mhurhangee/patent-ind-claim-en huggingface dataset:
A pressure detection device comprising: a pressure detection unit configured to detect a pressure transmitted to a pressure detection surface ; a flow passage unit in which a flow passage and a pressure transmitting surface are formed, a fluid being made to flow through the flow passage along a flow direction (X) from an inflow port to an outflow port , the pressure transmitting surface being configured to transmit a pressure of the fluid flowing through the flow passage to the pressure detection surface ; and a mounting mechanism configured to allow the flow passage unit to be detachably mounted on the pressure detection unit , wherein the pressure detection unit includes a detection part configured to detect that the flow passage unit is mounted on the pressure detection unit in a state where the pressure detection surface and the pressure transmitting surface are in contact with each other, characterized in that the pressure detection unit includes a pair of guide parts having groove portions configured to guide a portion of the flow passage on an inflow port side and a portion of the flow passage on an outflow port side to a predetermined mounting position in mounting the flow passage unit on the pressure detection unit , and the detection part is disposed on at least either one of the pair of guide parts , and the detection part detects that the flow passage unit is mounted on the pressure detection unit with the detection of the flow passage guided to the predetermined mounting position. a pressure detection unit configured to detect a pressure transmitted to a pressure detection surface ; a flow passage unit in which a flow passage and a pressure transmitting surface are formed, a fluid being made to flow through the flow passage along a flow direction (X) from an inflow port to an outflow port , the pressure transmitting surface being configured to transmit a pressure of the fluid flowing through the flow passage to the pressure detection surface ; and a mounting mechanism configured to allow the flow passage unit to be detachably mounted on the pressure detection unit , wherein the pressure detection unit includes a detection part configured to detect that the flow passage unit is mounted on the pressure detection unit in a state where the pressure detection surface and the pressure transmitting surface are in contact with each other, characterized in that the pressure detection unit includes a pair of guide parts having groove portions configured to guide a portion of the flow passage on an inflow port side and a portion of the flow passage on an outflow port side to a predetermined mounting position in mounting the flow passage unit on the pressure detection unit , and the detection part is disposed on at least either one of the pair of guide parts , and the detection part detects that the flow passage unit is mounted on the pressure detection unit with the detection of the flow passage guided to the predetermined mounting position.
Storage device for mobile provision of data at a technical installation, comprising: a first connector for mechanical connection to a complementary mating connector , a second connector adjoining the first connector , and a housing enclosing the first and second connectors , wherein the second connector is configured to releasably receive a storage medium in a receptacle and to contact power and data connections of the storage medium when the storage medium is in the receptacle , wherein the first connector is coupled to the second connector and, as a result of the coupling, the power and data connections of the storage medium can be contacted via the first connector , and wherein the first connector is a round plug connector with a connecting element having a circular cross-section or a heavy-duty connector realising a specific connection for a technical installation, characterized in that the first connector and the second connector are immovable relative to each other and together as a unit are rotatably mounted in the housing relative thereto. a first connector for mechanical connection to a complementary mating connector , a second connector adjoining the first connector , and a housing enclosing the first and second connectors , wherein the second connector is configured to releasably receive a storage medium in a receptacle and to contact power and data connections of the storage medium when the storage medium is in the receptacle , wherein the first connector is coupled to the second connector and, as a result of the coupling, the power and data connections of the storage medium can be contacted via the first connector , and wherein the first connector is a round plug connector with a connecting element having a circular cross-section or a heavy-duty connector realising a specific connection for a technical installation, characterized in that the first connector and the second connector are immovable relative to each other and together as a unit are rotatably mounted in the housing relative thereto.
A smoking article comprising a tobacco rod and a filter z connected to the tobacco rod , the filter comprising a flow restrictor ; the smoking article further comprising a ventilation zone at a location along the filter downstream of the flow restrictor ; wherein the tobacco rod is circumscribed by a wrapper having an air permeability of less than 20 Coresta units; and wherein a diameter of the tobacco rod is from 7 mm to 8 mm, a tobacco packing density within the tobacco rod is from 180 mg/cubic centimetre to 280 mg/cubic centimetre, and a length of the tobacco rod is from 15 mm to 45 mm. wherein the tobacco rod is circumscribed by a wrapper having an air permeability of less than 20 Coresta units; and wherein a diameter of the tobacco rod is from 7 mm to 8 mm, a tobacco packing density within the tobacco rod is from 180 mg/cubic centimetre to 280 mg/cubic centimetre, and a length of the tobacco rod is from 15 mm to 45 mm.
A pharmaceutical composition for use in preventing or treating bacterial infectious diseases comprising a protein having killing activity to pathogenic bacteria, wherein the protein comprises an amino acid sequence represented by SEQ ID NO: 1 as an active ingredient, and the pathogenic bacteria are a gram-negative bacteria selected from the group consisting of Acinetobacter baumannii, Escherichia coli, Pseudomonas aeruginosa, Salmonella enteritidis and Salmonella typhimurium.
A device , comprising at least one layer of an active material having a first optical thickness, the active material being selected so as to experience a change (i) of at least one size dimension, (ii) of the resistance, (iii) of the refractive index or (iv) combinations of two or more of the foregoing, when the active material is subjected to a change in environment, wherein at least one and preferably all of the at least one layer of the active material is composed of at least two nanosheets of the active material, with the at least two nanosheets randomly overlapping one another, characterised in that the active material of at least one and preferably of all of the at least one layers has the general formula: H a (M1) x (M2) y O z •nH 2 O, where M1 is selected from the group comprising group 2 elements, group 4 elements, group 5 elements, group 14 elements, group 15 elements, rare earth elements, as well as Mn, Fe, Co, Ni, Zn, Cd and all solid solution and substitution compounds of these elements; M2 is selected from the group of elements comprising group 15 elements, group 5 elements and all solid solutions of these elements, with M2 being different from M1; where a = 0 - 10; x = 0 - 10; y = 0 - 10; z = 1 - 30; and n= 0 - 50, wherein when x = 0, y is not equal to 0, and when y = 0, x is not equal to 0.
Composition comprising A) a carboxy-containing aromatic polycarbonate and/or aromatic polyester carbonate, wherein the polycarbonate has an acid number in the range from 0.5 to 10 mg potassium hydroxide/g, determined in dichloromethane/ethanol as solvent by potentiometric titration according to DIN EN ISO 2114, method A, version 2002-06, with ethanolic potassium hydroxide solution at room temperature, and a weight-average molecular weight M w , determined by gel permeation chromatography at room temperature in dichloromethane as solvent using a BPA polycarbonate standard, in the range from 10 000 to 40 000 g/mol and B) a polymethyl methacrylate copolymer containing structural units derived from glycidyl methacrylate, wherein the copolymer has an epoxy equivalent, determined in dichloromethane as solvent at room temperature according to DIN EN 1877-1, version 2000-12, of 0.05% to 3% by weight and a weight-average molecular weight M w , determined by gel permeation chromatography at room temperature in tetrahydrofuran as solvent using a polystyrene standard, of 20 000 to 200 000 g/mol, wherein the weight ratio of components A to component B is in the range from 95:5 to 35:65. A) a carboxy-containing aromatic polycarbonate and/or aromatic polyester carbonate, wherein the polycarbonate has an acid number in the range from 0.5 to 10 mg potassium hydroxide/g, determined in dichloromethane/ethanol as solvent by potentiometric titration according to DIN EN ISO 2114, method A, version 2002-06, with ethanolic potassium hydroxide solution at room temperature, and a weight-average molecular weight M w , determined by gel permeation chromatography at room temperature in dichloromethane as solvent using a BPA polycarbonate standard, in the range from 10 000 to 40 000 g/mol and B) a polymethyl methacrylate copolymer containing structural units derived from glycidyl methacrylate, wherein the copolymer has an epoxy equivalent, determined in dichloromethane as solvent at room temperature according to DIN EN 1877-1, version 2000-12, of 0.05% to 3% by weight and a weight-average molecular weight M w , determined by gel permeation chromatography at room temperature in tetrahydrofuran as solvent using a polystyrene standard, of 20 000 to 200 000 g/mol,
A method for producing synthetic hectorite, the method comprising the steps of: 1) preparing a precursor solution mixture comprising a lithium (Li) precursor, a fluorine (F) precursor, and a magnesium (Mg) precursor; 2) adding a basic catalyst into the precursor solution mixture and forming Li-Mg precipitates; and 3) adding a silica (Si) precursor into the Li-Mg precipitates and performing a crystallization reaction, wherein a molar ratio of the lithium precursor and the fluorine precursor is 1:1 to 1:10, wherein the crystallization reaction of step 3) is carried out at a temperature of 70°C to 110°C and under a pressure of 1 bar to 1.21 bar for 10 hours to 40 hours. 1) preparing a precursor solution mixture comprising a lithium (Li) precursor, a fluorine (F) precursor, and a magnesium (Mg) precursor; 2) adding a basic catalyst into the precursor solution mixture and forming Li-Mg precipitates; and 3) adding a silica (Si) precursor into the Li-Mg precipitates and performing a crystallization reaction,
3D-Integrated optical sensor, comprising: - a semiconductor substrate having a main surface , - an integrated circuit comprising at least one light sensitive area , the integrated circuit being arranged in the substrate at or near the main surface , - a wiring for providing electrical connection to the integrated circuit , the wiring being arranged on or in the semiconductor substrate and being connected to the integrated circuit , - a filter layer arranged on the integrated circuit , wherein the filter layer at least covers the light sensitive area , and wherein the filter layer comprises an interference filter and/or a plasmonic filter, - a transparent spacer layer arranged on the main surface and at least partly enclosing the filter layer , wherein the transparent spacer layer is arranged directly on the filter layer , and - an on-chip diffuser arranged directly on the transparent spacer layer and on the filter layer , characterized in that a spacer thickness is arranged to limit a spectral shift of the filter layer such that the spectral shift is constant or within ± 5nm under angles of incidence from an interval smaller than ±30°, wherein a central wavelength of the filter layer is defined with respect to normal incidence and is spectrally shifted when the angle of incidence of light striking the filter layer increases. - a semiconductor substrate having a main surface , - an integrated circuit comprising at least one light sensitive area , the integrated circuit being arranged in the substrate at or near the main surface , - a wiring for providing electrical connection to the integrated circuit , the wiring being arranged on or in the semiconductor substrate and being connected to the integrated circuit , - a filter layer arranged on the integrated circuit , wherein the filter layer at least covers the light sensitive area , and wherein the filter layer comprises an interference filter and/or a plasmonic filter, - a transparent spacer layer arranged on the main surface and at least partly enclosing the filter layer , wherein the transparent spacer layer is arranged directly on the filter layer , and - an on-chip diffuser arranged directly on the transparent spacer layer and on the filter layer , characterized in that
A semiconductor device , comprising: a semiconductor body having a first surface , a second surface opposing the first surface and side faces , an active area , wherein the active area comprises a plurality of active transistor cells , each active transistor cell comprising a columnar trench comprising a field plate and a mesa , and an edge termination region laterally surrounding the active area , wherein the edge termination region comprises a plurality of inactive cells , each inactive cell comprising a columnar termination trench comprising a field plate and a termination mesa comprising a drift region of a first conductivity type, wherein the edge termination region comprises a transition region laterally surrounding the active region and an outer termination region laterally surrounding the transition region, both the transition region and the outer termination region comprising one or more termination mesas , , wherein in the transition region the one or more termination mesas comprise a body region of the second conductivity type arranged on the drift region and in the outer termination region the drift region of the one or more termination mesas extends to the first surface , wherein the edge termination region comprises a buried doped region of the second conductivity type that has a lateral extent such that it is positioned in the transition region and in the outer termination region . a semiconductor body having a first surface , a second surface opposing the first surface and side faces , an active area , wherein the active area comprises a plurality of active transistor cells , each active transistor cell comprising a columnar trench comprising a field plate and a mesa , and an edge termination region laterally surrounding the active area , an active area , wherein the active area comprises a plurality of active transistor cells , each active transistor cell comprising a columnar trench comprising a field plate and a mesa , and an edge termination region laterally surrounding the active area , wherein the edge termination region comprises a plurality of inactive cells , each inactive cell comprising a columnar termination trench comprising a field plate and a termination mesa comprising a drift region of a first conductivity type, wherein the edge termination region comprises a transition region laterally surrounding the active region and an outer termination region laterally surrounding the transition region, both the transition region and the outer termination region comprising one or more termination mesas , , wherein in the transition region the one or more termination mesas comprise a body region of the second conductivity type arranged on the drift region and in the outer termination region the drift region of the one or more termination mesas extends to the first surface , wherein the edge termination region comprises a buried doped region of the second conductivity type that has a lateral extent such that it is positioned in the transition region and in the outer termination region .
An isolated FcRn-antagonist consisting of a variant Fc region for use in a method of treating an autoimmune disease in a subject, the method comprising administering to the subject an effective amount of the isolated FcRn-antagonist consisting of the variant Fc region wherein the amino acid sequence of the Fc domains of the variant Fc region consists of the amino acid sequence set forth in SEQ ID NO:1, 2, or 3, wherein the FcRn-antagonist is administered intravenously, wherein the FcRn-antagonist is administered to the subject in a dose of between 2 and 200 mg/kg, and wherein the FcRn-antagonist is administered to the subject at a frequency of once every 7 days.
An electric device comprising: a plurality of conductive elements positioned within a housing of the electric device, wherein the plurality of conductive elements are arranged such that in an event of an electric arc occurring between the plurality of conductive elements an electromagnetic force is exerted upon plasma of the electric arc such that the electric arc is directed towards a wall of the housing , and a plurality of sacrificial electrodes positioned within the housing , and in proximity to the wall , characterized in that the conductive elements form loops , the loops arranged in proximity to the sacrificial electrodes . a plurality of conductive elements positioned within a housing of the electric device, wherein the plurality of conductive elements are arranged such that in an event of an electric arc occurring between the plurality of conductive elements an electromagnetic force is exerted upon plasma of the electric arc such that the electric arc is directed towards a wall of the housing , and a plurality of sacrificial electrodes positioned within the housing , and in proximity to the wall , characterized in that the conductive elements form loops , the loops arranged in proximity to the sacrificial electrodes .
Coater for a 3D printer, comprising: an elongated container having two opposing, long sidewalls between which an internal cavity for receiving particulate material is formed, which opens into an output slot for outputting the particulate material from the container onto a construction field, a first adjusting device configured to move the two side walls relative to each other at least in a respective lower portion thereof adjoining the output slot to thereby variably adjust the width of the output slot , characterized in that the first adjusting device is configured to selectively move the two long side walls relative to each other at least in a respective lower portion thereof adjoining the output slot such that the width of the output slot varies in a longitudinal direction of the slot, for example with a difference/variance of up to at least 1 mm, for example up to at least 1.5 mm, for example up to at least 2 mm. an elongated container having two opposing, long sidewalls between which an internal cavity for receiving particulate material is formed, which opens into an output slot for outputting the particulate material from the container onto a construction field, a first adjusting device configured to move the two side walls relative to each other at least in a respective lower portion thereof adjoining the output slot to thereby variably adjust the width of the output slot , characterized in that the first adjusting device is configured to selectively move the two long side walls relative to each other at least in a respective lower portion thereof adjoining the output slot such that the width of the output slot varies in a longitudinal direction of the slot, for example with a difference/variance of up to at least 1 mm, for example up to at least 1.5 mm, for example up to at least 2 mm.
Optical sensor arrangement , comprising - a first to a fourth light sensor (35 - 38), sensitive in four respective directions noted N, S, W, E, for providing a first to a fourth sensor signal (S1, S2, S3, S4), and - an evaluation circuit that comprises an input coupled to the first to the fourth light sensor (35 - 38) and is designed to generate an entry vector (ENV) indicating the position of an object relative to the first to the fourth light sensor (35 - 38) at the start of a gesture and an exit vector (EXV) indicating the position of the object relative to the first to the fourth light sensor (35 - 38) at the end of the gesture, characterized in that the first coordinate of said vectors is a north to south strength (NSs) and the second coordinate of said vectors is an east to west strength (EWs), wherein the north to south strength (NSs) and the east to west strength (EWs) are calculated according to the following equations: NSs = N − S / N + S and EWs = E − W / E + W or are calculated according to the following equations: NSs = 2 •(N - S) / (N + S + E + W) and EWs = 2 • (E - W) / (N + S + E + W), whereby N, S, W and E correspond to the first to fourth sensor signal (S1, S2, S3, S4). - a first to a fourth light sensor (35 - 38), sensitive in four respective directions noted N, S, W, E, for providing a first to a fourth sensor signal (S1, S2, S3, S4), and - an evaluation circuit that comprises an input coupled to the first to the fourth light sensor (35 - 38) and is designed to generate an entry vector (ENV) indicating the position of an object relative to the first to the fourth light sensor (35 - 38) at the start of a gesture and an exit vector (EXV) indicating the position of the object relative to the first to the fourth light sensor (35 - 38) at the end of the gesture, characterized in that the first coordinate of said vectors is a north to south strength (NSs) and the second coordinate of said vectors is an east to west strength (EWs), wherein the north to south strength (NSs) and the east to west strength (EWs) are calculated according to the following equations: NSs = N − S / N + S and EWs = E − W / E + W or are calculated according to the following equations: NSs = 2 •(N - S) / (N + S + E + W) and EWs = 2 • (E - W) / (N + S + E + W), whereby N, S, W and E correspond to the first to fourth sensor signal (S1, S2, S3, S4). NSs = 2 •(N - S) / (N + S + E + W) and EWs = 2 • (E - W) / (N + S + E + W),
System for non-destructive testing of a three-dimensional object which has at least one freely accessible surface with an unmanned aerial vehicle, abbreviated to UAV, which has been made capable of hovering flight, on which an inspection unit comprising at least one non-destructive inspection sensor, abbreviated to ZFPS, generates test sensor signals which originate at least from regions of the object that lie below the surface , wherein a contact apparatus is arranged on the UAV, by means of which a releasable contact in the form of a positive locking, friction locking and/or non-positive locking connection can be created between the UAV and the surface of the object , via which the UAV couples in spatially fixed manner to the object , that a support structure connecting the at least one ZFPS to the UAV is provided, which actively or passively positions the at least one ZFPS in the state of a spatially fixed coupling of the UAV in a predeterminable position relative to the surface , characterized in that the coupling allows no relative movement between the UAV and the object that is to be examined, that an optical marking unit is arranged separately from the UAV in such manner that the optical marking unit causes a pattern to appear on the surface of the object with sufficiently high contrast for purposes of detection, and that a detector for spatially resolved pattern recognition and at least a part of the flight control system are fitted on the UAV to enable autonomous navigation of the UAV to a specified position relative to the detectable pattern.