mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for manufacturing a membrane electrode assembly , said apparatus forming an electrode layer on a surface of an elongated strip-shaped electrolyte membrane while transporting said electrolyte membrane , said apparatus comprising: a suction roller having an outer peripheral surface and rotating while developing a negative pressure on the outer peripheral surface thereof; a porous base material supply roller for unwinding an elongated strip-shaped porous base material therefrom toward the outer peripheral surface of said suction roller ; a porous base material collection roller for winding thereon said porous base material separated from the outer peripheral surface of said suction roller ; an electrolyte membrane supply roller for unwinding said electrolyte membrane therefrom toward a surface of the porous base material held on the outer peripheral surface of said suction roller ; an electrolyte membrane collection roller for winding thereon said electrolyte membrane separated from the surface of said porous base material ; an application part for applying an electrode material onto the surface of said electrolyte membrane around said suction roller ; and a maintenance space in which a platform is provided for cleaning of parts constituting said application part by an operator, said electrolyte membrane supply roller and said maintenance space are disposed on one side of said suction roller as seen in the horizontal direction, and said porous base material supply roller , said porous base material collection roller and said electrolyte membrane collection roller are disposed on the other side of said suction roller as seen in the horizontal direction. a suction roller having an outer peripheral surface and rotating while developing a negative pressure on the outer peripheral surface thereof; a porous base material supply roller for unwinding an elongated strip-shaped porous base material therefrom toward the outer peripheral surface of said suction roller ; a porous base material collection roller for winding thereon said porous base material separated from the outer peripheral surface of said suction roller ; an electrolyte membrane supply roller for unwinding said electrolyte membrane therefrom toward a surface of the porous base material held on the outer peripheral surface of said suction roller ; an electrolyte membrane collection roller for winding thereon said electrolyte membrane separated from the surface of said porous base material ; an application part for applying an electrode material onto the surface of said electrolyte membrane around said suction roller ; and a maintenance space in which a platform is provided for cleaning of parts constituting said application part by an operator, said electrolyte membrane supply roller and said maintenance space are disposed on one side of said suction roller as seen in the horizontal direction, and said porous base material supply roller , said porous base material collection roller and said electrolyte membrane collection roller are disposed on the other side of said suction roller as seen in the horizontal direction.
A Fourier transform spectrometer for detecting one or more wavelength components of sample radiation, the spectrometer comprising: a detector comprising a two-dimensional rectilinear array of pixels for generating signals representing an image based on collected sample radiation, the rectilinear array having the pixels arranged in rows and columns; one or more optical components arranged to form a spatial pattern based on spectral features of the sample radiation, wherein the spatial pattern is an interferogram, the spatial pattern comprising a plurality of aligned substantially parallel fringes oriented at a non-zero skew angle to the two-dimensional rectilinear array; and an analyser arranged to receive the signals and configured to: perform a spatial-to-frequency domain transform of signals representing the image, and sample in the frequency domain along a streak line at a non-zero angle corresponding to the non-zero skew angle of the two-dimensional rectilinear array to determine the one or more wavelengths; or integrate or average signals along one or more lines parallel to the direction of the aligned fringes, and perform a spatial-to-frequency domain transform to determine the one or more wavelengths; and provide an output related to the one or more wavelengths. a detector comprising a two-dimensional rectilinear array of pixels for generating signals representing an image based on collected sample radiation, the rectilinear array having the pixels arranged in rows and columns; one or more optical components arranged to form a spatial pattern based on spectral features of the sample radiation, wherein the spatial pattern is an interferogram, the spatial pattern comprising a plurality of aligned substantially parallel fringes oriented at a non-zero skew angle to the two-dimensional rectilinear array; and an analyser arranged to receive the signals and configured to: perform a spatial-to-frequency domain transform of signals representing the image, and sample in the frequency domain along a streak line at a non-zero angle corresponding to the non-zero skew angle of the two-dimensional rectilinear array to determine the one or more wavelengths; or integrate or average signals along one or more lines parallel to the direction of the aligned fringes, and perform a spatial-to-frequency domain transform to determine the one or more wavelengths; and perform a spatial-to-frequency domain transform of signals representing the image, and sample in the frequency domain along a streak line at a non-zero angle corresponding to the non-zero skew angle of the two-dimensional rectilinear array to determine the one or more wavelengths; or integrate or average signals along one or more lines parallel to the direction of the aligned fringes, and perform a spatial-to-frequency domain transform to determine the one or more wavelengths; and provide an output related to the one or more wavelengths.
A laser machining head for laser machining of a workpiece , in particular for laser cutting including flame cutting and fusion cutting, having an interface for a machining laser source for generating a machining laser beam ; and a device for shaping the machining laser beam perpendicular to its direction of propagation, wherein the device for shaping the machining laser beam has at least one through-opening for the machining laser beam, the distance (A) of which from the interface can be adjusted, wherein the device for shaping the machining laser beam has at least one screen , which provides the at least one through-opening , characterised in that the surface of the at least one screen is designed to absorb the power of the machining laser source in a proportion of at least 90%.
A polymer material, formed by polymerizing a liquid monomer mixture containing 11 to 30% by mass of a macromonomer (A) represented by the following formula (I) and 70-89% by mass of a (meth)acrylate monomer (B) with an aryl group, in the formula, four n respectively and individually representing 1 or 2, a, b, c, and d being respectively and individually integers of 4 or more, and four Z being respectively and individually substituent groups containing a (meth)acryloyl group.
Propulsion unit , particularly for an aircraft, comprising: - a turbomachine ; - a propeller that can be selectively coupled to said turbomachine ; - a rotary electrical machine that can drive at least the turbomachine , and - coupling means selectively the rotary electric machine to the propeller and/or the turbomachine , that are arranged to be able of coupling the propeller only to the rotary electrical machine during a defined operation step of the propulsion unit , in which the turbomachine consists of a free turbine turboprop, comprising a gas generator and a free turbine driven in rotation by the gas flow generated by the gas generator, characterised in that the coupling means are arranged to be able of coupling or not coupling the rotary electrical machine selectively to the gas generator and/or the free turbine. - a turbomachine ; - a propeller that can be selectively coupled to said turbomachine ; - a rotary electrical machine that can drive at least the turbomachine , and - coupling means selectively the rotary electric machine to the propeller and/or the turbomachine , that are arranged to be able of coupling the propeller only to the rotary electrical machine during a defined operation step of the propulsion unit ,
Training device for training the pelvic floor muscles and optionally other body parts of a user, comprising a compressive-force receiver , which is deformable under the impact of muscular force, with a pressure chamber in which a gel-like, liquid, or gaseous medium is provided, a base which on the one hand is supportable on a supporting surface and on the other hand serves for holding the compressive-force receiver , and at least one sensor with which the pressure of the medium in the pressure chamber is measurable, wherein the medium is in contact with the sensor , wherein the compressive-force receiver comprises an elastically deformable first receiver part and a second receiver part , which are connected form-fittingly, force-fittingly or integrally to one another; wherein the first receiver part comprises a wall system , which serves to receive the muscular force, and which delimits the pressure chamber at the top and at least partially laterally; wherein the second receiver part comprises a bottom unit which delimits the underside of the pressure chamber and which adjoins the wall system ; wherein the second receiver part has a lower elasticity than the first receiver part ; and wherein the second receiver part is connected releasably, form-fittingly, or force-fittingly, or integrally to the base . a compressive-force receiver , which is deformable under the impact of muscular force, with a pressure chamber in which a gel-like, liquid, or gaseous medium is provided, a base which on the one hand is supportable on a supporting surface and on the other hand serves for holding the compressive-force receiver , and at least one sensor with which the pressure of the medium in the pressure chamber is measurable, wherein the medium is in contact with the sensor , wherein the compressive-force receiver comprises an elastically deformable first receiver part and a second receiver part , which are connected form-fittingly, force-fittingly or integrally to one another; wherein the first receiver part comprises a wall system , which serves to receive the muscular force, and which delimits the pressure chamber at the top and at least partially laterally; wherein the second receiver part comprises a bottom unit which delimits the underside of the pressure chamber and which adjoins the wall system ; wherein the second receiver part has a lower elasticity than the first receiver part ; and wherein the second receiver part is connected releasably, form-fittingly, or force-fittingly, or integrally to the base .
A fusion polypeptide comprising: (i) a DNAX-activating protein 10 (DAP10) polypeptide comprising the sequence of SEQ ID NO: 1, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 1, or (b) is a truncated version of SEQ ID NO: 1 comprising or consisting of amino acids 19-93, 19-69, 1-71, 19-71, 19-48, 49-69, 49-93, or 70-93 of SEQ ID NO: 1; and (ii) a DNAX-activating protein 12 (DAP12) polypeptide comprising the sequence of SEQ ID NO: 9, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 9, or (b) is a truncated version of SEQ ID NO: 9 comprising or consisting of amino acids 22-113, 62-113, 22-61 or 41-61 of SEQ ID NO: 9. (i) a DNAX-activating protein 10 (DAP10) polypeptide comprising the sequence of SEQ ID NO: 1, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 1, or (b) is a truncated version of SEQ ID NO: 1 comprising or consisting of amino acids 19-93, 19-69, 1-71, 19-71, 19-48, 49-69, 49-93, or 70-93 of SEQ ID NO: 1; and (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 1, or (b) is a truncated version of SEQ ID NO: 1 comprising or consisting of amino acids 19-93, 19-69, 1-71, 19-71, 19-48, 49-69, 49-93, or 70-93 of SEQ ID NO: 1; and (ii) a DNAX-activating protein 12 (DAP12) polypeptide comprising the sequence of SEQ ID NO: 9, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 9, or (b) is a truncated version of SEQ ID NO: 9 comprising or consisting of amino acids 22-113, 62-113, 22-61 or 41-61 of SEQ ID NO: 9. (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 9, or (b) is a truncated version of SEQ ID NO: 9 comprising or consisting of amino acids 22-113, 62-113, 22-61 or 41-61 of SEQ ID NO: 9.
A method for designing a nucleic acid sequence encoding a sequence specific transcription activator-like (TAL) effector-endonuclease polypeptide capable of cleaving DNA at a specific location, said method comprising: (a) identifying a first unique endogenous chromosomal nucleotide sequence adjacent to a second nucleotide sequence at which it is desired to introduce a double-stranded cut; and (b) designing a nucleic acid sequence encoding a sequence specific TAL effector endonuclease polypeptide sequence comprising (i) a plurality of DNA binding repeat domains that, in combination, bind to the first unique endogenous chromosomal nucleotide sequence, and (ii) an endonuclease that generates a double-stranded cut at the second nucleotide sequence. (a) identifying a first unique endogenous chromosomal nucleotide sequence adjacent to a second nucleotide sequence at which it is desired to introduce a double-stranded cut; and (b) designing a nucleic acid sequence encoding a sequence specific TAL effector endonuclease polypeptide sequence comprising (i) a plurality of DNA binding repeat domains that, in combination, bind to the first unique endogenous chromosomal nucleotide sequence, and (ii) an endonuclease that generates a double-stranded cut at the second nucleotide sequence.
A battery pack , comprising: one or more battery modules (100.1, 100.2), each including a plurality of secondary battery cells ; a housing for accommodation of the one or more battery modules (100.1, 100.2), the housing including an exterior wall and one or more inner walls ; and a wiring for interconnecting the battery modules (100.1, 100.2) among each other and/or with one or more busbars, wherein the walls of the housing include at least one through-hole where the wiring is passing through, characterized in that a connector is placed within the through-hole , the connector including an electrically conducting body and a jacket (74, 74.1, 74.2) made of an electrically insulating material and surrounding an outer surface of the conducting body, the conducting body being connectable with the wiring from both sides of the wall , and wherein an outer surface of the jacket (74, 74.1, 74.2) includes wall plug elements including split-ribs which are slope-aligned contrary to the insert direction of the connector. one or more battery modules (100.1, 100.2), each including a plurality of secondary battery cells ; a housing for accommodation of the one or more battery modules (100.1, 100.2), the housing including an exterior wall and one or more inner walls ; and a wiring for interconnecting the battery modules (100.1, 100.2) among each other and/or with one or more busbars, wherein the walls of the housing include at least one through-hole where the wiring is passing through, characterized in that a connector is placed within the through-hole , the connector including an electrically conducting body and a jacket (74, 74.1, 74.2) made of an electrically insulating material and surrounding an outer surface of the conducting body, the conducting body being connectable with the wiring from both sides of the wall , and wherein an outer surface of the jacket (74, 74.1, 74.2) includes wall plug elements including split-ribs which are slope-aligned contrary to the insert direction of the connector.
Cartridge for receiving an intraocular lens for an injector for introducing the intraocular lens into an eye, having two cartridge parts that are pivotable relative to one another about a longitudinal axis (A) of the cartridge , wherein one cartridge part has a channel-like base element and a plate-like wing adjoining the latter, wherein said cartridge part is connected in an articulated manner to a cover , and a further cartridge part has a channel-like base element and a plate-like wing adjoining the latter, and, in the closed state of the cartridge , at least a part of a receiving chamber for the intraocular lens is formed by the two base elements , and having a lubricant feed device with which a lubricant for the intraocular lens is feedable into the receiving chamber , wherein the cover is provided for covering the receiving chamber , and a filling hole of the lubricant feed device is formed in the cover , characterized in that a nozzle (21; 211; 212) protrudes on an outer side of the cover that faces away from the receiving chamber , the nozzle having an inlet which opens into the filling hole , and a channel-like feed duct of the lubricant feed device is formed in the wing of the further cartridge part or in the cover , said channel-like feed duct opening into the receiving chamber and, in the closed state of the cartridge , interacting with the filling hole for conducting lubricant from the filling hole to the receiving chamber .
A downhole tool assembly for use in a wellbore, the assembly for carrying a carried tool thereon and selectively releasing the tool assembly from the carried tool at a downhole location, the assembly comprising: a tool string extending from an upper end of the tool assembly; a tool mandrel extending longitudinally through the tool assembly; an upper mechanically operated assembly mounted on the mandrel for relative longitudinal and rotational movement with respect to the mandrel; and a lower mechanically operated assembly mounted on the mandrel for relative longitudinal or rotational movement with respect to the mandrel, the lower mechanically operated assembly positioned below the upper mechanically operated assembly and capable of performing a task downhole, which assembly is configured to place weight-down on, and to rotate, the tool string, when actuating the lower mechanically operated tool assembly by manipulation of the tool string, and to place further weight-down, when actuating the upper mechanically operated tool assembly by further manipulation of the tool string. a tool string extending from an upper end of the tool assembly; a tool mandrel extending longitudinally through the tool assembly; an upper mechanically operated assembly mounted on the mandrel for relative longitudinal and rotational movement with respect to the mandrel; and a lower mechanically operated assembly mounted on the mandrel for relative longitudinal or rotational movement with respect to the mandrel, the lower mechanically operated assembly positioned below the upper mechanically operated assembly and capable of performing a task downhole, which assembly is configured to place weight-down on, and to rotate, the tool string, when actuating the lower mechanically operated tool assembly by manipulation of the tool string, and to place further weight-down, when actuating the upper mechanically operated tool assembly by further manipulation of the tool string.
A method of uplink interference congestion control in an interference suppression capable receiving node associated with a plurality of users in a wireless communication system, comprising the steps of: applying interference suppression (S10) to received signals in said node, to provide interference suppressed received signals; estimating (S20) a rise over thermal value for said uplink, based on said interference suppressed received signals, wherein estimating the rise over thermal value comprises estimating a respective rise over thermal value for each of said plurality of users on said uplink; selecting (S25) a highest rise over thermal value of said respective estimated rise over thermal values to represent the rise over thermal value for said uplink, determining (S30) a load measure for the uplink based on said selected rise over thermal value, controlling (S40) interference congestion on said uplink based on said determined load measure. applying interference suppression (S10) to received signals in said node, to provide interference suppressed received signals; estimating (S20) a rise over thermal value for said uplink, based on said interference suppressed received signals, wherein estimating the rise over thermal value comprises estimating a respective rise over thermal value for each of said plurality of users on said uplink; selecting (S25) a highest rise over thermal value of said respective estimated rise over thermal values to represent the rise over thermal value for said uplink, determining (S30) a load measure for the uplink based on said selected rise over thermal value, controlling (S40) interference congestion on said uplink based on said determined load measure.