mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging sensor comprising: a plurality of sharing units, wherein a first sharing unit of the plurality of sharing units includes: eight transfer transistors (TR12-1 - TR12-8); four on-chip lenses arranged in a 2x2 matrix, wherein each of the four on-chip lenses is associated with two respective transfer transistors of the eight transfer transistors; four color filters (Gb, B, R, Gr) arranged in a 2x2 matrix, wherein each of the four color filters is associated two respective transfer transistors of the eight transfer transistors; a floating diffusion (FD) coupled to each of the eight transfer transistors (TR12-1 - TR12-8); shared transistors (TR11, TR13, TR14) including a single amplification transistor (TR13) having a gate coupled to the floating diffusion, the shared transistors arranged in a horizontal direction; and a first vertical signal line (VSL) coupled to the single amplification transistor (TR13), the first vertical signal line (VSL) extending along a vertical direction, wherein the floating diffusion (FD) includes a first terminal (T1) and a second terminal (T2), wherein the shared transistors (TR11, TR13, TR14) are arranged in a first row and wherein the first terminal (T1) and the second terminal (T2) are arranged in a second row, wherein at least two color filters (Gb, B; R, Gr) of the four color filters arranged along the horizontal direction are configured to extract light having different wavelength ranges, and wherein each of the four on-chip lenses is arranged corresponding to two transfer transistors of the eight transfer transistors. eight transfer transistors (TR12-1 - TR12-8); four on-chip lenses arranged in a 2x2 matrix, wherein each of the four on-chip lenses is associated with two respective transfer transistors of the eight transfer transistors; four color filters (Gb, B, R, Gr) arranged in a 2x2 matrix, wherein each of the four color filters is associated two respective transfer transistors of the eight transfer transistors; a floating diffusion (FD) coupled to each of the eight transfer transistors (TR12-1 - TR12-8); shared transistors (TR11, TR13, TR14) including a single amplification transistor (TR13) having a gate coupled to the floating diffusion, the shared transistors arranged in a horizontal direction; and a first vertical signal line (VSL) coupled to the single amplification transistor (TR13), the first vertical signal line (VSL) extending along a vertical direction, wherein the floating diffusion (FD) includes a first terminal (T1) and a second terminal (T2), wherein the shared transistors (TR11, TR13, TR14) are arranged in a first row and wherein the first terminal (T1) and the second terminal (T2) are arranged in a second row, wherein at least two color filters (Gb, B; R, Gr) of the four color filters arranged along the horizontal direction are configured to extract light having different wavelength ranges, and wherein each of the four on-chip lenses is arranged corresponding to two transfer transistors of the eight transfer transistors.
A vehicle group management method in a Vehicle to Everything, V2X, system, comprising: in a coverage area of a Road Side Unit, RSU, determining , by the RSU, whether state information of a plurality of vehicle groups meets a first preset condition for integrating the plurality of vehicle groups or a second preset condition for splitting the plurality of vehicle groups; if it is determined that the state information of the plurality of vehicle groups meets the first preset condition for integrating the plurality of vehicle groups or the second preset condition for splitting the plurality of vehicle groups, integrating , by the RSU, the plurality of vehicle groups according to the first preset condition, or splitting, by the RSU, the vehicle groups according to the second preset condition; and designating , by the RSU, a vehicle in the integrated vehicle groups or split vehicle groups as a designated vehicle, wherein the designated vehicle has a management right for managing the vehicle groups. in a coverage area of a Road Side Unit, RSU, determining , by the RSU, whether state information of a plurality of vehicle groups meets a first preset condition for integrating the plurality of vehicle groups or a second preset condition for splitting the plurality of vehicle groups; if it is determined that the state information of the plurality of vehicle groups meets the first preset condition for integrating the plurality of vehicle groups or the second preset condition for splitting the plurality of vehicle groups, integrating , by the RSU, the plurality of vehicle groups according to the first preset condition, or splitting, by the RSU, the vehicle groups according to the second preset condition; and designating , by the RSU, a vehicle in the integrated vehicle groups or split vehicle groups as a designated vehicle, wherein the designated vehicle has a management right for managing the vehicle groups.
An apparatus for use in a blasting system which includes a spool with a hub, first and second discs which are mounted to the hub, an elongate flexible signal-transmitting conductor which has a first end and a second end and which is coiled on the hub between the discs , at least a first detonator which is connected to the signal-transmitting conductor at or near the first end , a connector device which is connected or exposed to the signal-transmitting conductor at or near the second end , characterised in that the signal-transmitting conductor includes spaced-apart markings or formations and wherein the spool includes a sensor , responsive to passage of a marking or formation past the sensor to produce a measure of a length of the signal-transmitting conductor which is uncoiled from the hub and a release mechanism which, in use, permits a degree of rotation of the spool or movement of the conductor when a tensile force (F) exerted on the conductor increases above a predetermined level, thereby to reduce the level of the tensile force (F) exerted on the conductor wherein the connector device includes, wholly located inside the hub , a transmitter/receiver module , a battery and a processor , and connector formations , and in that communication with a control device can be established via the connector formations or via the transmitter / receiver module .
A flow control grid for a conduit upstream a selective catalytic reduction reactor used in furnaces which discharge ash containing flue gas, said flow control grid comprises a plurality of channel assemblies (51-66) connected to one another, wherein each of the plurality of channel assemblies (51-66) defines a flow turning section , wherein the flow turning section has an arcuate segment (51K-54K) and a first substantially flat segment (51A-54J), wherein the flow control grid is operable to affect about a ninety degree change in direction of a fluid flowing therethrough and wherein the flow control grid is configured to create a substantially uniform velocity profile at an outlet thereof, and wherein each of the plurality of channel assemblies (51-66) additionally defines a flow straightening section , wherein the first substantially flat segment (51A-56J) being positioned in the flow straightening section , and the arcuate segment (51K-56K) extends outwardly from the flow straightening section , wherein the flow straightening section defines a plurality of flow plates (51B-51F, 52B-52I, 53B-53I, 54B-54I) positioned substantially parallel to one another and spaced apart from one another to define a flow path between adjacent flow plates (51B-51F, 52B-52I, 53B-53I, 54B-54I), wherein the channel assemblies (51-66) are arranged in a stepped configuration. wherein each of the plurality of channel assemblies (51-66) defines a flow turning section , wherein the flow turning section has an arcuate segment (51K-54K) and a first substantially flat segment (51A-54J), wherein the flow control grid is operable to affect about a ninety degree change in direction of a fluid flowing therethrough and wherein the flow control grid is configured to create a substantially uniform velocity profile at an outlet thereof, and wherein each of the plurality of channel assemblies (51-66) additionally defines a flow straightening section , wherein the first substantially flat segment (51A-56J) being positioned in the flow straightening section , and the arcuate segment (51K-56K) extends outwardly from the flow straightening section , wherein the flow straightening section defines a plurality of flow plates (51B-51F, 52B-52I, 53B-53I, 54B-54I) positioned substantially parallel to one another and spaced apart from one another to define a flow path between adjacent flow plates (51B-51F, 52B-52I, 53B-53I, 54B-54I), wherein the channel assemblies (51-66) are arranged in a stepped configuration.
An air spring comprising, a top plate having a top surface and a bottom surface opposite the top surface; a flexible sleeve having a retention bead at a terminal end portion of the flexible sleeve ; a clamp ring , the clamp ring forming a cavity with the bottom surface of the top plate , wherein retention bead is in the cavity and the flexible sleeve extends from the retention bead through a gap (G) formed between a seal end surface of the clamp ring and the bottom surface of the top plate ; and an injection molded collar formed from an injection molded plastic, the injection molded collar operatively shaped to hold the clamp ring to the top plate such that the retention bead and the flexible sleeve are compressed forming an air tight seal between the top plate and the retention bead and the flexible sleeve , wherein the injection molded collar is distinct from the clamp ring . a top plate having a top surface and a bottom surface opposite the top surface; a flexible sleeve having a retention bead at a terminal end portion of the flexible sleeve ; a clamp ring , the clamp ring forming a cavity with the bottom surface of the top plate , wherein retention bead is in the cavity and the flexible sleeve extends from the retention bead through a gap (G) formed between a seal end surface of the clamp ring and the bottom surface of the top plate ; and an injection molded collar formed from an injection molded plastic, the injection molded collar operatively shaped to hold the clamp ring to the top plate such that the retention bead and the flexible sleeve are compressed forming an air tight seal between the top plate and the retention bead and the flexible sleeve , wherein the injection molded collar is distinct from the clamp ring .
A vacuum cleaner nozzle for attachment to a vacuum cleaner , the vacuum cleaner nozzle comprising; - a rim , with a first rim surface extending between an inner first rim surface edge and configured to interact with a surface to be cleaned when the vacuum cleaner nozzle is brought along a forward movement, and an outer first rim surface edge in a first plane and a second rim surface extending between an inner second rim surface edge and an outer second rim surface edge in a second plane , the first rim surface and the second rim surface being arrangable to face a surface to be cleaned and the first plane intersecting the second plane in a blunt angle (α), - a first ledge , wherein the first ledge comprises a first protruding element characterized in that the first protruding element protrudes towards the first plane between the inner first rim surface edge and the outer first rim surface edge , wherein the first protruding element is configured to interact with the surface to be cleaned when the vacuum cleaner nozzle is brought along said forward movement - a rim , with a first rim surface extending between an inner first rim surface edge and configured to interact with a surface to be cleaned when the vacuum cleaner nozzle is brought along a forward movement, and an outer first rim surface edge in a first plane and a second rim surface extending between an inner second rim surface edge and an outer second rim surface edge in a second plane , the first rim surface and the second rim surface being arrangable to face a surface to be cleaned and the first plane intersecting the second plane in a blunt angle (α), - a first ledge , wherein the first ledge comprises a first protruding element characterized in that the first protruding element protrudes towards the first plane between the inner first rim surface edge and the outer first rim surface edge , wherein the first protruding element is configured to interact with the surface to be cleaned when the vacuum cleaner nozzle is brought along said forward movement
An internal combustion engine containing a sealing assembly, the internal combustion engine being provided with a body which borders an internal space of the engine from an outside space and where a rotatable shaft is arranged to extend through an opening in the body, wherein the opening in the body of the engine is provided with a non-contact shaft sealing arrangement comprising a labyrinth seal and having a stator part and a rotor part comprising a blower means arranged to the rotor part of the shaft sealing arrangement at a first axial end thereof facing at outside space of the engine , the blower means being configured to induce a counter pressure to the labyrinth seal , and the labyrinth seal being provided with a fluid outlet which comprises a collector chamber extending in axial direction via each one of grooves in the stator part of the labyrinth seal, such that the fluid collected by the labyrinth seal may be discharged back to the engine , and such that, when installed correctly, the fluid outlet is at lowest possible position, the rotor part being arranged radially inside the stator part .
A device for managing tissue in an organ, comprising: an elongated body having a proximal end and a distal end ; a working element having a distal end, the working element disposed at the distal end of the elongated body; and a retractor section having a proximal end, wherein the proximal end of the retractor section is connected to the distal end of the working element and adapted to be moveable from a delivery position to a retraction position to position the tissue of the organ relative to the working element; wherein the device for managing tissue in the organ is configured for use with a therapeutic device, wherein a distal end of the retractor section includes an atraumatic tip , characterised in that the atraumatic tip includes a roller . an elongated body having a proximal end and a distal end ; a working element having a distal end, the working element disposed at the distal end of the elongated body; and a retractor section having a proximal end, wherein the proximal end of the retractor section is connected to the distal end of the working element and adapted to be moveable from a delivery position to a retraction position to position the tissue of the organ relative to the working element; wherein the device for managing tissue in the organ is configured for use with a therapeutic device, wherein a distal end of the retractor section includes an atraumatic tip , characterised in that the atraumatic tip includes a roller .
Component for a mirror array for EUV lithography, characterized in that it is produced at least partly from a composite material comprising a copper- and/or aluminium-containing matrix material and comprising a reinforcing material in the form of fibres , wherein the composite material comprises particles composed of one or more of the materials from the group graphite, diamond-like carbon and ceramic.
Pressure equalizer for a baby bottle comprising - a hollow element having a cup-like section and a tube section that grade seamlessly one into the other, and - a sealing element having an upper edge with a first diameter (D1) and a centre part with a second diameter (D2), the cup-like section of the hollow element being accommodated with its upper edge in the second inside diameter (D2) of the centre part of the sealing element , characterized in that at least the hollow element is designed to be disassembled into at least two hollow element parts in its longitudinal axis. - a hollow element having a cup-like section and a tube section that grade seamlessly one into the other, and - a sealing element having an upper edge with a first diameter (D1) and a centre part with a second diameter (D2), the cup-like section of the hollow element being accommodated with its upper edge in the second inside diameter (D2) of the centre part of the sealing element , characterized in that at least the hollow element is designed to be disassembled into at least two hollow element parts in its longitudinal axis.
A polypropylene-based resin composition comprising a polypropylene-based resin, and an olefin-based copolymer containing an ethylene repeating unit and an alpha-olefin-based repeating unit, wherein when the olefin-based copolymer is analyzed by cross-fractionation chromatography (CFC), it includes: a first fraction defined as a first peak appearing at a first elution temperature (Te1) of -20°C to 50°C, a second fraction defined as a second peak appearing at a second elution temperature (Te2) of 50°C to 85°C, and a third fraction defined as a third peak appearing at a third elution temperature (Te3) of 85°C to 130°C, and wherein the fraction ratio of the second fraction defined by the integral area of the second peak is 10 to 23%. a first fraction defined as a first peak appearing at a first elution temperature (Te1) of -20°C to 50°C, a second fraction defined as a second peak appearing at a second elution temperature (Te2) of 50°C to 85°C, and a third fraction defined as a third peak appearing at a third elution temperature (Te3) of 85°C to 130°C, and wherein the fraction ratio of the second fraction defined by the integral area of the second peak is 10 to 23%.
A method for diagnosing existence of a reductant deposit in an exhaust aftertreatment system that delivers reductant to exhaust gas produced by an internal combustion engine to provide a mixture of exhaust gas and reductant, the method comprising: sampling a temperature of the mixture of exhaust gas and reductant with a temperature sensor positioned in or near the exhaust aftertreatment system; determining if the temperature exceeds a predetermined temperature value; determining a presence of the reductant deposit in the exhaust aftertreatment system responsive to determining the temperature exceeds the predetermined temperature value; and initiating a regeneration cycle of the internal combustion engine to increase a temperature of the exhaust gas flowing through the exhaust aftertreatment system to at least partially remove the reductant deposit responsive to determining the presence of the reductant deposit, wherein the predetermined temperature value is a value corresponding to a temperature spike indicative of increased heat transfer due to the reductant deposit. sampling a temperature of the mixture of exhaust gas and reductant with a temperature sensor positioned in or near the exhaust aftertreatment system; determining if the temperature exceeds a predetermined temperature value; determining a presence of the reductant deposit in the exhaust aftertreatment system responsive to determining the temperature exceeds the predetermined temperature value; and initiating a regeneration cycle of the internal combustion engine to increase a temperature of the exhaust gas flowing through the exhaust aftertreatment system to at least partially remove the reductant deposit responsive to determining the presence of the reductant deposit, wherein the predetermined temperature value is a value corresponding to a temperature spike indicative of increased heat transfer due to the reductant deposit.
A compound of one of the following formulas: and wherein G is H, or G is selected from -C(O)R 0 , -C(O)-OR 0 , -C(R G ),-O-C(O)R 0 , and -C(R G ) 2 -O-C(O)-OR 0 , where each R 0 is independently H or C 1 -C 4 alkyl, and each R G is H or C 1 -C 4 alkyl; n is 0, 1 or 2; each R 3 represents Me, OH, OMe, or halo; and Y represents wherein each R y is independently selected from F, Cl, Me, OMe, CF 3 , OCF 3 , and CN; and each q is independently 0, 1, or 2, or a pharmaceutically acceptable salt thereof. wherein G is H, or G is selected from -C(O)R 0 , -C(O)-OR 0 , -C(R G ),-O-C(O)R 0 , and -C(R G ) 2 -O-C(O)-OR 0 , where each R 0 is independently H or C 1 -C 4 alkyl, and each R G is H or C 1 -C 4 alkyl; n is 0, 1 or 2; each R 3 represents Me, OH, OMe, or halo; and Y represents wherein each R y is independently selected from F, Cl, Me, OMe, CF 3 , OCF 3 , and CN; and each q is independently 0, 1, or 2,
Assembly for a tyre, comprising: a. a first fabric, having a longitudinal edge extending in a first general direction (G1), comprising first filamentary elements, referred to as warp elements, that are substantially parallel to one another and that extend in a first direction (C1), referred to as warp direction, substantially parallel to the first general direction (G1), each first filamentary element comprising first and second filamentary members; b. a second fabric, comprising a longitudinal edge extending in a second direction (G2), the first general direction (G1) and the second direction (G2) being substantially parallel; c. a load-bearing structure comprising load-bearing filamentary elements connecting the first fabric to the second fabric, each load-bearing filamentary element comprising at least one load-bearing filamentary portion extending between the first and the second fabric; the assembly being characterized in that , for any elongation of the first fabric in the first general direction (G1) of less than or equal to 2×π×H/L, the second filamentary member deforms plastically, with 0 < H ≤ K.H0, H0 representing in m a mean straight-line distance between an internal face of the first fabric and an internal face of the second fabric when each load-bearing filamentary portion is at rest, L representing the length at rest of the first fabric in the first general direction (G1) and K=1.3. a. a first fabric, having a longitudinal edge extending in a first general direction (G1), comprising first filamentary elements, referred to as warp elements, that are substantially parallel to one another and that extend in a first direction (C1), referred to as warp direction, substantially parallel to the first general direction (G1), each first filamentary element comprising first and second filamentary members; b. a second fabric, comprising a longitudinal edge extending in a second direction (G2), the first general direction (G1) and the second direction (G2) being substantially parallel; c. a load-bearing structure comprising load-bearing filamentary elements connecting the first fabric to the second fabric, each load-bearing filamentary element comprising at least one load-bearing filamentary portion extending between the first and the second fabric;
A method, comprising: providing an electronic device array comprising a substrate and a plurality of transistors located on the substrate; and then using an ink-jet printer to deposit a solvent onto a dielectric layer on the substrate to form via-holes through the dielectric layer, the solvent being able to dissolve the material of the dielectric layer; and using an ink-jet printer to deposit conductive material to form conductive tracks and fill said via-holes, to define an electronic or logic circuit from said electronic device array; wherein the solvent is selected from the group consisting of methanol, ethanol, isopropanol, butanol, acetone and 1,2-dimethyl-2-imidazolidinone, and the material of the dielectric layer is polyvinylphenol.