mhurhangee/patent-ind-claim-en huggingface dataset:
A provisional tibial prosthesis system for implantation on a resected surface of a proximal tibia, the tibial prosthesis system comprising: a bearing component having a superior articulating surface , and an inferior surface , the inferior surface provided with slots ; a base component having a superior surface and an inferior surface ; and a shim component configured to be removably received between the inferior surface of the bearing component and the superior surface of the base component by inserting the shim component in a first direction, wherein the shim component is restrained from movement in a second direction substantially perpendicular to the first direction once the shim component engages with at least one of the bearing component and the base component , wherein the shim component has a superior surface provided with rails extending from an anterior side towards a posterior side of the shim and having at least one tapered wall , the rails configured to connect with the slots of the bearing component to prevent significant relative movement between the bearing component and the shim in the second direction. a bearing component having a superior articulating surface , and an inferior surface , the inferior surface provided with slots ; a base component having a superior surface and an inferior surface ; and a shim component configured to be removably received between the inferior surface of the bearing component and the superior surface of the base component by inserting the shim component in a first direction, wherein the shim component is restrained from movement in a second direction substantially perpendicular to the first direction once the shim component engages with at least one of the bearing component and the base component , wherein the shim component has a superior surface provided with rails extending from an anterior side towards a posterior side of the shim and having at least one tapered wall , the rails configured to connect with the slots of the bearing component to prevent significant relative movement between the bearing component and the shim in the second direction.
A multi-stage centrifugal pump with a foot part , a head part , a wall part which connects the foot part to the head part and surrounds the pump stages at the outer periphery, and with a motor stool connecting to the head part and for receiving an electric motor provided for the drive of the centrifugal pump, characterised in that the wall part projects in the axial direction beyond the head part and is connected to the motor stool.
A molten iron manufacturing apparatus comprising: a gasification melting furnace into which reduced iron and a lump carbon material are inputted to manufacture molten iron; a reducing furnace which is connected to the gasification melting furnace and manufactures reduced iron powder from fine iron ore by using reducing gas discharged from the gasification melting furnace; a storage bin which is connected to the gasification melting furnace and provides the reduced iron to the gasification melting furnace; a heat supply device which is installed on the storage bin and supplies heat to the reduced iron in the storage bin; and a mixing device connected to a conveying device for adding a metal-iron-containing substance or a carbon-containing substance to the conveying device wherein the heat supply device supplies heat to the reduced iron in the storage bin through induction heating, wherein the heat supply device includes: an induction coil which is embedded in a wall of the storage bin ; a high-frequency generator which produces high-frequency electric power to be applied to the induction coil ; and an electrically conductive wire and a connector which electrically connect the induction coil and the high-frequency generator. a gasification melting furnace into which reduced iron and a lump carbon material are inputted to manufacture molten iron; a reducing furnace which is connected to the gasification melting furnace and manufactures reduced iron powder from fine iron ore by using reducing gas discharged from the gasification melting furnace; a storage bin which is connected to the gasification melting furnace and provides the reduced iron to the gasification melting furnace; a heat supply device which is installed on the storage bin and supplies heat to the reduced iron in the storage bin; and a mixing device connected to a conveying device for adding a metal-iron-containing substance or a carbon-containing substance to the conveying device wherein the heat supply device supplies heat to the reduced iron in the storage bin through induction heating, wherein the heat supply device includes: an induction coil which is embedded in a wall of the storage bin ; a high-frequency generator which produces high-frequency electric power to be applied to the induction coil ; and an electrically conductive wire and a connector which electrically connect the induction coil and the high-frequency generator. an induction coil which is embedded in a wall of the storage bin ; a high-frequency generator which produces high-frequency electric power to be applied to the induction coil ; and an electrically conductive wire and a connector which electrically connect the induction coil and the high-frequency generator.
A method for assembling shoe components : providing at least two shoe components , a shoe last and a film unit , the shoe last having a shoe last body for placing of the at least two shoe components on an outer surface thereof, at least one of the at least two shoe components having an adhesive layer; placing the at least two shoe components on an outer surface of the shoe last ; removably covering an assembly of the at least two shoe components and the shoe last with the film unit such that the film unit and the shoe last cooperatively define a confining space therebetween; and pumping air out of the confining space using a vacuum unit and heating the at least two shoe components to shrink and deform the film unit so as to press the at least two shoe components to adhere tightly to each other; the film unit including at least one flexible air barrier film removably covering the assembly of the shoe last and the at least two shoe components ; the shoe last body having an air port formed in an end surface thereof, and a plurality of vent holes communicating with the air port and the confining space , and wherein the vacuum unit is removably connected to the air port for pumping the air out of the confining space ; characterized in that the shoe last body further has two positioning portions formed on the end surface and located on two opposite sides of the air port , the at least one flexible air barrier film having a plurality of spaced-apart fixed portions removably fixed to the end surface of the shoe last body and corresponding in position to the positioning portions . providing at least two shoe components , a shoe last and a film unit , the shoe last having a shoe last body for placing of the at least two shoe components on an outer surface thereof, at least one of the at least two shoe components having an adhesive layer; placing the at least two shoe components on an outer surface of the shoe last ; removably covering an assembly of the at least two shoe components and the shoe last with the film unit such that the film unit and the shoe last cooperatively define a confining space therebetween; and pumping air out of the confining space using a vacuum unit and heating the at least two shoe components to shrink and deform the film unit so as to press the at least two shoe components to adhere tightly to each other; the film unit including at least one flexible air barrier film removably covering the assembly of the shoe last and the at least two shoe components ; the shoe last body having an air port formed in an end surface thereof, and a plurality of vent holes communicating with the air port and the confining space , and wherein the vacuum unit is removably connected to the air port for pumping the air out of the confining space ; characterized in that the shoe last body further has two positioning portions formed on the end surface and located on two opposite sides of the air port , the at least one flexible air barrier film having a plurality of spaced-apart fixed portions removably fixed to the end surface of the shoe last body and corresponding in position to the positioning portions .
A sealed kneading machine comprising: a kneading tank that stores a kneading material; and a pair of rotors disposed within the kneading tank , wherein the rotor has a cylindrical rotor shaft and rotor vanes formed on a surface of the rotor shaft , and the rotor vanes are of a tangential type in which the rotor vanes do not overlap each other between the pair of rotors that face each other, and wherein the rotor vanes are configured to have a vane distal end shear deformation velocity (Vs1) at a distal end of each rotor vane when a kneading material is kneaded by rotating each rotor which is defined as a value obtained by dividing a turning velocity of the distal end of the rotor vane by a distance (Tc) between the distal end of the rotor vane and an inner face of the kneading tank , wherein the rotor shaft is configured to have a shaft surface shear deformation velocity (Vs2) on the surface of the rotor shaft which is defined as a value obtained by dividing a turning velocity of the surface of the rotor shaft by a distance (Td) between the surface of the rotor shaft and the inner face of the kneading tank , characterized in that the rotor is configured to have a shear deformation velocity ratio (R), which is a value obtained by dividing the vane distal end shear deformation velocity (Vs1) by the shaft surface shear deformation velocity (Vs2), and is 5.0 or more and 40 or less, and in that a diameter (d2) of the rotor shaft is 0.65 times or more and 0.80 times or less a diameter (d1) of the inner face of the kneading tank . a kneading tank that stores a kneading material; and a pair of rotors disposed within the kneading tank , wherein the rotor has a cylindrical rotor shaft and rotor vanes formed on a surface of the rotor shaft , and the rotor vanes are of a tangential type in which the rotor vanes do not overlap each other between the pair of rotors that face each other, and wherein the rotor vanes are configured to have a vane distal end shear deformation velocity (Vs1) at a distal end of each rotor vane when a kneading material is kneaded by rotating each rotor which is defined as a value obtained by dividing a turning velocity of the distal end of the rotor vane by a distance (Tc) between the distal end of the rotor vane and an inner face of the kneading tank , wherein the rotor shaft is configured to have a shaft surface shear deformation velocity (Vs2) on the surface of the rotor shaft which is defined as a value obtained by dividing a turning velocity of the surface of the rotor shaft by a distance (Td) between the surface of the rotor shaft and the inner face of the kneading tank , characterized in that the rotor is configured to have a shear deformation velocity ratio (R), which is a value obtained by dividing the vane distal end shear deformation velocity (Vs1) by the shaft surface shear deformation velocity (Vs2), and is 5.0 or more and 40 or less, and in that a diameter (d2) of the rotor shaft is 0.65 times or more and 0.80 times or less a diameter (d1) of the inner face of the kneading tank .
A control circuit for a generator of an ultrasonic surgical instrument , the control circuit configured to: determine an impedance of an ultrasonic transducer coupled to an ultrasonic blade during a transection process; analyze the impedance of the ultrasonic transducer; profile the ultrasonic blade based on the impedance of the ultrasonic transducer; and adjust a power delivered to the ultrasonic transducer during the transection process based on the profile of the ultrasonic blade, wherein the control circuit is further configured to: receive a complex impedance measurement data point corresponding to the contact of the ultrasonic blade with a clamp arm pad, and adjust a power delivered to the ultrasonic transducer to a power value to prevent the clamp arm pad from melting. determine an impedance of an ultrasonic transducer coupled to an ultrasonic blade during a transection process; analyze the impedance of the ultrasonic transducer; profile the ultrasonic blade based on the impedance of the ultrasonic transducer; and adjust a power delivered to the ultrasonic transducer during the transection process based on the profile of the ultrasonic blade, receive a complex impedance measurement data point corresponding to the contact of the ultrasonic blade with a clamp arm pad, and adjust a power delivered to the ultrasonic transducer to a power value to prevent the clamp arm pad from melting.
A method by a terminal to transmit an uplink channel, the method comprising: receiving downlink control information, DCI, on a physical downlink control channel, PDCCH, from a base station, the DCI including an indicator of a channel status information reference signal, CSI-RS; identifying a starting point of a dynamic physical uplink control channel, PUCCH, resource area and a target reception point, RP, of the base station based on the indicator of the CSI-RS; measuring a channel quality for the target RP using the CSI-RS; determining a transmission power of a PUCCH based on the measured channel quality for the target RP; and transmitting the PUCCH, using the determined transmission power, based on the starting point of the dynamic PUCCH resource area. receiving downlink control information, DCI, on a physical downlink control channel, PDCCH, from a base station, the DCI including an indicator of a channel status information reference signal, CSI-RS; identifying a starting point of a dynamic physical uplink control channel, PUCCH, resource area and a target reception point, RP, of the base station based on the indicator of the CSI-RS; measuring a channel quality for the target RP using the CSI-RS; determining a transmission power of a PUCCH based on the measured channel quality for the target RP; and transmitting the PUCCH, using the determined transmission power, based on the starting point of the dynamic PUCCH resource area.
Pneumatic vehicle tire, especially for passenger cars or vans, for use under wintry driving conditions having a tread in which spikes composed of a spike body and a spike pin are anchored, characterized in that the following relationship applies: A sp × m sp U ≤ 0,8 where A sp is the number of spikes in the tread, m sp is the number corresponding to the mass of a spike in grams, wherein 0.4 g ≤ m sp ≤ 0.8 g, U is the number corresponding to the theoretical rolling circumference according to E.T.R.T.O., Engineering Design Information - 2014, in centimetres, wherein A sp is > 130. A sp is the number of spikes in the tread, m sp is the number corresponding to the mass of a spike in grams, wherein 0.4 g ≤ m sp ≤ 0.8 g, U is the number corresponding to the theoretical rolling circumference according to E.T.R.T.O., Engineering Design Information - 2014, in centimetres,
A method for transmitting a vehicle to everything, V2X, signal for V2X communication by a user equipment, UE, in a wireless communication system, the method comprising: receiving information for a resource pool including a first resource unit with size A and a second resource unit with size B which are set for the V2X communication, wherein the size B is smaller than the size A; determining a transmission region as the first resource unit or the second resource unit based on the information, and transmitting the V2X signal via the transmission region, wherein a time-frequency hopping is applied to the second resource unit after the time-frequency hopping is applied to the first resource unit, and wherein a number N1 of first resource units are present in the resource pool, and wherein a number N2 of second resource units are present in the first resource unit, and wherein an amount of resources of the number N2 of second resource units is equal to the amount of resources of a single first resource unit, and wherein whether the time-frequency hopping is frequency-domain hopping or time-domain hopping is determined according to a period of the V2X signal, wherein, based on the transmission region including a retransmission of the V2X signal, a frequency hopping is applied to the resource pool in a frequency domain after applying the time-frequency hopping every period of the V2X signal. receiving information for a resource pool including a first resource unit with size A and a second resource unit with size B which are set for the V2X communication, wherein the size B is smaller than the size A; determining a transmission region as the first resource unit or the second resource unit based on the information, and transmitting the V2X signal via the transmission region, wherein a time-frequency hopping is applied to the second resource unit after the time-frequency hopping is applied to the first resource unit, and wherein a number N1 of first resource units are present in the resource pool, and wherein a number N2 of second resource units are present in the first resource unit, and wherein an amount of resources of the number N2 of second resource units is equal to the amount of resources of a single first resource unit, and wherein whether the time-frequency hopping is frequency-domain hopping or time-domain hopping is determined according to a period of the V2X signal, wherein, based on the transmission region including a retransmission of the V2X signal, a frequency hopping is applied to the resource pool in a frequency domain after applying the time-frequency hopping every period of the V2X signal.
A method comprising: Selecting , for display , a first beam type for representing a satellite coverage area, the first beam type being selected from one of a micro beam, a standard beam, and a regional beam; Selecting , for display , one or more second beam types for representing the same satellite coverage area, the second beam types being selected from one of the micro beam, the standard beam, and the regional beam; retrieving metrics from at least one subsystem in a satellite communication system; displaying a map of the satellite coverage area; overlaying a plurality of coverage beams from each of the selected first beam type and one or more second beam types on the map in accordance with their respective coverage portions of the satellite coverage area; displaying information corresponding to random access channel (RACH) count within each coverage beam within the satellite coverage area; and applying a color scheme to provide status information for each coverage beam corresponding to retrieved metrics, the status information being obtained, at least in part, from the retrieved metrics. Selecting , for display , a first beam type for representing a satellite coverage area, the first beam type being selected from one of a micro beam, a standard beam, and a regional beam; Selecting , for display , one or more second beam types for representing the same satellite coverage area, the second beam types being selected from one of the micro beam, the standard beam, and the regional beam; retrieving metrics from at least one subsystem in a satellite communication system; displaying a map of the satellite coverage area; overlaying a plurality of coverage beams from each of the selected first beam type and one or more second beam types on the map in accordance with their respective coverage portions of the satellite coverage area; displaying information corresponding to random access channel (RACH) count within each coverage beam within the satellite coverage area; and applying a color scheme to provide status information for each coverage beam corresponding to retrieved metrics, the status information being obtained, at least in part, from the retrieved metrics.
A solenoid-operated module for an aircraft inflation system, comprising: a primary inflation valve having a main cavity , a command cavity , an inlet through which a gas enters the main cavity, an outlet , a poppet that controls a gas flow from the inlet to the outlet, and a valve divider separating the main cavity from the command cavity; a secondary inflation valve fluidly coupled to the outlet of the primary inflation valve; a secondary valve actuator having an actuator inlet fluidly coupled to an outlet of the command cavity, wherein the actuator, in a first state, prevents opening of the secondary inflation valve and obstructs the gas flow into the secondary inflation valve and in a second state allows the secondary inflation valve to open; and a solenoid that controls the gas flow into the command cavity and actuator inlet of secondary valve actuator to cause the secondary valve actuator to enter the second state and allows opening of the secondary inflation valve, thereby allowing the gas flow to flow through the secondary inflation valve. a primary inflation valve having a main cavity , a command cavity , an inlet through which a gas enters the main cavity, an outlet , a poppet that controls a gas flow from the inlet to the outlet, and a valve divider separating the main cavity from the command cavity; a secondary inflation valve fluidly coupled to the outlet of the primary inflation valve; a secondary valve actuator having an actuator inlet fluidly coupled to an outlet of the command cavity, wherein the actuator, in a first state, prevents opening of the secondary inflation valve and obstructs the gas flow into the secondary inflation valve and in a second state allows the secondary inflation valve to open; and a solenoid that controls the gas flow into the command cavity and actuator inlet of secondary valve actuator to cause the secondary valve actuator to enter the second state and allows opening of the secondary inflation valve, thereby allowing the gas flow to flow through the secondary inflation valve.