mhurhangee/patent-ind-claim-en huggingface dataset:
A method for obtaining system information, applied to a terminal side, configured to be applied in a scenario where a cell transmits a plurality of synchronization signals and has a plurality of pieces of system information and comprising: receiving a synchronization signal transmitted from a network reception and transmission node, and obtaining feature information of the synchronization signal, node information of the network reception and transmission node, and a correspondence between the feature information and a transmitting position of the system information; obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence; and receiving, at the transmitting position of the system information, the system information transmitted from the network reception and transmission node; wherein obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence comprises: obtaining a frequency domain transmitting position of the system information based on the feature information and the correspondence; wherein obtaining the frequency domain transmitting position of the system information based on the feature information and the correspondence comprises: determining the frequency domain transmitting position of the system information based on a frequency of the synchronization signal and the correspondence, or determining the frequency domain transmitting position of the system information based on a frequency domain position of the synchronization signal and the correspondence. receiving a synchronization signal transmitted from a network reception and transmission node, and obtaining feature information of the synchronization signal, node information of the network reception and transmission node, and a correspondence between the feature information and a transmitting position of the system information; obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence; and receiving, at the transmitting position of the system information, the system information transmitted from the network reception and transmission node; wherein obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence comprises: obtaining a frequency domain transmitting position of the system information based on the feature information and the correspondence; wherein obtaining the frequency domain transmitting position of the system information based on the feature information and the correspondence comprises: determining the frequency domain transmitting position of the system information based on a frequency of the synchronization signal and the correspondence, or determining the frequency domain transmitting position of the system information based on a frequency domain position of the synchronization signal and the correspondence.
A filter device for a flushing tank , wherein the flushing tank has at least one connection for raw water and at least one discharge , wherein the filter device comprises at least: - a housing with a first intake for the raw water , a second intake for flush water , a first outlet for clean water and a second outlet for the flush water ; - a valve body arranged movably in the housing between two operating positions and having a valve housing which is divided into a first chamber and a second chamber , wherein the chambers are separated from one another by a first filter for filtering the raw water into the clean water , wherein the valve housing has a first passage and a second passage in the first chamber and a third passage and a fourth passage in the second chamber ; wherein, in a normal operating position of the two operating positions, the first intake is fluidically connected to the first passage and the first outlet is fluidically connected to the third passage ; wherein, in a flushing operating position of the two operating positions, the second intake is fluidically connected to the fourth passage and the second outlet is fluidically connected to the second passage ; wherein in the normal operating position , the raw water flows through the first filter in a first direction and the flushing tank can be filled with clean water , and in the flushing operating position , the flushing water flows through the first filter in a second direction opposite to the first direction and the flushing water can be fed to the discharge of the flushing tank . - a housing with a first intake for the raw water , a second intake for flush water , a first outlet for clean water and a second outlet for the flush water ; - a valve body arranged movably in the housing between two operating positions and having a valve housing which is divided into a first chamber and a second chamber , wherein the chambers are separated from one another by a first filter for filtering the raw water into the clean water , wherein the valve housing has a first passage and a second passage in the first chamber and a third passage and a fourth passage in the second chamber ;
Control system for a motor vehicle, having a first control unit for controlling a first function of the motor vehicle and a second control unit for controlling a second function of the motor vehicle, the first and second control units each being connected in a signal-transmitting manner to at least one sensor and/or at least one actuator , and wherein the first control unit and the second control unit are connected in a signal-transmitting manner or the first and the second control units are each connected in a signal-transmitting manner to a third control unit and, depending on the input of an error signal from the first control unit or the second control unit at the respective error-free control unit (2; 4) or the third control unit , the respective fault-free control unit (2; 4) can be configured in such a way that the function of the motor vehicle corresponding to the faulty control unit (4; 2) can be controlled by means of the fault-free control unit (2; 4), wherein the fault-free control unit (2; 4) can be connected in a signal-transmitting manner to the at least one sensor and/or at least one actuator (8; 6) corresponding to the faulty control unit (4; 2), characterized in that the control system features an operating interface and can be transferred from a deactivation state to an activation state depending on the presence of an activation signal at the operating interface, wherein the fault-free control unit (2; 4) in the deactivation state does not control the function of the motor vehicle corresponding to the faulty control unit (4; 2) irrespective of the input of the error signal at the fault-free control unit (2; 4) or the third control unit and, in the activation state of the control system, controls the function of the motor vehicle corresponding to the faulty control unit (4; 2) depending on the input of the error signal at the fault-free control unit (2; 4) or the third control unit .
A three-dimensional printer for additive manufacturing of a part comprising: a composite filament supply that provides a fiber reinforced composite filament having axial fiber strands extending within a matrix material; a linear feed mechanism that advances the composite filament at a feed rate; a build platen including a build surface; a print head opposing the build platen ; a plurality of actuators that move the print head and the build platen relative to one another in three degrees of freedom, including within a printing layer at a printing rate; a filament drive that drives the composite filament into the print head to deposit the composite filament upon one of the build platen and composite filament previously deposited upon the build platen ; a composite filament ironing tip ; a heater that heats the composite filament ironing tip ; and characterized by a controller operatively connected to the heater , the filament drive and the plurality of actuators , wherein the controller executes instructions which cause the heater to heat the composite filament ironing tip to flow the matrix material among the axial fiber strands within the composite filament and cause the plurality of actuators to press the composite filament ironing tip against the composite filament and reshape the composite filament against the one of the build platen and the composite filament previously deposited upon the build platen . a composite filament supply that provides a fiber reinforced composite filament having axial fiber strands extending within a matrix material; a linear feed mechanism that advances the composite filament at a feed rate; a build platen including a build surface; a print head opposing the build platen ; a plurality of actuators that move the print head and the build platen relative to one another in three degrees of freedom, including within a printing layer at a printing rate; a filament drive that drives the composite filament into the print head to deposit the composite filament upon one of the build platen and composite filament previously deposited upon the build platen ; a composite filament ironing tip ; a heater that heats the composite filament ironing tip ; and characterized by a controller operatively connected to the heater , the filament drive and the plurality of actuators , wherein the controller executes instructions which cause the heater to heat the composite filament ironing tip to flow the matrix material among the axial fiber strands within the composite filament and cause the plurality of actuators to press the composite filament ironing tip against the composite filament and reshape the composite filament against the one of the build platen and the composite filament previously deposited upon the build platen .
A navigation device , comprising: an acquiring module configured to acquire at least a departing location, a destination location and nautical chart information of a nautical chart that is divided into nodes; and a route creating module configured, when a given navigable area is divided into a first navigable area and a second navigable area based on a given condition, to create a route based on the departing location, the destination location, and the nautical chart information, wherein the route creating module , while searching for the route, is configured to set a cost that increases as an overall passing distance through the first and second navigable areas becomes longer, and that is higher for passing through the second navigable area than for passing through the first navigable area, the route creating module is configured to create the route to have a minimum cost, and characterized in that the navigable area is divided at least into the first and second navigable areas based on a distance from land, where the first navigable area is farther away from land than a safety distance and the second navigable area is closer to land than the safety distance. an acquiring module configured to acquire at least a departing location, a destination location and nautical chart information of a nautical chart that is divided into nodes; and a route creating module configured, when a given navigable area is divided into a first navigable area and a second navigable area based on a given condition, to create a route based on the departing location, the destination location, and the nautical chart information, wherein the route creating module , while searching for the route, is configured to set a cost that increases as an overall passing distance through the first and second navigable areas becomes longer, and that is higher for passing through the second navigable area than for passing through the first navigable area, the route creating module is configured to create the route to have a minimum cost, and characterized in that the navigable area is divided at least into the first and second navigable areas based on a distance from land, where the first navigable area is farther away from land than a safety distance and the second navigable area is closer to land than the safety distance.
A die casting aluminum alloy, consisting of constituents with the following mass percentages: silicon: 4.0% to 10.0%; magnesium: 0.2% to 1.0%; copper: ≤0.1%; manganese: ≤0.1%; zinc: ≤0.1%; iron: 0.5% to 1.0%; titanium: 0.05% to 0.2%; and inevitable impurities: ≤0.15%; and the rest: aluminum. silicon: 4.0% to 10.0%; magnesium: 0.2% to 1.0%; copper: ≤0.1%; manganese: ≤0.1%; zinc: ≤0.1%; iron: 0.5% to 1.0%; titanium: 0.05% to 0.2%; and inevitable impurities: ≤0.15%; and the rest: aluminum.
An anti-resonant optical component which comprises a hollow core extending along a longitudinal axis of the component, cladding , which surrounds the hollow core and comprises a circumferential inner face facing the hollow core , and anti-resonance elements of a first type , each of which, when viewed in cross-section in the direction of the longitudinal axis of the component, is arcuate having a left arc end and a right arc end and having a bulge in the direction of the hollow core , the arc ends being connected to the cladding inner face at contact points and spanning a curved area together with the cladding inner face, characterized in that a second type of anti-resonance elements is provided, anti-resonance elements of the second type being nested with anti-resonance elements of the first type in such a way that, when viewed in cross-section in the direction of the longitudinal axis of the component, at least one anti-resonance element of the second type is arranged inside the curved area, and in that , when viewed in cross-section in the direction of the longitudinal axis of the component, each of the nested anti-resonance elements of the second type is circular or oval.
A wireless power transmission device for a vehicle, comprising: a magnetic field shielding sheet ; a wireless power transmission antenna including a first wireless power transmission antenna and a second wireless power transmission antenna which are formed as planar coils, each having a respective hollow portion and which are directly attached on one same surface of the magnetic field shielding sheet ; and a wireless communication antenna including a first communication antenna and a second communication antenna which are disposed to be coplanar with the first wireless power transmission antenna and the second wireless power transmission antenna , wherein the first wireless power transmission antenna and the second wireless power transmission antenna are disposed to be coplanar with each other, wherein the first communication antenna is disposed inside the hollow portion of the first wireless power transmission antenna and the second communication antenna is disposed inside the hollow portion of the second wireless power transmission antenna , wherein the first communication antenna and the second communication antenna are connected in series. a magnetic field shielding sheet ; a wireless power transmission antenna including a first wireless power transmission antenna and a second wireless power transmission antenna which are formed as planar coils, each having a respective hollow portion and which are directly attached on one same surface of the magnetic field shielding sheet ; and a wireless communication antenna including a first communication antenna and a second communication antenna which are disposed to be coplanar with the first wireless power transmission antenna and the second wireless power transmission antenna , wherein the first wireless power transmission antenna and the second wireless power transmission antenna are disposed to be coplanar with each other, wherein the first communication antenna is disposed inside the hollow portion of the first wireless power transmission antenna and the second communication antenna is disposed inside the hollow portion of the second wireless power transmission antenna , wherein the first communication antenna and the second communication antenna are connected in series.
MEMS or NEMS accelerometer adapted to measure an acceleration along a sensing axis (S) comprising: - a substrate featuring a plane (XY); - a mass having a central zone and suspended relative to the substrate ; - a single lever arm forming a mass force amplification structure, comprising: • a first end connected to the substrate by means of a first connection adapted to allow rotation of the lever arm about a rotation axis (R) perpendicular to the sensing axis (S), and • a second end connected to the mass by means of a second connection adapted to transmit the translation movement of the mass to the lever arm whilst allowing rotation of said lever arm about the rotation axis (R); the second end of the lever arm being disposed at the level of the central zone of the mass ; - at least one strain gauge , said gauge being connected to the lever arm , each gauge comprising: • a first end connected to the substrate , and • a second end connected to the lever arm , the second connection comprising a main coupling blade rigid along the sensing axis (S) and flexible along the rotation axis (R) of the lever arm . - a substrate featuring a plane (XY); - a mass having a central zone and suspended relative to the substrate ; - a single lever arm forming a mass force amplification structure, comprising: • a first end connected to the substrate by means of a first connection adapted to allow rotation of the lever arm about a rotation axis (R) perpendicular to the sensing axis (S), and • a second end connected to the mass by means of a second connection adapted to transmit the translation movement of the mass to the lever arm whilst allowing rotation of said lever arm about the rotation axis (R); the second end of the lever arm being disposed at the level of the central zone of the mass ; • a first end connected to the substrate by means of a first connection adapted to allow rotation of the lever arm about a rotation axis (R) perpendicular to the sensing axis (S), and • a second end connected to the mass by means of a second connection adapted to transmit the translation movement of the mass to the lever arm whilst allowing rotation of said lever arm about the rotation axis (R); - at least one strain gauge , said gauge being connected to the lever arm , each gauge comprising: • a first end connected to the substrate , and • a second end connected to the lever arm , • a first end connected to the substrate , and • a second end connected to the lever arm ,
A method for manufacturing a spark plug that includes a center electrode and a ground electrode , at least one of the center electrode and the ground electrode including an electrode base material and a columnar noble metal tip welded to the electrode base material , the method comprising a laser welding step of applying a pulse oscillation laser (LB) to form a plurality of unit fusion portions (25n1 to 25n12) on a peripheral area of a boundary between the electrode base material and the noble metal tip , and welding the electrode base material and the noble metal tip , the one unit fusion portion (25n1 to 25n12) being formed by one-time laser (LB) irradiation, characterized in that in the laser welding step, an irradiation axis (LS) of the laser is displaced from a central axis (O) of the noble metal tip in a radial direction of the noble metal tip , in that A/20 ≤ |X| ≤ A/4 is satisfied when a diameter of the noble metal tip is denoted as a diameter A and an amount of displacement of the irradiation axis (LS) of the laser (LB) is denoted as X, wherein the irradiation axis (LS) of the laser is in plane (xy) perpendicular to the central axis (O) of the noble metal tip .
A display device comprising: a pair of display modules ; a supporting member (30, 30', 30", 30''', 30'''') positioned between the pair of display modules in an X-axis direction in an XYZ rectangular coordinate system; and at least one printed circuit board, PCB, (330, 330", 330'''') coupled to the supporting member (30, 30', 30", 30''', 30'''') in a positive Y-axis direction for controlling the display modules , characterised in that the display modules are configured to be connected to opposite sides of the PCB (330, 330", 330'''') in the X-axis direction, the at least one PCB (330, 330", 330'''') comprises a pair of connection terminals or (331a", 331b") configured to be electrically connected to the display modules , and the display modules comprise connection correspondence parts disposed at the side ends adjacent to the opposite sides of the supporting member (30, 30', 30", 30''', 30'''') in an X-axis direction so as to be connected to the connection terminals or (331a", 331b"). a pair of display modules ; a supporting member (30, 30', 30", 30''', 30'''') positioned between the pair of display modules in an X-axis direction in an XYZ rectangular coordinate system; and at least one printed circuit board, PCB, (330, 330", 330'''') coupled to the supporting member (30, 30', 30", 30''', 30'''') in a positive Y-axis direction for controlling the display modules , characterised in that the display modules are configured to be connected to opposite sides of the PCB (330, 330", 330'''') in the X-axis direction, the at least one PCB (330, 330", 330'''') comprises a pair of connection terminals or (331a", 331b") configured to be electrically connected to the display modules , and the display modules comprise connection correspondence parts disposed at the side ends adjacent to the opposite sides of the supporting member (30, 30', 30", 30''', 30'''') in an X-axis direction so as to be connected to the connection terminals or (331a", 331b").
Method for controlling of a biofilm, for removing of a formed biofilm and/or for controlling a growth of microorganisms selected from bacteria, in an aqueous environment of an industrial manufacturing process comprising cellulosic fibre material, by administering to the aqueous environment of the process a composition comprising a compound according to Formula I where R1, R2 and R3 independently represent a hydrogen atom; halogen atom; hydroxy group; amino group; alkylamino group, alkyl group, hydroxyalkyl group, haloalkyl group or alkoxy group having 1 to 4 carbon atoms; or an acylamido group having 1 to 10 carbon atoms; and A represents 2-thiazolamine; 2-propenenitrile; 2-propenoic acid; alkyl ester or hydroxyalkyl ester of 2-propenoic acid having 1 to 4 carbon atoms; or - CHCHCONR5R6 group, where R5 and R6 represent independently hydrogen atom, alkyl or hydroxyalkyl having 1 to 4 carbon atoms, with the proviso that the said compound is not 3-[(4-methylphenyl)sulphonyl]-2-propenenitrile or 4-amino-N-2-thiazolyl-benzenesulphonamide. R1, R2 and R3 independently represent a hydrogen atom; halogen atom; hydroxy group; amino group; alkylamino group, alkyl group, hydroxyalkyl group, haloalkyl group or alkoxy group having 1 to 4 carbon atoms; or an acylamido group having 1 to 10 carbon atoms; and A represents 2-thiazolamine; 2-propenenitrile; 2-propenoic acid; alkyl ester or hydroxyalkyl ester of 2-propenoic acid having 1 to 4 carbon atoms; or - CHCHCONR5R6 group, where R5 and R6 represent independently hydrogen atom, alkyl or hydroxyalkyl having 1 to 4 carbon atoms, with the proviso that the said compound is not 3-[(4-methylphenyl)sulphonyl]-2-propenenitrile or 4-amino-N-2-thiazolyl-benzenesulphonamide.
Solid oral pharmaceutical composition, comprising as active ingredient a salt of atorvastatin in crystalline form, wherein the active ingredient has a particle size distribution with a D90 value of less than 100 μm and wherein the composition is directly compressed, wherein the composition additionally comprises a hydrogel former that is a hydroxypropyl methylcellulose and that has a dynamic viscosity within a range from 50 mPa·s (50 cP) to 500 mPa·s (500 cP), where D values are determined in accordance with the European Pharmacopoeia, 8th edition, Chapter 2.9.31, pages 455-460 and where the dynamic viscosity is to be determined in accordance with the European Pharmacopoeia, 8th edition, 2014 Print, pp. 35-36, Chapter 2.2.9 using a 2% mixture of the gel former in water at a temperature of 20 + 0.1°C.