mhurhangee/patent-ind-claim-en huggingface dataset:
A yard waste collection assembly comprising: a yard waste collector comprising a yard waste inlet; a conveyor configured to receive yard waste at a receiving end of the conveyor and discharge the yard waste at a discharge end of the conveyor , characterised in that the conveyor comprises: a telescopic seal configured to cover an outlet , at the discharge end, in a shut position when the conveyor is not engaged with the yard waste collector , and in that the telescopic seal is further configured to slide along a longitudinal axis (L) of the conveyor to an open position when the conveyor engages the yard waste collector causing the outlet to be uncovered. a yard waste collector comprising a yard waste inlet; a conveyor configured to receive yard waste at a receiving end of the conveyor and discharge the yard waste at a discharge end of the conveyor , characterised in that the conveyor comprises: a telescopic seal configured to cover an outlet , at the discharge end, in a shut position when the conveyor is not engaged with the yard waste collector , and in that the telescopic seal is further configured to slide along a longitudinal axis (L) of the conveyor to an open position when the conveyor engages the yard waste collector causing the outlet to be uncovered. a telescopic seal configured to cover an outlet , at the discharge end, in a shut position when the conveyor is not engaged with the yard waste collector , and in that the telescopic seal is further configured to slide along a longitudinal axis (L) of the conveyor to an open position when the conveyor engages the yard waste collector causing the outlet to be uncovered.
An elevator control system comprising: an elevator car ; an elevator controller ; and an occupancy detection system configured to detect an occupancy level within the elevator car , the occupancy detection system comprising at least one camera, wherein the elevator controller and the occupancy detection system are arranged to control the elevator car to prevent additional passengers from entering the elevator car when the occupancy detection system detects an occupancy level above a predetermined threshold; characterised in that : the elevator controller and the occupancy detection system are arranged to control the elevator car such that if a request is made at an elevator call button , the elevator controller will reopen the elevator car door(s) only if there is free space available inside the elevator car . an elevator car ; an elevator controller ; and an occupancy detection system configured to detect an occupancy level within the elevator car , the occupancy detection system comprising at least one camera, wherein the elevator controller and the occupancy detection system are arranged to control the elevator car to prevent additional passengers from entering the elevator car when the occupancy detection system detects an occupancy level above a predetermined threshold; characterised in that : the elevator controller and the occupancy detection system are arranged to control the elevator car such that if a request is made at an elevator call button , the elevator controller will reopen the elevator car door(s) only if there is free space available inside the elevator car .
An ecological removable insole for footwear that comprises an active layer and an outer layer , intended to be in contact with a foot, wherein: - the active layer comprises: - first holes , comprising first elements in the form of capsules configured to aromatise or protect the inside of the footwear from infections, and - second holes , comprising second elements in the form of grains of rice configured to absorb moisture; - the outer layer is made of a breathable and absorbent material, such that it enables the transfer of the aroma and the moisture with the active layer , wherein the holes are configured to house: - the first elements in the form of capsules, and - the second elements in the form of grains of rice. - the active layer comprises: - first holes , comprising first elements in the form of capsules configured to aromatise or protect the inside of the footwear from infections, and - second holes , comprising second elements in the form of grains of rice configured to absorb moisture; - the outer layer is made of a breathable and absorbent material, such that it enables the transfer of the aroma and the moisture with the active layer , wherein the holes are configured to house: - the first elements in the form of capsules, and - the second elements in the form of grains of rice.
Method for moving an elongate support structure between a substantially horizontal position on a deck (2") of an offshore structure and a substantially vertical position outboard of the offshore structure , the method comprising: supporting the support structure , when in the substantially horizontal position, by rigging suspended from a crane on the offshore structure , the rigging comprising upper and lower rigging portions that are connected respectively to upper and lower attachment points on the support structure , wherein when the support structure is in the substantially horizontal position, the upper and lower attachment points are, respectively, inboard and outboard from a side of the offshore structure ; pivoting the support structure about a first pivot (PI); pivoting the support structure about a second pivot (P2) positioned outboard of the first pivot (P1) with respect to the offshore structure ; and connecting the support structure to, or disconnecting the support structure from, a pivoting connector that defines the second pivot (P2) by pivoting the support structure about the first pivot (P1), wherein the first and second pivots (P1, P2) remain in fixed relation to the offshore structure . supporting the support structure , when in the substantially horizontal position, by rigging suspended from a crane on the offshore structure , the rigging comprising upper and lower rigging portions that are connected respectively to upper and lower attachment points on the support structure , wherein when the support structure is in the substantially horizontal position, the upper and lower attachment points are, respectively, inboard and outboard from a side of the offshore structure ; pivoting the support structure about a first pivot (PI); pivoting the support structure about a second pivot (P2) positioned outboard of the first pivot (P1) with respect to the offshore structure ; and connecting the support structure to, or disconnecting the support structure from, a pivoting connector that defines the second pivot (P2) by pivoting the support structure about the first pivot (P1), wherein the first and second pivots (P1, P2) remain in fixed relation to the offshore structure .
A damper for reducing pulsation from a compressor, the damper comprising: an outer chamber defining an outer cavity therein, the outer chamber being arranged to pass flow from a first inlet to a first outlet thereof, an inner chamber arranged within the outer cavity and defining an inner cavity therein, the inner chamber being arranged to pass flow from a second inlet to a second outlet thereof, and a number of partitions dividing the outer chamber into sections , the number of partitions each extending between the outer chamber and the inner chamber ; wherein the sections are connected with each other near the second inlet to form an inlet manifold , are connected with each other near the second outlet to form an outlet manifold , and extend between the inlet manifold and the outlet manifold to define respective flow paths between the first inlet and first outlet , and wherein a housing forms at least a portion of the outer chamber , the housing including a body and a cap fastened to the body to define at least a portion of the outer cavity , wherein the second inlet of the inner chamber is connected with the inlet manifold and the second outlet of the inner chamber is connected with the outlet manifold , wherein the body forms a base portion of each of the number of partitions , wherein the cap forms a head portion of each of the number of partitions , wherein the damper further comprises a damper plate arranged between the base portion and the head portion of each of the number of partitions . an outer chamber defining an outer cavity therein, the outer chamber being arranged to pass flow from a first inlet to a first outlet thereof, an inner chamber arranged within the outer cavity and defining an inner cavity therein, the inner chamber being arranged to pass flow from a second inlet to a second outlet thereof, and a number of partitions dividing the outer chamber into sections , the number of partitions each extending between the outer chamber and the inner chamber ; wherein the sections are connected with each other near the second inlet to form an inlet manifold , are connected with each other near the second outlet to form an outlet manifold , and extend between the inlet manifold and the outlet manifold to define respective flow paths between the first inlet and first outlet , and wherein a housing forms at least a portion of the outer chamber , the housing including a body and a cap fastened to the body to define at least a portion of the outer cavity , wherein the second inlet of the inner chamber is connected with the inlet manifold and the second outlet of the inner chamber is connected with the outlet manifold , wherein the body forms a base portion of each of the number of partitions , wherein the cap forms a head portion of each of the number of partitions , wherein the damper further comprises a damper plate arranged between the base portion and the head portion of each of the number of partitions .
A mechanical seal assembly comprising: - a mechanical seal comprising a rotating slide ring having a first sliding surface and a stationary slide ring having a second sliding surface , a sealing gap being defined between the first and second sliding surfaces, - the stationary slide ring having a through hole extending from a rear side of the stationary slide ring to an orifice of the second sliding surface , and - a gas supply line extending from a gas source to an inlet of the through hole at the rear side of the stationary slide ring, - wherein grooves are formed in at least one of the sliding surfaces , the grooves being arranged in the radial direction between the orifice of the through hole and a radially outer outlet region of the sealing gap , and further comprising, - a throttle arranged in the gas supply line , - a filter arranged on or in the gas supply line , and - a check valve arranged in the gas supply line . - a mechanical seal comprising a rotating slide ring having a first sliding surface and a stationary slide ring having a second sliding surface , a sealing gap being defined between the first and second sliding surfaces, - the stationary slide ring having a through hole extending from a rear side of the stationary slide ring to an orifice of the second sliding surface , and - a gas supply line extending from a gas source to an inlet of the through hole at the rear side of the stationary slide ring, - wherein grooves are formed in at least one of the sliding surfaces , the grooves being arranged in the radial direction between the orifice of the through hole and a radially outer outlet region of the sealing gap , and further comprising, - a throttle arranged in the gas supply line , - a filter arranged on or in the gas supply line , and - a check valve arranged in the gas supply line .
A method of forming a biodegradable polymeric composition, comprising combining: a) a biologically-produced polyhydroxyalkanoate (PHA) polymer; b) a toughener comprising a vinyl acetate polymer comprising vinyl acetate monomer in an amount ranging from 60 percent to 100 percent by weight of the vinyl acetate polymer and the remainder from at least one of the following: (i) ethylene at up to about 14 weight percent of the vinyl acetate polymer; (ii) (meth)acrylic esters; (iii) vinyl esters having from 1 to 12 carbon atoms in the carboxylic acid radical; (iv) a carboxyl-group-containing monomer selected from the group consisting of acrylic acid, methacrylic acid, crotonic acid, itaconic acid, fumaric acid, maleic acid, and salts thereof; (v) glycidyl methacrylate, hydroxyethyl methacrylate, acrylamide and vinyl pyrrolidone; and (vi) vinyl alcohol; and c) a nucleating agent; and melt mixing the individual components to produce a homogeneous mixture, wherein the method is performed in the presence of a peroxide that reacts with the PHA. a) a biologically-produced polyhydroxyalkanoate (PHA) polymer; b) a toughener comprising a vinyl acetate polymer comprising vinyl acetate monomer in an amount ranging from 60 percent to 100 percent by weight of the vinyl acetate polymer and the remainder from at least one of the following: (i) ethylene at up to about 14 weight percent of the vinyl acetate polymer; (ii) (meth)acrylic esters; (iii) vinyl esters having from 1 to 12 carbon atoms in the carboxylic acid radical; (iv) a carboxyl-group-containing monomer selected from the group consisting of acrylic acid, methacrylic acid, crotonic acid, itaconic acid, fumaric acid, maleic acid, and salts thereof; (v) glycidyl methacrylate, hydroxyethyl methacrylate, acrylamide and vinyl pyrrolidone; and (vi) vinyl alcohol; and (i) ethylene at up to about 14 weight percent of the vinyl acetate polymer; (ii) (meth)acrylic esters; (iii) vinyl esters having from 1 to 12 carbon atoms in the carboxylic acid radical; (iv) a carboxyl-group-containing monomer selected from the group consisting of acrylic acid, methacrylic acid, crotonic acid, itaconic acid, fumaric acid, maleic acid, and salts thereof; (v) glycidyl methacrylate, hydroxyethyl methacrylate, acrylamide and vinyl pyrrolidone; and (vi) vinyl alcohol; and c) a nucleating agent;
An engine comprising: a cylinder member ; a piston slidably disposed in the cylinder member ; a crankshaft operatively coupled to the piston , the crankshaft having at least one counterweight located adjacent to the cylinder member ; and a guide member coupled to the cylinder member and being disposed outside the cylinder member , the guide member comprises a first portion coupled to the cylinder member and a second portion angularly extending from the first portion so as to guide lubricant around the counterweight and, at least partially, direct a flow of the lubricating fluid away from the counterweight adjacent to the cylinder member . a cylinder member ; a piston slidably disposed in the cylinder member ; a crankshaft operatively coupled to the piston , the crankshaft having at least one counterweight located adjacent to the cylinder member ; and a guide member coupled to the cylinder member and being disposed outside the cylinder member , the guide member comprises a first portion coupled to the cylinder member and a second portion angularly extending from the first portion so as to guide lubricant around the counterweight and, at least partially, direct a flow of the lubricating fluid away from the counterweight adjacent to the cylinder member .
A method of producing a lipid nanoparticle (LNP) composition, the method comprising: i) mixing an aqueous buffer solution and an organic solution, thereby forming a lipid nanoparticle (LNP) formulation comprising a lipid nanoparticle (LNP) encapsulating a nucleic acid; and ii) processing the lipid nanoparticle (LNP) formulation, thereby forming the lipid nanoparticle composition; wherein the organic solution comprises an organic solvent-soluble nucleic acid and an ionizable lipid in an organic solvent; and wherein the organic solvent-soluble nucleic acid comprises an organic cation. i) mixing an aqueous buffer solution and an organic solution, thereby forming a lipid nanoparticle (LNP) formulation comprising a lipid nanoparticle (LNP) encapsulating a nucleic acid; and ii) processing the lipid nanoparticle (LNP) formulation, thereby forming the lipid nanoparticle composition; wherein the organic solution comprises an organic solvent-soluble nucleic acid and an ionizable lipid in an organic solvent; and wherein the organic solvent-soluble nucleic acid comprises an organic cation.
A method for controlling a number of robots to emergently stop, wherein the method comprises steps of: arranging multiple position points in a site where the robots work, configuring position identifiers respectively for the multiple position points , and monitoring working situations of the robots in the site, and judging, when a fault signal reported by the robot(s) is detected, whether all the robots in the site need to be controlled to emergently stop, according to the fault signal , wherein if yes, a current position and a moving speed of each of the robots are detected, and each of the robots is allocated with a position point in the site as a corresponding emergency stop position, according to the current position and the moving speed of each of the robots , and each of the robots is controlled to move to the corresponding emergency stop position, and each of the robots is controlled to stop movement after the robot moves to the corresponding emergency stop position . arranging multiple position points in a site where the robots work, configuring position identifiers respectively for the multiple position points , and monitoring working situations of the robots in the site, and judging, when a fault signal reported by the robot(s) is detected, whether all the robots in the site need to be controlled to emergently stop, according to the fault signal , wherein if yes, a current position and a moving speed of each of the robots are detected, and each of the robots is allocated with a position point in the site as a corresponding emergency stop position, according to the current position and the moving speed of each of the robots , and each of the robots is controlled to move to the corresponding emergency stop position, and each of the robots is controlled to stop movement after the robot moves to the corresponding emergency stop position .
High-pruner, comprising a motor-driven branch saw on a pole, the lower end of the pole forming a handhold for the user, and at least one motor-driven propeller mounted on the branch saw or the pole .
A control panel for a household appliance, including: - a support which includes an opening , - a front plate fixed on a front face of the support and covering at least the opening , and - at least one man-machine interface module , called MMI module, fixed on a rear face of the support and positioned opposite the opening , the support including a longitudinal guide system disposed on the rear face of the support and on which the MMI module is positioned opposite the opening , the control panel being characterized in that the MMI module includes a sliding system , configured to cooperate with the longitudinal guide system and to form a slidable connection between the MMI module and the longitudinal guide system , the MMI module being configured to be able to be moved on the longitudinal guide system , and placed in different positions while being opposite the opening . - a support which includes an opening , - a front plate fixed on a front face of the support and covering at least the opening , and - at least one man-machine interface module , called MMI module, fixed on a rear face of the support and positioned opposite the opening , the support including a longitudinal guide system disposed on the rear face of the support and on which the MMI module is positioned opposite the opening , the control panel being characterized in that the MMI module includes a sliding system , configured to cooperate with the longitudinal guide system and to form a slidable connection between the MMI module and the longitudinal guide system , the MMI module being configured to be able to be moved on the longitudinal guide system , and placed in different positions while being opposite the opening .
A power amplifier configured to amplify a radio frequency signal and comprising an output circuit generating impedances at harmonic frequencies such that the power amplifier operates in a class C mode in a low output amplitude range and in a class F or inverse class F mode in a high output amplitude range, wherein the power amplifier comprises: a transistor configured to generate an output radio frequency signal; and the output circuit is connected to the transistor and configured to receive the output radio frequency signal and including impedances; wherein the output circuit comprises: a parallel resonator configured for blocking a fundamental frequency and connected between an emitter and a collector of the transistor , wherein the parallel resonator is connected to a resistor in series, and wherein a value of the resistor is within 10% of a resistance of a load , which load comprises a resistor (Rload) and is connected in series with a serial resonator , connected between the emitter of the transistor and the load , and the resistor (Rload) is connected in parallel with the parallel resonator and the resistor , at a maximum output power; and a first serial resonator configured for resonating at twice the fundamental frequency, connected in parallel with a capacitor between the emitter and the collector of the transistor . a transistor configured to generate an output radio frequency signal; and the output circuit is connected to the transistor and configured to receive the output radio frequency signal and including impedances; wherein the output circuit comprises: a parallel resonator configured for blocking a fundamental frequency and connected between an emitter and a collector of the transistor , wherein the parallel resonator is connected to a resistor in series, and wherein a value of the resistor is within 10% of a resistance of a load , which load comprises a resistor (Rload) and is connected in series with a serial resonator , connected between the emitter of the transistor and the load , and the resistor (Rload) is connected in parallel with the parallel resonator and the resistor , at a maximum output power; and a first serial resonator configured for resonating at twice the fundamental frequency, connected in parallel with a capacitor between the emitter and the collector of the transistor . a parallel resonator configured for blocking a fundamental frequency and connected between an emitter and a collector of the transistor , wherein the parallel resonator is connected to a resistor in series, and wherein a value of the resistor is within 10% of a resistance of a load , which load comprises a resistor (Rload) and is connected in series with a serial resonator , connected between the emitter of the transistor and the load , and the resistor (Rload) is connected in parallel with the parallel resonator and the resistor , at a maximum output power; and a first serial resonator configured for resonating at twice the fundamental frequency, connected in parallel with a capacitor between the emitter and the collector of the transistor .