mhurhangee/patent-ind-claim-en huggingface dataset:
Light device for a motor vehicle, said light device comprising: - at least one light source ; - at least one electronic component for driving the electrical power supply of said at least one light source ; - a support plate comprising a rigid substrate with: - a primary tongue on which said at least one light source is disposed; - a secondary tongue on which said at least one electronic driving component is disposed, said secondary tongue being different from said primary tongue , said substrate having a curvature (A), said primary tongue and said secondary tongue having a cutting line which starts and ends with a base , the base forming the junction between a primary tongue or secondary tongue and the rigid substrate , the surface of the primary tongue and secondary tongue being tangential to the surface of the rigid substrate at the point of the base . - at least one light source ; - at least one electronic component for driving the electrical power supply of said at least one light source ; - a support plate comprising a rigid substrate with: - a primary tongue on which said at least one light source is disposed; - a secondary tongue on which said at least one electronic driving component is disposed, said secondary tongue being different from said primary tongue , said substrate having a curvature (A), said primary tongue and said secondary tongue having a cutting line which starts and ends with a base , the base forming the junction between a primary tongue or secondary tongue and the rigid substrate , the surface of the primary tongue and secondary tongue being tangential to the surface of the rigid substrate at the point of the base . - a primary tongue on which said at least one light source is disposed; - a secondary tongue on which said at least one electronic driving component is disposed, said secondary tongue being different from said primary tongue , said substrate having a curvature (A), said primary tongue and said secondary tongue having a cutting line which starts and ends with a base , the base forming the junction between a primary tongue or secondary tongue and the rigid substrate , the surface of the primary tongue and secondary tongue being tangential to the surface of the rigid substrate at the point of the base .
A single-cylinder or in-line multi-cylinder engine comprising: a crankshaft ; a piston connected to the crankshaft ; a cylinder body in which a cylinder housing the piston is formed; a cylinder head mounted on an end of the cylinder body ; and a gear change mechanism located to the rear of the crankshaft ; wherein an axis of the cylinder extends upward obliquely to the rear from a crankshaft side, characterized in that the axis of the cylinder passes in front of an axis of the crankshaft when viewed from a direction in which the crankshaft extends. a crankshaft ; a piston connected to the crankshaft ; a cylinder body in which a cylinder housing the piston is formed; a cylinder head mounted on an end of the cylinder body ; and a gear change mechanism located to the rear of the crankshaft ; wherein an axis of the cylinder extends upward obliquely to the rear from a crankshaft side, characterized in that the axis of the cylinder passes in front of an axis of the crankshaft when viewed from a direction in which the crankshaft extends.
A device for communicating over a DC power line cable having at least two conductors , comprising: a first inductor having two secondary windings and one primary winding; and a first transceiver coupled to the primary winding of the first inductor; wherein the two secondary windings of the first inductor are coupled on a first end to two of the at least two conductors of the DC power line cable and on a second end to a DC power supply; wherein the second end of one of the two secondary windings of the first inductor is coupled to a DC voltage supply and the second end of the other of the two secondary windings is coupled to a DC power supply return to provide power to the DC power line cable; characterized in that the primary and secondary windings of the first inductor are magnetically coupled to enable magnetically coupled communication between the first transceiver and the two of the at least two conductors in the DC power line cable; and that the first inductor comprises two series-connected primary windings instead of one primary winding, the first transceiver being coupled to the two series-connected primary windings. a first inductor having two secondary windings and one primary winding; and a first transceiver coupled to the primary winding of the first inductor; wherein the two secondary windings of the first inductor are coupled on a first end to two of the at least two conductors of the DC power line cable and on a second end to a DC power supply; wherein the second end of one of the two secondary windings of the first inductor is coupled to a DC voltage supply and the second end of the other of the two secondary windings is coupled to a DC power supply return to provide power to the DC power line cable; characterized in that the primary and secondary windings of the first inductor are magnetically coupled to enable magnetically coupled communication between the first transceiver and the two of the at least two conductors in the DC power line cable; and that the first inductor comprises two series-connected primary windings instead of one primary winding, the first transceiver being coupled to the two series-connected primary windings.
Hot-rolled steel having a yield strength Rp 0.2 of at least 1100 MPa along and transverse to a rolling direction and a tensile strength of at least 1120 MPa and up to 1450 MPa along and transverse to a rolling direction, characterized in that: it has an A%-elongation of at least 8% along and/or transverse to the rolling direction, an impact toughness of at least 34 J/cm 2 when a Charpy V notched specimen having a thickness of 5-10 mm is measured at -40°C longitudinally to the rolling direction, a minimum bending radius of 5.0 x thickness longitudinally and/or transverse to the rolling direction, and a chemical composition containing in mass-%: • C 0.10 - 0.2 • Si 0 - 0.7 • Mn 1.3 - 2.2 • Nb 0 - 0.06 • Ti 0 - 0.15 • V more than 0.03 and ≤ 0.25 • Al 0.01 - 0.15 • B 0.0005 - 0.010 • Cr 0.1 - 1.7 • Mo 0.15 - 0.8 • Cu 0 - 1.5 • Ni 0.3 - 2.5 • P 0 - 0.015 • S 0 -0.008 • Zr 0 - 0.2 • Ca 0 - 0.004 • N 0-0.01 • balance Fe and unavoidable impurities, whereby: a) when 0.10 < C < 0.11 then Mn ≥ 1.60 and V > 0.14 and Mo ≥ 0.5 b) when 0.11 ≤ C < 0.125 then Mn ≥ 1.45 and V ≥ 0.13 and Mo ≥ 0.35 c) when 0.125 ≤ C < 0.15, then Mn ≥ 1.35 and V ≥ 0.12 and Mo ≥ 0.20, and d) when C ≥ 0.15 and V > 0.11, then Mn ≥ 1.3 and Mo ≥ 0.15 or when C ≥ 0.15 and V 0.03 - 0.11, then Mn > 1.3 and Mo > 0.15 and Nb > 0.02 and Cr+Cu+Ni >1.4. • C 0.10 - 0.2 • Si 0 - 0.7 • Mn 1.3 - 2.2 • Nb 0 - 0.06 • Ti 0 - 0.15 • V more than 0.03 and ≤ 0.25 • Al 0.01 - 0.15 • B 0.0005 - 0.010 • Cr 0.1 - 1.7 • Mo 0.15 - 0.8 • Cu 0 - 1.5 • Ni 0.3 - 2.5 • P 0 - 0.015 • S 0 -0.008 • Zr 0 - 0.2 • Ca 0 - 0.004 • N 0-0.01 • balance Fe and unavoidable impurities, a) when 0.10 < C < 0.11 then Mn ≥ 1.60 and V > 0.14 and Mo ≥ 0.5 b) when 0.11 ≤ C < 0.125 then Mn ≥ 1.45 and V ≥ 0.13 and Mo ≥ 0.35 c) when 0.125 ≤ C < 0.15, then Mn ≥ 1.35 and V ≥ 0.12 and Mo ≥ 0.20, and d) when C ≥ 0.15 and V > 0.11, then Mn ≥ 1.3 and Mo ≥ 0.15 or
Ultrasonic transducer comprising a diaphragm pot which is connected to a housing by means of a ring-shaped fastening element which radially surrounds the diaphragm pot indirectly at its outer diameter in relation to a longitudinal axis of the diaphragm pot , wherein the fastening element for form-fitting and/or forcefitting connection to the housing is at least partially arranged radially within a receiving region for the fastening element in the housing , characterized in that in each case at least one centring means is formed on the fastening element and the housing , wherein the centring means cooperate and position the fastening element relative to the housing in a defined rotational angle position. the fastening element for form-fitting and/or forcefitting connection to the housing is at least partially arranged radially within a receiving region for the fastening element in the housing , characterized in that in each case at least one centring means is formed on the fastening element and the housing , wherein the centring means cooperate and position the fastening element relative to the housing in a defined rotational angle position.
A mouthpiece for a bottle with a rotary crown cap closure, wherein the mouthpiece comprises: a mouthpiece body having an end pouring opening ; a closure thread for cooperation with a rotary crown cap for liquid-tight closure of the pouring opening , which is formed in the form of a plurality of thread projections which run around the mouthpiece body and project externally with respect to the mouthpiece body , partially circumferentially with a predeterminable thread pitch; wherein the mouthpiece further comprises a discontinuity which is arranged between the pouring opening and the closure thread , runs circumferentially around the mouthpiece body and which, during the manufacture of the mouthpiece as a result of the tool, arises at a transition between two muzzle jaws on the one hand and a guide disc on the other hand, in that the two muzzle jaws and the guide disc are designed in such a way, in that, in the assembled state of the two muzzle jaws and the guide disc , a transition is formed in such a way that, at the transition between the two muzzle jaws on the one hand and the guide disc on the other hand, the discontinuity circumferentially surrounding the mouthpiece body can be formed by feeding flowable mouthpiece raw material; characterized in that an outer end of the discontinuity forms an inwardly offset outer edge of the discontinuity and is correspondingly offset inwardly from an outer surface between axially adjacent thread projections of the mouthpiece body in the direction of a central axis of the mouthpiece . a mouthpiece body having an end pouring opening ; a closure thread for cooperation with a rotary crown cap for liquid-tight closure of the pouring opening , which is formed in the form of a plurality of thread projections which run around the mouthpiece body and project externally with respect to the mouthpiece body , partially circumferentially with a predeterminable thread pitch; wherein the mouthpiece further comprises a discontinuity which is arranged between the pouring opening and the closure thread , runs circumferentially around the mouthpiece body and which, during the manufacture of the mouthpiece as a result of the tool, arises at a transition between two muzzle jaws on the one hand and a guide disc on the other hand, in that the two muzzle jaws and the guide disc are designed in such a way, in that, in the assembled state of the two muzzle jaws and the guide disc , a transition is formed in such a way that, at the transition between the two muzzle jaws on the one hand and the guide disc on the other hand, the discontinuity circumferentially surrounding the mouthpiece body can be formed by feeding flowable mouthpiece raw material; characterized in that an outer end of the discontinuity forms an inwardly offset outer edge of the discontinuity and is correspondingly offset inwardly from an outer surface between axially adjacent thread projections of the mouthpiece body in the direction of a central axis of the mouthpiece .
Liquid container unit, comprising: a liquid container assembly (50; 50C,50M,50Y,50K) including a liquid chamber configured to contain ink, and a liquid inlet configured to inject ink into the liquid chamber ; a case configured to cover at least part of the liquid container assembly (50; 50C,50M,50Y,50K); a mounting structure placed in the case, and a plug member (60; 60C,60M,60Y,60K,60,60b,60c,60d,60e,60f) that is detachably mounted to a liquid inlet to close the liquid inlet , wherein the plug member (60; 60C,60M,60Y,60K,60,60b,60c,60d,60e,60f) comprises: a sealing part configured to close the liquid inlet , such that at least part of the sealing part is inserted in the liquid inlet ; and a cover part arranged around at least part of circumference of the sealing part , and a mounted part that is connected with the cover part and is attachable to the mounting structure . a liquid container assembly (50; 50C,50M,50Y,50K) including a liquid chamber configured to contain ink, and a liquid inlet configured to inject ink into the liquid chamber ; a case configured to cover at least part of the liquid container assembly (50; 50C,50M,50Y,50K); a mounting structure placed in the case, and a plug member (60; 60C,60M,60Y,60K,60,60b,60c,60d,60e,60f) that is detachably mounted to a liquid inlet to close the liquid inlet , wherein the plug member (60; 60C,60M,60Y,60K,60,60b,60c,60d,60e,60f) comprises: a sealing part configured to close the liquid inlet , such that at least part of the sealing part is inserted in the liquid inlet ; and a cover part arranged around at least part of circumference of the sealing part , and a mounted part that is connected with the cover part and is attachable to the mounting structure .
A device for preparation of immobilized proteins, enzymes or cells, characterized in that the device comprises: i) a conveyor belt that transports a carrier for immobilizing proteins, enzymes or cells; ii) two or more spraying-kneading components that are arranged in sequence along a transport path of the conveyor belt; each of the spraying-kneading components includes the following components in sequence: a spraying component that sprays a pre-prepared liquid for the immobilization of the proteins, enzymes or cells on the surface of the carrier; a kneading component that distributes the pre-prepared liquid evenly on the surface of the carrier; iii) a squeezing component that removes the excess liquid remaining on the surface of the carrier after the carrier passes through the spraying-kneading components; wherein the kneading component of each of the spraying-kneading components includes one or more kneading rolls that are provided above the conveyor belt, the one or more kneading rolls are arranged along the transport path of the conveyor belt continuously and in sequence, and each of the kneading rolls rolls over the surface of the carrier when the carrier passes through a gap between the kneading roll and the conveyor belt; the squeezing component includes one or more upper squeezing rolls that are provided above the conveyor belt, the one or more upper squeezing rolls are arranged along the transport path of the conveyor belt continuously and in sequence, and each of the upper squeezing rolls rolls over the surface of the carrier to remove the excess liquid when the carrier passes through a gap between the upper squeezing roll and the conveyor belt. i) a conveyor belt that transports a carrier for immobilizing proteins, enzymes or cells; ii) two or more spraying-kneading components that are arranged in sequence along a transport path of the conveyor belt; each of the spraying-kneading components includes the following components in sequence: a spraying component that sprays a pre-prepared liquid for the immobilization of the proteins, enzymes or cells on the surface of the carrier; a kneading component that distributes the pre-prepared liquid evenly on the surface of the carrier; iii) a squeezing component that removes the excess liquid remaining on the surface of the carrier after the carrier passes through the spraying-kneading components;
DALI control device comprising a DALI interface , wherein the DALI interface is adapted to receive and/or transmit DALI signals, wherein the DALI interface is adapted to additionally utilize a signal level of the DALI signals, wherein the DALI interface comprises an encoder , adapted to - encode a first information based on Manchester coding, and characterized in that the encoder is further adapted to - encode a second information based on a signal level of HIGH and/or LOW pulses of the Manchester coding. wherein the DALI interface is adapted to receive and/or transmit DALI signals, wherein the DALI interface is adapted to additionally utilize a signal level of the DALI signals, wherein the DALI interface comprises an encoder , adapted to - encode a first information based on Manchester coding, and - encode a first information based on Manchester coding, and characterized in that the encoder is further adapted to - encode a second information based on a signal level of HIGH and/or LOW pulses of the Manchester coding. - encode a second information based on a signal level of HIGH and/or LOW pulses of the Manchester coding.
Chassis for a railway vehicle, adapted to be fixed below a shell of said railway vehicle, comprising a structure on which there are fixed at least two axles which each support two wheels of said vehicle, each wheel being adapted to run on a rail, the chassis structure defining an interior part , characterised in that it comprises a plurality of noise reduction devices which are fixed to said structure laterally on the exterior of said interior part of the structure of the chassis, opposite an engine element and/or a traction mechanism situated in said interior part of the chassis, each noise reduction device being placed opposite a wheel portion, the chassis comprising one noise reduction device per wheel, each noise reduction device comprising a panel made of a first material, said panel having an interior face turned towards said interior part of the structure of the chassis and an exterior face , each noise reduction device being of a shape and/or size which is(are) adapted to screen the engine elements and/or the corresponding traction mechanisms .
A turbine engine component, comprising: a platform ; and a rail having an outer radial surface and an inner radial surface, the inner radial surface connected to the platform, wherein the rail comprises a plurality of apertures spaced circumferentially between the outer radial surface and the inner radial surface, wherein the plurality of apertures is configured within the rail to form an outer beam , an inner beam and connecting webs in the rail, characterised in that the platform is disposed radially outward of at least one of a rotor assembly and a vane assembly, each aperture has a cross sectional shape in the form of a triangle, wherein each pair of adjacent apertures comprise a first aperture having a base facing radially inward and a second aperture having a base facing radially outward, and wherein the component is a blade outer air seal support. a platform ; and a rail having an outer radial surface and an inner radial surface, the inner radial surface connected to the platform, wherein the rail comprises a plurality of apertures spaced circumferentially between the outer radial surface and the inner radial surface, wherein the plurality of apertures is configured within the rail to form an outer beam , an inner beam and connecting webs in the rail, characterised in that the platform is disposed radially outward of at least one of a rotor assembly and a vane assembly, each aperture has a cross sectional shape in the form of a triangle, wherein each pair of adjacent apertures comprise a first aperture having a base facing radially inward and a second aperture having a base facing radially outward, and wherein the component is a blade outer air seal support.
A blade tip clearance sensor system comprising: a blade of a rotor of a gas turbine engine; a ceramic matrix composite body comprising a plurality of ceramic fibers in a plurality of layers ; characterised by a bridge-network circuit embedded in the ceramic matrix composite body , the bridge-network circuit comprises a first resistor-capacitor circuit on a first branch and a second resistor-capacitor circuit on a second branch, and wherein a capacitor (C1, C2) is included in the first resistor-capacitor circuit or the second resistor-capacitor circuit, wherein a portion of the ceramic matrix composite body forms a dielectric of the capacitor (C1, C2) and the capacitor (C1, C2) has a capacitance that depends on a distance between the capacitor (C1, C2) and the blade of the rotor of the gas turbine engine, wherein each of the first and second resistor-capacitor circuits includes a capacitor (C1, C2) and a resistor (R1, R2) connected in series, the first resistor-capacitor circuit and the second resistor-capacitor circuit connecter in parallel, and wherein the bridge-network circuit is located radially outward from, and in proximity to, a tip of the blade as the blade passes the bridge-network circuit ; and a processor configured to determine a blade tip clearance from the capacitance of the capacitor (C1, C2) derived from a measurement signal received from the bridge-network circuit . a blade of a rotor of a gas turbine engine; a ceramic matrix composite body comprising a plurality of ceramic fibers in a plurality of layers ; characterised by a bridge-network circuit embedded in the ceramic matrix composite body , the bridge-network circuit comprises a first resistor-capacitor circuit on a first branch and a second resistor-capacitor circuit on a second branch, and wherein a capacitor (C1, C2) is included in the first resistor-capacitor circuit or the second resistor-capacitor circuit, wherein a portion of the ceramic matrix composite body forms a dielectric of the capacitor (C1, C2) and the capacitor (C1, C2) has a capacitance that depends on a distance between the capacitor (C1, C2) and the blade of the rotor of the gas turbine engine, wherein each of the first and second resistor-capacitor circuits includes a capacitor (C1, C2) and a resistor (R1, R2) connected in series, the first resistor-capacitor circuit and the second resistor-capacitor circuit connecter in parallel, and wherein the bridge-network circuit is located radially outward from, and in proximity to, a tip of the blade as the blade passes the bridge-network circuit ; and a processor configured to determine a blade tip clearance from the capacitance of the capacitor (C1, C2) derived from a measurement signal received from the bridge-network circuit .