mhurhangee/ep-ind-claims huggingface dataset:
A lawn mower, which comprises: a driving assembly; an impact protection assembly, the impact protection assembly comprising a first bearing seat, a second bearing seat that is mated with the first bearing seat, the first bearing seat being provided with a protrusion; a transmission assembly; and a cutting assembly; characterized in that it comprises an elastic member and a ball that are disposed between the first bearing seat and the second bearing seat and when the driving assembly is starting, the ball is arranged to be pushable by the elastic member to make contact with the protrusion of the first bearing seat to drive the transmission assembly and the cutting assembly to rotate synchronously, and when a resistance received by the cutting assembly is greater than a preset value, the elastic member is arranged to be continuously compressable, such that the ball can pass over the protrusion, and the transmission assembly and the driving assembly are rotatable relative to each other. a driving assembly; an impact protection assembly, the impact protection assembly comprising a first bearing seat, a second bearing seat that is mated with the first bearing seat, the first bearing seat being provided with a protrusion; a transmission assembly; and a cutting assembly; characterized in that it comprises an elastic member and a ball that are disposed between the first bearing seat and the second bearing seat and when the driving assembly is starting, the ball is arranged to be pushable by the elastic member to make contact with the protrusion of the first bearing seat to drive the transmission assembly and the cutting assembly to rotate synchronously, and when a resistance received by the cutting assembly is greater than a preset value, the elastic member is arranged to be continuously compressable, such that the ball can pass over the protrusion, and the transmission assembly and the driving assembly are rotatable relative to each other.
A system comprising: a first processor comprising circuitry configured to execute a plurality of threads of an operating system kernel; and a second processor coupled to the first processor, wherein the second processor comprises circuitry configured to execute an application and send system service requests to the first processor for servicing; wherein the first processor is configured to: monitor a number of cycles that threads executing on the first processor have spent servicing system service requests over a previous time interval; calculate an overhead associated with servicing system service requests over the previous time interval, said overhead comprising said number of cycles and cycles spent transitioning between user mode and kernel mode; and dynamically adjust an amount of delay that is added to servicing of a given system service request based on the overhead. a first processor comprising circuitry configured to execute a plurality of threads of an operating system kernel; and a second processor coupled to the first processor, wherein the second processor comprises circuitry configured to execute an application and send system service requests to the first processor for servicing; wherein the first processor is configured to: monitor a number of cycles that threads executing on the first processor have spent servicing system service requests over a previous time interval; calculate an overhead associated with servicing system service requests over the previous time interval, said overhead comprising said number of cycles and cycles spent transitioning between user mode and kernel mode; and dynamically adjust an amount of delay that is added to servicing of a given system service request based on the overhead. monitor a number of cycles that threads executing on the first processor have spent servicing system service requests over a previous time interval; calculate an overhead associated with servicing system service requests over the previous time interval, said overhead comprising said number of cycles and cycles spent transitioning between user mode and kernel mode; and dynamically adjust an amount of delay that is added to servicing of a given system service request based on the overhead.
A lower limb prosthesis comprising: a stump socket for receiving a trans-tibial stump, a shin member connected to the stump socket, and a foot-mounting connector directly pivotally connected to a distal end of the shin member at a medial-lateral heel-height adjustment axis so as to pivot relative to the shin member about the medial-lateral heel-height adjustment axis, wherein the shin member defines a shin axis which extends substantially vertically when an amputee is standing on flat ground and which is spaced-apart from the heel-height adjustment axis, the shin member including: an hydraulic heel-height adjustment device located inside the shin member, the heel-height adjustment device including a linear piston and cylinder assembly comprising a piston movable substantially longitudinally of the shin member within a chamber for pivoting the foot-mounting connector about the heel-height adjustment axis, at least a part of the chamber varying in volume as the piston moves, the piston having a piston rod connected to the foot-mounting connector by a pivot joint defining a pivot axis spaced-apart from and parallel to the heel-height adjustment axis. a stump socket for receiving a trans-tibial stump, a shin member connected to the stump socket, and a foot-mounting connector directly pivotally connected to a distal end of the shin member at a medial-lateral heel-height adjustment axis so as to pivot relative to the shin member about the medial-lateral heel-height adjustment axis, wherein the shin member defines a shin axis which extends substantially vertically when an amputee is standing on flat ground and which is spaced-apart from the heel-height adjustment axis, the shin member including: an hydraulic heel-height adjustment device located inside the shin member, the heel-height adjustment device including a linear piston and cylinder assembly comprising a piston movable substantially longitudinally of the shin member within a chamber for pivoting the foot-mounting connector about the heel-height adjustment axis, at least a part of the chamber varying in volume as the piston moves, the piston having a piston rod connected to the foot-mounting connector by a pivot joint defining a pivot axis spaced-apart from and parallel to the heel-height adjustment axis.
An apparatus that simultaneously supplies a liquid to a plurality of vessels, comprising: a first measuring unit including a first measuring space inside a first cylinder that is replenished with the liquid and a first piston moving in the first measuring space; a second measuring unit including a second measuring space inside a second cylinder that is replenished with the liquid and a second piston moving in the second measuring space; a first dispenser that is connected to the first measuring space and injects the liquid into a first vessel; a second dispenser that is connected to the second measuring space and injects the liquid into a second vessel; a driving mechanism that operates the first piston and the second piston in synchronization so as to move up and down with a first stroke; and a first stroke conversion mechanism that is disposed between the first piston and the driving mechanism and independently converts the first stroke of the driving mechanism, and transmits the converted first stroke to the first piston to control an amount of movement of the first piston independently of an amount of movement of the second piston, wherein a size of the first measuring space and a size of the second measuring space differ. a first measuring unit including a first measuring space inside a first cylinder that is replenished with the liquid and a first piston moving in the first measuring space; a second measuring unit including a second measuring space inside a second cylinder that is replenished with the liquid and a second piston moving in the second measuring space; a first dispenser that is connected to the first measuring space and injects the liquid into a first vessel; a second dispenser that is connected to the second measuring space and injects the liquid into a second vessel; a driving mechanism that operates the first piston and the second piston in synchronization so as to move up and down with a first stroke; and a first stroke conversion mechanism that is disposed between the first piston and the driving mechanism and independently converts the first stroke of the driving mechanism, and transmits the converted first stroke to the first piston to control an amount of movement of the first piston independently of an amount of movement of the second piston, wherein a size of the first measuring space and a size of the second measuring space differ.
A process for casting a molten alloy, comprising: pouring the molten alloy from a container holding the molten alloy therein into a solidification space enclosed by an inside wall of a water-cooled mold with holding slag therein to solidify the molten alloy while forming a molten alloy pool; and drawing an ingot vertically from a lower section of the water-cooled mold; characterized in that the molten alloy is poured at a casting rate of 0.01 to 0.1 m/min; a heat insulator made of a graphite material for suppressing an extraction of heat from slag is arranged in an upper section of the mold, the insulator having an inside wall shaped to be continuous to the inside wall of the water-cooled mold; and the slag is heated at its periphery with an electrode, the slag having a melting point of 500 to 1400°C and a thickness of 20 to 100 mm from the molten alloy. pouring the molten alloy from a container holding the molten alloy therein into a solidification space enclosed by an inside wall of a water-cooled mold with holding slag therein to solidify the molten alloy while forming a molten alloy pool; and drawing an ingot vertically from a lower section of the water-cooled mold;
A high efficiency fuel cell system configured to receive flue gas from a flue gas generating device and to capture carbon dioxide from the flue gas, the high efficiency fuel cell system comprising: a topping fuel cell assembly comprising a topping cathode portion and a topping anode portion; a bottoming fuel cell assembly comprising a bottoming cathode portion and a bottoming anode portion, wherein the bottoming anode portion receives anode exhaust output from the topping anode portion; and a separation assembly configured to receive carbon dioxide-containing exhaust and to separate carbon dioxide from the carbon dioxide-containing exhaust; wherein the carbon dioxide-containing exhaust is one of anode exhaust output from the bottoming anode portion and a gas derived from the anode exhaust output from the bottoming anode portion; wherein at least one of the topping cathode portion and the bottoming cathode portion receives at least a portion of the flue gas output from the flue gas generating device; and wherein the topping fuel cell assembly has a greater number of fuel cells than the bottoming fuel cell assembly such that the topping fuel cell assembly utilizes more fuel than the bottoming fuel cell assembly. a topping fuel cell assembly comprising a topping cathode portion and a topping anode portion; a bottoming fuel cell assembly comprising a bottoming cathode portion and a bottoming anode portion, wherein the bottoming anode portion receives anode exhaust output from the topping anode portion; and a separation assembly configured to receive carbon dioxide-containing exhaust and to separate carbon dioxide from the carbon dioxide-containing exhaust; wherein the carbon dioxide-containing exhaust is one of anode exhaust output from the bottoming anode portion and a gas derived from the anode exhaust output from the bottoming anode portion; wherein at least one of the topping cathode portion and the bottoming cathode portion receives at least a portion of the flue gas output from the flue gas generating device; and wherein the topping fuel cell assembly has a greater number of fuel cells than the bottoming fuel cell assembly such that the topping fuel cell assembly utilizes more fuel than the bottoming fuel cell assembly.
An automatic door for a domestic appliance, in particular an automatic oven door for a cooking oven, wherein: - the door comprises at least one door handle for manually opening and/or closing said door, and - the door comprises at least one switch element for automatically opening and/or closing said door, wherein - the door comprises at least one door sensor for detecting the opening angle and/or the opening and closing speed of said door, characterised in that the door handle is elongated and arranged horizontally or vertically in the front of the door, and in that the switch element and the door sensor are arranged serially along the elongated door handle. - the door comprises at least one door handle for manually opening and/or closing said door, and - the door comprises at least one switch element for automatically opening and/or closing said door, wherein - the door comprises at least one door sensor for detecting the opening angle and/or the opening and closing speed of said door,
An electro-conductive paste for forming an electrode of a solar cell device, characterized by containing an electro-conductive particle, an organic binder, a solvent, a glass frit, and, as a sintering controlling agent, either a metal with a low melting point of 500°C or less, or a compound affiliated with a metal with a low melting point of 500°C or less, characterized in that an average particle diameter of the electro-conductive particle is in a range of 0.1 to 15 μm, a specific surface area of the electro-conductive particle is in a range of 0.05 to 5 m 2 /g, a content of the metal with a low melting point of 500°C or less is 0.1 to 5 percent by weight, and a content of the compound affiliated with a metal with a low melting point of 500°C or less is 0.01 to 10 percent by weight.
A collector assembly for a gaseous fluid suitable for being disposed in a reaction section with a moving bed of catalyst of a radial reactor, said collector assembly comprising a vertical cylindrical screen which is permeable to gaseous fluid and impermeable to particles of catalyst, and a vertical cylindrical tube which is supported by said screen and disposed in a concentric manner with respect to said screen, said tube being permeable to gaseous fluid and impermeable to particles of catalyst, in which the tube comprises one or more zones (17a, 17b) which are permeable to gaseous fluid comprising a plurality of through holes and a plurality of zones (18a, 18b, 18c, 18d) with a "reduced permeability" to gaseous fluid compared with the permeable zone, each zone with reduced permeability having a lower porosity than that of a zone which is said to be permeable, the porosity of the zones being defined as the ratio between the total permeable surface area of said zone and the total developed surface area of said zone, and in which the porosity of a zone with reduced permeability is in the range 0 to 0.005, it being understood that a zone with reduced permeability excludes any space taken up by the through holes of the permeable zone.
A multifunctional cookware comprising a pot body, the pot body Including a chassis and a vessel, with the chassis being provided with a top surface and a bottom surface, the vessel being formed at a side of the chassis and being provided with a holding space; a steaming pan, the steaming pan being covered on a side of the vessel opposite to the chassis and being optionally dismantled from the vessel, and the steaming pan being provided with vent holes penetrating the steaming pan; and a pot lid, the shape of the pot lid corresponding to the periphery of the vessel, and the pot lid being optionally covered on a side of the steaming pan opposite to the vessel to form a sealed space with the vessel, characterized by: a side wall of the vessel is provided with a pillar, with the pillar corresponding to the center of the top surface of the chassis, an end of the pillar being formed with a fixing pole opposite to the chassis, and a side of the steaming pan being provided with a through-hole which corresponds to the fixing pole.
A method of associating a user service, which is accessible by a user of a telephony device via an application on the telephony device, with a telephony identifier, the telephony device being operable in a radio telephony network, RTN, and being contactable via the telephony identifier when operating in the RTN, with an application on the telephony device contactable via an Over-the-Top, OTT, data path between the network equipment and the application on the telephony device, the method being performed by network equipment and comprising: communicating via the OTT data path between the network equipment and the application on the telephony device, first data comprising a communicated token; receiving, from the telephony device, second data comprising a received token, wherein the second data is received from the telephony device via an RTN-native service; receiving, from a network node in the RTN, the telephony identifier in control signalling associated with the RTN-native service; and based at least on correlating the received token with the communicated token, associating the received telephony identifier with the user service. communicating via the OTT data path between the network equipment and the application on the telephony device, first data comprising a communicated token; receiving, from the telephony device, second data comprising a received token, wherein the second data is received from the telephony device via an RTN-native service; receiving, from a network node in the RTN, the telephony identifier in control signalling associated with the RTN-native service; and based at least on correlating the received token with the communicated token, associating the received telephony identifier with the user service.
A method for manufacturing an AMOLED display panel, comprising: forming an array substrate; forming a color filter substrate; and bonding the array substrate and the CF substrate, wherein the step of forming the CF substrate includes a step of forming a water blocking layer, characterized in that the step of forming the CF substrate and the step of bonding the array substrate and the CF substrate include: S1: forming a 1/4 wave plate on a carrier glass; S2: forming a pattern of a CF layer and a pattern of a black matrix, BM, in sequence on the carrier glass obtained in step S1 by a patterning process; S3: forming a water blocking layer on the carrier glass obtained in step S2; S4: coating or laminating a bonding adhesive on the carrier glass obtained in step S3, and laminating the array substrate and the carrier glass obtained in step S3 corresponding to each other; S5: removing the carrier glass; and S6: coating an adhesive on a linear polarizer, and laminating the linear polarizer to the 1/4 wave plate. forming an array substrate; forming a color filter substrate; and bonding the array substrate and the CF substrate, wherein the step of forming the CF substrate includes a step of forming a water blocking layer, characterized in that the step of forming the CF substrate and the step of bonding the array substrate and the CF substrate include: S1: forming a 1/4 wave plate on a carrier glass; S2: forming a pattern of a CF layer and a pattern of a black matrix, BM, in sequence on the carrier glass obtained in step S1 by a patterning process; S3: forming a water blocking layer on the carrier glass obtained in step S2; S4: coating or laminating a bonding adhesive on the carrier glass obtained in step S3, and laminating the array substrate and the carrier glass obtained in step S3 corresponding to each other; S5: removing the carrier glass; and S6: coating an adhesive on a linear polarizer, and laminating the linear polarizer to the 1/4 wave plate. S1: forming a 1/4 wave plate on a carrier glass; S2: forming a pattern of a CF layer and a pattern of a black matrix, BM, in sequence on the carrier glass obtained in step S1 by a patterning process; S3: forming a water blocking layer on the carrier glass obtained in step S2; S4: coating or laminating a bonding adhesive on the carrier glass obtained in step S3, and laminating the array substrate and the carrier glass obtained in step S3 corresponding to each other; S5: removing the carrier glass; and S6: coating an adhesive on a linear polarizer, and laminating the linear polarizer to the 1/4 wave plate.
A robot configured to exhibit a robot personality at least partly through execution of computer-readable program code, the robot comprising a robot head configured for connection to a face part (9; 9A, 9B) including a display surface, the robot being configured to cause the display of a face image depicting a face of said robot on said display surface, said robot head is configured for detachable connection to said face part to allow detachable connection of different face parts (9; 9A, 9B) to the robot head, the robot being configured to automatically adapt said robot personality based on the face part currently being connected to the robot head, characterised in that the robot further comprising a data receiving unit configured to receive, from the face part (9; 9A, 9B) being brought in the proximity of, or currently connected to, the robot head, a program code sequence stored on a data carrier of the face part, and the robot being configured to automatically adapt the robot personality through execution of said program code sequence received from the face part being brought in the proximity of, or currently connected to the robot head.
Irradiating method for the powder-bed-based, additive manufacturing of a component in order to heal structural defects (11, 12) in an additively constructed structure for the component, comprising the following steps: - providing a laser or electron beam, - selectively irradiating a defect region of an additively structured layer of the structure with the laser or electron beam in accordance with a predetermined, in particular closed, trajectory, which defines the defect region, wherein the trajectory is a looplike trajectory, wherein the defect region contains a structural defect (11, 12) and wherein the defect region comprises a plurality of partial loops (TS, TS1, TS2, TS3) and each partial loop (TS, TS1, TS2, TS3) has, in particular two opposite, arcs (BO, BO1, BO2, BO3). - providing a laser or electron beam, - selectively irradiating a defect region of an additively structured layer of the structure with the laser or electron beam in accordance with a predetermined, in particular closed, trajectory, which defines the defect region, wherein the trajectory is a looplike trajectory, wherein the defect region contains a structural defect (11, 12) and wherein the defect region comprises a plurality of partial loops (TS, TS1, TS2, TS3) and each partial loop (TS, TS1, TS2, TS3) has, in particular two opposite, arcs (BO, BO1, BO2, BO3).
A procatalyst composition comprising: a magnesium moiety; a titanium moiety; and an internal electron donor comprising a 2-fluoro-malonate with the structure wherein R 1 and R 2 are the same or different, wherein R 1 is a cyclopentyl group; and R 2 is selected from the group consisting of a C 1 -C 20 primary alkyl group and a substituted or unsubstituted C 2 -C 20 1-alkenyl group. a magnesium moiety; a titanium moiety; and an internal electron donor comprising a 2-fluoro-malonate with the structure wherein R 1 and R 2 are the same or different, wherein R 1 is a cyclopentyl group; and R 2 is selected from the group consisting of a C 1 -C 20 primary alkyl group and a substituted or unsubstituted C 2 -C 20 1-alkenyl group. wherein R 1 and R 2 are the same or different, wherein R 1 is a cyclopentyl group; and R 2 is selected from the group consisting of a C 1 -C 20 primary alkyl group and a substituted or unsubstituted C 2 -C 20 1-alkenyl group.