surface as well as two mutually opposite, lateral surfaces extending between the light emitting surface and the rear surface (10b; 100) and an encapsulation layer at the lateral surfaces , said distribution of electrically-powered light radiation sources arranged in the elongated body along the length thereof starting from an end of the elongated body to project light radiation towards the light emitting surface , characterized by said electrically-conductive formations extending along said two mutually opposite, lateral surfaces , the electrically-conductive formations having proximal ends electrically coupled to the electrically-powered light radiation sources said proximal ends passing through respective passageways in said lateral surfaces . - electrically-conductive formations configured to convey electric signals with respect to the electrically-powered light radiation sources , and - at least one passageway (140; 140a) for said electrically-conductive formations through said encapsulation layer at the at least one second surface (10b; 100, 102), wherein at least part of said electrically-conductive formations pass through said at least one passageway (140; 140a), wherein said elongate body has a front, light emitting surface , a rear surface (10b; 100) opposite the light emitting surface as well as two mutually opposite, lateral surfaces extending between the light emitting surface and the rear surface (10b; 100) and an encapsulation layer at the lateral surfaces , said distribution of electrically-powered light radiation sources arranged in the elongated body along the length thereof starting from an end of the elongated body to project light radiation towards the light emitting surface , characterized by said electrically-conductive formations extending along said two mutually opposite, lateral surfaces , the electrically-conductive formations having proximal ends electrically coupled to the electrically-powered light radiation sources said proximal ends passing through respective passageways in said lateral surfaces .
Method for operating modulating, fuel-operated heating systems with a network connection, characterised in that a weather service sends a storm warning to a central data capturing system in the network, or in that individual heating systems, when put out without previously disconnecting the fuel supply, send first information to a central data capturing system in the network, in that the central data capturing system in the network, in the case of corresponding weather information or more information to put out a plurality of heating systems without previously disconnecting the fuel supply, sends second information to a plurality of heating systems in the network and in that heating systems in the network after receiving this second information restrict the modulation range, in that the minimum load is lifted.
A resin composition comprising an alkenyl-substituted nadimide (A), a maleimide compound (B), and an amino-modified silicone (C), wherein the content of the alkenyl-substituted nadimide (A) is 10 to 60 parts by mass, based on 100 parts by mass in total of the components (A) to (C), the content of the maleimide compound (B) is 30 to 80 parts by mass, based on 100 parts by mass in total of the components (A) to (C), and the content of the amino-modified silicone (C) is 1 to 40 parts by mass, based on 100 parts by mass in total of the components (A) to (C), wherein at least a portion of the maleimide compound (B) is comprised in the form of a prepolymer (P) obtained by polymerizing the maleimide compound (B) with the amino-modified silicone (C) and wherein the alkenyl-substituted nadimide (A) comprises a compound represented by following general formula : wherein each R 1 independently represents a hydrogen atom or an alkyl group having 1 to 6 carbon atoms, and R 2 represents an alkylene group having 1 to 6 carbon atoms, a phenylene group, a biphenylene group, a naphthylene group, or a group represented by following general formula or : wherein R 3 represents a methylene group, an isopropylidene group, or a substituent represented by CO, O, S, or SO 2 , and wherein each R 4 independently represents an alkylene group having 1 to 4 carbon atoms, or a cycloalkylene group having 5 to 8 carbon atoms.
A data generation method, applied to a terminal, comprising determining a sequence to be used from a sequence set, wherein the sequence set comprises N sequences having a length of L and comprises at least one of following characteristics: an absolute value of cross-correlation between any two sequences among the N sequences being not greater than a first preset threshold, a square sum of non-diagonal elements of a cross-correlation matrix of the N sequences being equal to a second preset threshold, the N sequences comprising sequences whose elements come from a first real number set, the N sequences comprising sequences whose elements each have a real part and an imaginary part coming from a second real number set, the N sequences comprising sequences whose elements each have an amplitude equaling to M and a phase coming from a third real number set, and the N sequences comprising sequences whose elements come from a first complex number set, wherein N and L are positive integers and M is a real number; and processing a first symbol by using the sequence to be used so as to generate a second symbol, characterized in that the first symbol comprises a symbol generated by performing encoding and modulation on data bits to be transmitted, and the data bits to be transmitted comprises identification information of the terminal and information of the sequence to be used. an absolute value of cross-correlation between any two sequences among the N sequences being not greater than a first preset threshold, a square sum of non-diagonal elements of a cross-correlation matrix of the N sequences being equal to a second preset threshold, the N sequences comprising sequences whose elements come from a first real number set, the N sequences comprising sequences whose elements each have a real part and an imaginary part coming from a second real number set, the N sequences comprising sequences whose elements each have an amplitude equaling to M and a phase coming from a third real number set, and the N sequences comprising sequences whose elements come from a first complex number set, wherein N and L are positive integers and M is a real number; and processing a first symbol by using the sequence to be used so as to generate a second symbol, characterized in that the first symbol comprises a symbol generated by performing encoding and modulation on data bits to be transmitted, and the data bits to be transmitted comprises identification information of the terminal and information of the sequence to be used.
Method for carrying out an at least partially virtualized conformity assessment on a passenger transport system , wherein the conformity assessment is carried out in accordance with a predetermined test protocol before the passenger transport system is handed over to a user, wherein the passenger transport system was designed in advance, individually for a particular purpose, having a plurality of components , wherein a digital replica dataset is created, which depicts the individually designed passenger transport system and in which physical properties of components of the passenger transport system are reproduced in a machine-processable manner, wherein, during the conformity assessment, it is tested whether the properties of the passenger transport system correspond to target specifications which define at least a correct function of the components and/or a correct cooperation of the components with one another and/or safety-relevant properties of the passenger transport system , wherein, when carrying out the conformity assessment, at least some of the properties of the passenger transport system that are to be tested during the conformity assessment and are based on physical properties of components are determined in the context of virtualized conformity assessment steps by deriving values from the digital replica dataset or by simulations based on the digital replica dataset, and indicated as virtual values in a results log. wherein the conformity assessment is carried out in accordance with a predetermined test protocol before the passenger transport system is handed over to a user, wherein the passenger transport system was designed in advance, individually for a particular purpose, having a plurality of components , wherein a digital replica dataset is created, which depicts the individually designed passenger transport system and in which physical properties of components of the passenger transport system are reproduced in a machine-processable manner, wherein, during the conformity assessment, it is tested whether the properties of the passenger transport system correspond to target specifications which define at least a correct function of the components and/or a correct cooperation of the components with one another and/or safety-relevant properties of the passenger transport system , wherein, when carrying out the conformity assessment, at least some of the properties of the passenger transport system that are to be tested during the conformity assessment and are based on physical properties of components are determined in the context of virtualized conformity assessment steps by deriving values from the digital replica dataset or by simulations based on the digital replica dataset, and indicated as virtual values in a results log.
A polypeptide comprising SEQ ID NO: 1 or SEQ ID NO: 2.
Electrical and/or electronic device consisting in a photovoltaic module, said device comprising: - at least two electrical and/or electronic components , each of said at least two electrical and/or electronic components comprising two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ), said at least two electrical and / or electronic components (2a; 2b, 2c, 2d) being photovoltaic cells, - at least one electrical contact element arranged against at least one of the two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ) of each of said at least two electrical and/or electronic components , to electrically connect them, each electrical and/or electronic component being mechanically protected by two protective elements which are specific thereto, being taken between the two protective elements , a first protective element being arranged in superposition with respect to the electrical and/or electronic component that it protects, facing one of its two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ), and a second protective element being arranged in superposition with respect to the electrical and/or electronic component that it protects, facing the other of its two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ), characterised in that at least one deformation absorption element is arranged in at least one space formed between at least one protective element and the electrical and/or electronic component that it protects, said at least one deformation absorption element comprises a gas under high pressure with a pressure of between 5 and 15 bar. - at least two electrical and/or electronic components , each of said at least two electrical and/or electronic components comprising two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ), said at least two electrical and / or electronic components (2a; 2b, 2c, 2d) being photovoltaic cells, - at least one electrical contact element arranged against at least one of the two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ) of each of said at least two electrical and/or electronic components , to electrically connect them, each electrical and/or electronic component being mechanically protected by two protective elements which are specific thereto, being taken between the two protective elements , a first protective element being arranged in superposition with respect to the electrical and/or electronic component that it protects, facing one of its two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ), and a second protective element being arranged in superposition with respect to the electrical and/or electronic component that it protects, facing the other of its two opposite faces (2a 1 , 2a 2 ; 2b 1 , 2b 2 ; 2c 1 , 2c 2 ; 2d 1 , 2d 2 ),
A method of determining in a sample the presence or absence of one or more analyte members of a group of two or more analytes, the method comprising: (a) contacting the sample with a transmembrane pore and a panel of two or more probes, wherein the probes in the panel are not coupled to the pore, wherein each probe recognises one or more of the analyte members and comprises (i) an oligonucleotide aptamer that binds to one or more of the analyte members and (ii) a tail which comprises a single stranded polynucleotide, is capable of entering the pore and has different effects on the current flowing through the pore depending on whether or not the aptamer in the probe is bound to one of the analyte members, wherein each probe affects the current flowing through the pore in a distinctive manner, and wherein each analyte member of the group of two or more analytes is recognised by at least one probe in the panel; and (b) measuring the current flowing through the pore to determine which probes in the panel, if any, have bound to an analyte member and thereby determining the presence or absence of one or more analyte members in the sample. (a) contacting the sample with a transmembrane pore and a panel of two or more probes, wherein the probes in the panel are not coupled to the pore, wherein each probe recognises one or more of the analyte members and comprises (i) an oligonucleotide aptamer that binds to one or more of the analyte members and (ii) a tail which comprises a single stranded polynucleotide, is capable of entering the pore and has different effects on the current flowing through the pore depending on whether or not the aptamer in the probe is bound to one of the analyte members, wherein each probe affects the current flowing through the pore in a distinctive manner, and wherein each analyte member of the group of two or more analytes is recognised by at least one probe in the panel; and (b) measuring the current flowing through the pore to determine which probes in the panel, if any, have bound to an analyte member and thereby determining the presence or absence of one or more analyte members in the sample.
A device adapted for producing energy by nuclear fission, the device comprising a core container of a core container material, which core container encloses an inner tubing of an inner tubing material, the inner tubing and/or the core container having an inlet and an outlet , the device further comprising a molten halide salt located in the core container or in the inner tubing , characterised in that the inner tubing comprises one or more sections consisting of single crystal corundum.
A medical device for the treatment or diagnosis of tissue within a body, the medical device being configured for indication of contact force between the device and the tissue and comprising: an elongate, tubular shaft configured to be received within the body, said shaft having a proximal portion and a distal portion configured for movement relative to the proximal portion including by movement towards and away from the proximal portion along a longitudinal axis of said shaft and by deflection from the longitudinal axis; a flexible member disposed between the proximal and distal portions of said shaft, said flexible member having a predetermined stiffness; a first electromagnetic coil disposed within said shaft ; a second electromagnetic coil disposed within said shaft and configured for movement with the distal portion of said shaft and relative to the first electromagnetic coil , said second electromagnetic coil connected in series with said first electromagnetic coil at a common node within said shaft ; and third and fourth electromagnetic coils disposed within said shaft , each of said third and fourth electromagnetic coils connected to said common node , wherein said third and fourth electromagnetic coils are connected in series with said second electromagnetic coil and the first, third and fourth electromagnetic coils are inductively or capacitively coupled. an elongate, tubular shaft configured to be received within the body, said shaft having a proximal portion and a distal portion configured for movement relative to the proximal portion including by movement towards and away from the proximal portion along a longitudinal axis of said shaft and by deflection from the longitudinal axis; a flexible member disposed between the proximal and distal portions of said shaft, said flexible member having a predetermined stiffness; a first electromagnetic coil disposed within said shaft ; a second electromagnetic coil disposed within said shaft and configured for movement with the distal portion of said shaft and relative to the first electromagnetic coil , said second electromagnetic coil connected in series with said first electromagnetic coil at a common node within said shaft ; and third and fourth electromagnetic coils disposed within said shaft , each of said third and fourth electromagnetic coils connected to said common node , wherein said third and fourth electromagnetic coils are connected in series with said second electromagnetic coil and the first, third and fourth electromagnetic coils are inductively or capacitively coupled.
A planar lighting device (2; 4; 6) for an autonomously or semi-autonomously drivable motor vehicle (V1), characterized in that the planar lighting device (2; 4; 6) comprises a common planar carrier and a plurality of at least 20x30 pixels which are arranged in a matrix on the common planar carrier , each one of the pixels comprising: a first individually controllable semiconductor light source element for providing a communication function, which is designed to emit turquoise-colored light at a wavelength in the wavelength range of between 500-520 nm or cyan-colored light at a wavelength in the wavelength range of between 470-500 nm, indicating the autonomous or semi-autonomous driving state of the motor vehicle (V1), and a second individually controllable semiconductor light source element (212; 214) for providing a lighting function, which is designed to emit red or yellow light, a lighting function being an indicator light function or a tail light and/or braking function. a first individually controllable semiconductor light source element for providing a communication function, which is designed to emit turquoise-colored light at a wavelength in the wavelength range of between 500-520 nm or cyan-colored light at a wavelength in the wavelength range of between 470-500 nm, indicating the autonomous or semi-autonomous driving state of the motor vehicle (V1), and a second individually controllable semiconductor light source element (212; 214) for providing a lighting function, which is designed to emit red or yellow light, a lighting function being an indicator light function or a tail light and/or braking function.
A fire resistant glazing for preventing fire and smoke from penetrating from one room into another in case of fire, comprising at least two glass surfaces (B, C) composed of fire protection panes and arranged next to each other, of which one comprises a glass door , whereas the other glass surface forms a lateral fixed element with respect to the glass door and the surface adjacent to the glass door on the opposite side forms a stop element , wherein the glass door is directly at least partly held in a pivoting manner at the lateral fixed element without any profile and via one or more fitting elements configured as corner bearings , wherein each fitting element is configured for fire protection purposes by means of integrated cooling elements, wherein the comer bearing comprises two flat fastening elements which are applied on both sides of the fire protection pane and are fixed to each other by means of connection elements guided through the fire protection pane , and the corner bearing comprises a bearing device which is mounted on one of the flat fastening elements , characterized in that a cooling element is provided between the fastening elements and a space is formed between the bearing device and the other fastening element , which space is almost completely filled with the cooling element.
A pearl culture material comprising at least one selected from the group consisting of a pearl nucleus and a mantle, wherein the at least one selected from the group consisting of a pearl nucleus and a mantle contains a protein having 10 EU/g or less of an endotoxin amount, wherein the protein is a polypeptide including the amino acid sequence of SEQ ID NO: 1, wherein a coating amount of the protein in a surface area of the pearl nucleus or the mantle is 20 pg/mm 2 or more. wherein the at least one selected from the group consisting of a pearl nucleus and a mantle contains a protein having 10 EU/g or less of an endotoxin amount, wherein the protein is a polypeptide including the amino acid sequence of SEQ ID NO: 1, wherein a coating amount of the protein in a surface area of the pearl nucleus or the mantle is 20 pg/mm 2 or more.