mhurhangee/patent-ind-claim-en huggingface dataset:
A compressor control apparatus for controlling the operation of two compressors, comprising: a first and a second alternating current (AC) switch configured to switch AC power applied to a first and a second compressor (C1, C2) based on a first and a second control signal; a first and a second current detection unit configured to detect a first and a second motor drive current applied to a first and a second motor provided in the first compressor and the second compressor (C1, C2), respectively; a first and a second voltage detection unit configured to detect a first and a second motor drive voltage applied to the first and the second motor; a first and a second stroke calculation unit configured to calculate a first and second stroke of the first compressor and the second compressor, respectively; and a control unit configured to generate the first and the second control signal based on a firing angle varying according to a load of the first and the second compressor (C1, C2) and to output them to the first and the second alternating current switch , thereby an operation rate of the first or the second compressor (C1, C2) is controlled, wherein the compressor control apparatus is configured to operate the first and the second compressor (C1, C2) in a simultaneous manner or the first compressor (C1) or the second compressor (C2) in a separate manner, and wherein the load of the first and second compressors is detected using a phase difference between the detected motor drive current and an estimated stroke value, and a phase difference between the detected motor drive voltage and the estimated stroke value. a first and a second alternating current (AC) switch configured to switch AC power applied to a first and a second compressor (C1, C2) based on a first and a second control signal; a first and a second current detection unit configured to detect a first and a second motor drive current applied to a first and a second motor provided in the first compressor and the second compressor (C1, C2), respectively; a first and a second voltage detection unit configured to detect a first and a second motor drive voltage applied to the first and the second motor; a first and a second stroke calculation unit configured to calculate a first and second stroke of the first compressor and the second compressor, respectively; and a control unit configured to generate the first and the second control signal based on a firing angle varying according to a load of the first and the second compressor (C1, C2) and to output them to the first and the second alternating current switch , thereby an operation rate of the first or the second compressor (C1, C2) is controlled, wherein the compressor control apparatus is configured to operate the first and the second compressor (C1, C2) in a simultaneous manner or the first compressor (C1) or the second compressor (C2) in a separate manner, and wherein the load of the first and second compressors is detected using a phase difference between the detected motor drive current and an estimated stroke value, and a phase difference between the detected motor drive voltage and the estimated stroke value.
A powdered build material supply system for additive manufacturing, the system comprising: a supply deck ; a movable dispenser to dispense a ribbon of powdered build material on to the supply deck, the dispenser comprising: a receptacle to hold powdered build material an opening through which powdered build material may be dispensed from the receptacle; a metering blade along the opening to layer powdered build material dispensed from the receptacle on to the supply deck when the dispenser is moving over the surface, the thickness of the ribbon corresponding to a gap between the metering blade and the supply deck, the gap being small enough to choke the flow of powdered build material from the dispenser to the supply deck when the dispenser is stationary over the supply deck; a spreader to spread powdered build material from the ribbon over a work area ; and a wiping blade to wipe the supply deck when the receptacle is moving over the supply deck. a supply deck ; a movable dispenser to dispense a ribbon of powdered build material on to the supply deck, the dispenser comprising: a receptacle to hold powdered build material an opening through which powdered build material may be dispensed from the receptacle; a metering blade along the opening to layer powdered build material dispensed from the receptacle on to the supply deck when the dispenser is moving over the surface, the thickness of the ribbon corresponding to a gap between the metering blade and the supply deck, the gap being small enough to choke the flow of powdered build material from the dispenser to the supply deck when the dispenser is stationary over the supply deck; a receptacle to hold powdered build material an opening through which powdered build material may be dispensed from the receptacle; a metering blade along the opening to layer powdered build material dispensed from the receptacle on to the supply deck when the dispenser is moving over the surface, the thickness of the ribbon corresponding to a gap between the metering blade and the supply deck, the gap being small enough to choke the flow of powdered build material from the dispenser to the supply deck when the dispenser is stationary over the supply deck; a spreader to spread powdered build material from the ribbon over a work area ; and a wiping blade to wipe the supply deck when the receptacle is moving over the supply deck.
Pharmaceutical formulation in the form of non-coated tablets, coated tablets, tablets with multiple layers, lozenges, capsules or pills comprising ibuprofen or one of its pharmaceutically acceptable salts and codeine or one of its pharmaceutically acceptable salts, in combination with a pharmaceutically acceptable excipient, said excipient comprising at least: one diluent, a disintegrant, a fluidifying agent and a lubricant, characterized in that the diluent is mannitol, the disintegrant is sodium starch glycolate, the fluidifying agent is colloidal anhydrous silica, and the lubricant is sodium stearyl fumarate, and that the formulation additionally comprises pregelatinized starch as an additional diluent and/or disintegrant.
A communication method, comprising: identifying , at an access point, a subframe number associated with a corresponding subframe designated to carry a broadcast channel; determining , at the access point, a reference boundary for the subframe out of two different reference boundaries within a corresponding radio frame that includes the subframe; setting , by the access point, a subframe number indicator for the subframe based on the subframe number and the reference boundary; and transmitting , by the access point via the broadcast channel, the subframe number indicator for the subframe, wherein the determining comprises setting the reference boundary to a first subframe within a first portion of the radio frame or a second subframe within a second portion of the radio frame. identifying , at an access point, a subframe number associated with a corresponding subframe designated to carry a broadcast channel; determining , at the access point, a reference boundary for the subframe out of two different reference boundaries within a corresponding radio frame that includes the subframe; setting , by the access point, a subframe number indicator for the subframe based on the subframe number and the reference boundary; and transmitting , by the access point via the broadcast channel, the subframe number indicator for the subframe, wherein the determining comprises setting the reference boundary to a first subframe within a first portion of the radio frame or a second subframe within a second portion of the radio frame.
Fabric belt for the production of a corrugated cardboard web in a corrugated cardboard machine having several warp layers , wherein a surface of its upper warp layer has at least first regions which consist of first yarns , and second regions which consist of second yarns , wherein - the first yarns contain 30% b.w. to 100% b.w. aromatic polyamides, 0% b.w. to 70% b.w. aliphatic and/or alicyclic polyamides and 0% b.w. to 5% b.w. other materials, wherein the total of the polyamides and other materials gives 100% b.w., and - the second yarns contain 50% b.w. to 85% b.w. polyester and/or aliphatic polyamides and/or alicyclic polyamides, 15% b.w. to 50% b.w. cellulose and 0% b.w. to 5% b.w. other materials, wherein the total of the polyesters, polyamides, cellulose and other materials gives 100% b.w., characterised in that in at least one edge region of the fabric belt, a surface of its upper wrap layer has at least first regions and second regions. - the first yarns contain 30% b.w. to 100% b.w. aromatic polyamides, 0% b.w. to 70% b.w. aliphatic and/or alicyclic polyamides and 0% b.w. to 5% b.w. other materials, wherein the total of the polyamides and other materials gives 100% b.w., and - the second yarns contain 50% b.w. to 85% b.w. polyester and/or aliphatic polyamides and/or alicyclic polyamides, 15% b.w. to 50% b.w. cellulose and 0% b.w. to 5% b.w. other materials, wherein the total of the polyesters, polyamides, cellulose and other materials gives 100% b.w.,
Damping device for a fluid pressure actuator , comprising a cartridge suitable to be inserted in a cartridge seat formed in a head of the actuator and a damper screw inserted in the said cartridge, wherein said cartridge extends about a cartridge axis (X) between a proximal end defined by an end wall in which is formed an end opening suitable to be engaged by a terminal portion of the damper screw , and an open distal end (10"), wherein a distal portion of the cartridge has a cylindrical inner surface , a head of the damper screw sealingly engaging the cylindrical inner surface of the cartridge , characterized in that the distal portion of the cartridge has a conical outer surface and at the conical outer surface the thickness of the distal portion of the cartridge increases towards said open distal end (10"), in such a way that, when the cartridge is inserted in the cartridge seat , said distal portion of the cartridge bends towards the cartridge axis (X) as a result of the interaction between the side wall of the cartridge seat and the conical outer surface , forming an undercut that prevents the damper screw from exiting the cartridge through the open distal end (10").
A method for producing a hybrid substrate comprising the steps of implanting ions into a surface of a semiconductor substrate to form an ion-implanted region , bonding the ion-implanted surface of the semiconductor substrate to a surface of an insulating sapphire substrate as support substrate via an insulating film , and separating the semiconductor substrate at the ion-implanted region , leaving a hybrid substrate having a semiconductor layer on the support substrate , characterized in that the sapphire substrate is heat treated at a temperature of 700 to 1,100°C in a reducing atmosphere before the step of bonding the sapphire substrate to the semiconductor substrate.
Device for the motion transmission onto cycles comprising: - at least a connecting core able to be associated with a frame of a cycle in a rotatable way around an axis of rotation ; - a ring gear lying on a lying plane surrounding said core and able to be coupled to a flexible transmission element closed on itself in a loop for starting said cycle along a direction of forward movement ; and - oscillation means placed between said connecting core and said ring gear and able to tilt said lying plane with respect to said axis of rotation , wherein said oscillation means comprise at least a flexible body adapted to allow a variation in the tilting position of said ring gear with respect to said core such that said ring gear will adjust to a misalignment with the flexible transmission element ; characterized by the fact that said oscillation means comprise a plurality of said flexible bodies having an elongated lamellae shape. - at least a connecting core able to be associated with a frame of a cycle in a rotatable way around an axis of rotation ; - a ring gear lying on a lying plane surrounding said core and able to be coupled to a flexible transmission element closed on itself in a loop for starting said cycle along a direction of forward movement ; and - oscillation means placed between said connecting core and said ring gear and able to tilt said lying plane with respect to said axis of rotation , wherein said oscillation means comprise at least a flexible body adapted to allow a variation in the tilting position of said ring gear with respect to said core such that said ring gear will adjust to a misalignment with the flexible transmission element ;
A vehicle body structure of a saddle type vehicle comprising: a rear vehicle body mono-frame having a merging portion configured to merge a pair of right and left front vehicle body frames provided with at least a part of a fuel tank interposed therebetween behind the fuel tank and below a seat , and also configured to extend continuously to the front vehicle body frames characterized by that the rear vehicle body mono-frame comprises a fuel tank installing portion on which the fuel tank is installed, and a cushion installing portion on which a cushion is installed and which supports the fuel tank installing portion . a rear vehicle body mono-frame having a merging portion configured to merge a pair of right and left front vehicle body frames provided with at least a part of a fuel tank interposed therebetween behind the fuel tank and below a seat , and also configured to extend continuously to the front vehicle body frames characterized by that the rear vehicle body mono-frame comprises a fuel tank installing portion on which the fuel tank is installed, and a cushion installing portion on which a cushion is installed and which supports the fuel tank installing portion .
Trailer coupling for motor vehicles comprising a ball neck , which is mountable at a first end on a rear part of a motor vehicle to be fixed to the vehicle by means of a ball neck holder and which carries a coupling ball at a second end , wherein at least one positioning body is arranged on the ball neck at a defined spacing from the coupling ball to position a load carrier holding arrangement attachable to the coupling ball and the ball neck , wherein the positioning body is arranged on a ball neck section of the ball neck , which adjoins a ball attachment piece of the ball neck that carries the coupling ball , wherein the positioning body extends transversely to a course of the ball neck section carrying this positioning body , wherein a respective positioning body is arranged on the ball neck section on opposite sides thereof, wherein starting from a ball neck section carrying the positioning bodies these extend away from the ball neck section in a direction of extent and the direction of extent of the positioning body extends transversely to the ball neck section carrying this, wherein the positioning bodies bear at least one positioning face , which is arranged on an outer surface of the positioning body , and characterised in that the positioning face is a surface region of a geometric surface, which intersects the ball neck section carrying the positioning body , and in that the positioning faces lie outside a projection contour (PK) of the coupling ball , which is formed by projection of the coupling ball onto the positioning body .
A method of determining a genomic estimated breeding value (GEBV) or a genomic predicted transmitting ability (GPTA) of a non-human mammalian fetus or embryo comprising: extracting DNA from the one or more fetal or embryonic cells which have been derived from an in vivo embryo or fetus which remains viable, by amniocentesis; genotyping the DNA to obtain a genotype for the fetus or embryo; and determining a GEBV or a GPTA of the fetus or embryo based on the genotype. extracting DNA from the one or more fetal or embryonic cells which have been derived from an in vivo embryo or fetus which remains viable, by amniocentesis; genotyping the DNA to obtain a genotype for the fetus or embryo; and determining a GEBV or a GPTA of the fetus or embryo based on the genotype.
A method , performed by a processor, for controlling a robot in the presence of one or more unexpected moving objects , the method comprising: capturing a plurality of frames from a three-dimensional camera system of a predetermined space to identify expected moving connected objects, MCO, therein, including the robot; analyzing further frames captured by the three-dimensional camera to identify one or more MCOs in each further frame; comparing the or each MCO in each further frame with expected MCOs to determine a count of unexpected MCOs and to disregard any expected MCO; if the count is above zero after the expected MCOs are disregard, instructing the robot to perform a first action; when the count reaches zero instructing the robot to stop the first action and to recommence a normal operation; wherein identifying a moving connected object, MCO, comprising determining a group of voxels of the MCO and determining whether the motion vectors for the group of voxels are consistent. capturing a plurality of frames from a three-dimensional camera system of a predetermined space to identify expected moving connected objects, MCO, therein, including the robot; analyzing further frames captured by the three-dimensional camera to identify one or more MCOs in each further frame; comparing the or each MCO in each further frame with expected MCOs to determine a count of unexpected MCOs and to disregard any expected MCO; if the count is above zero after the expected MCOs are disregard, instructing the robot to perform a first action; when the count reaches zero instructing the robot to stop the first action and to recommence a normal operation; wherein identifying a moving connected object, MCO, comprising determining a group of voxels of the MCO and determining whether the motion vectors for the group of voxels are consistent.
A refrigeration compressor comprising: a crankcase carrying a cylinder and further comprising a bearing hub defining a radial bearing ; a crankshaft mounted in the radial bearing and having an eccentric end portion and a free end portion which project outwardly from a first and from a second end portion , respectively, of the bearing hub ; a piston lodged in the cylinder ; a connecting rod coupling the eccentric end portion of the crankshaft to the piston , wherein at least the second end portion , among the first and the second end portions of the bearing hub , comprises a respective bushing , which is affixed in the interior of the bearing hub , wherein the second end portion of the bearing hub presents a terminal portion against which is radially and externally seated an end portion of the bushing , characterized in that said terminal portion presents a reduced radial thickness so as to be elastically and radially deformed, outwardly, jointly with the end portion of the bushing , when the latter is pressed by a confronting region of the crankshaft presenting a coaxiality deviation of its axis (Yl) in relation to the axis (XI) of the radial bearing .
A protective bag dispensing system for bagging a flat panel cassette detector of a mobile x-ray apparatus, comprising: - a back panel element mountable against an external and operator-accessible side of a cart of said mobile x-ray apparatus, said back panel element having dimensions which are exceeding the size of a protective bag being dispensed, - a front panel element joined to said back panel element at the bottom side of both panels forming a cavity for supporting and accommodating an X-ray detector during a bagging process, - a bag holding means for hanging down a stack of multiple protective bags , said protective bags individually and removably attached from their top sides allowing an individual bag to be removed from the stack while inserting said X-ray detector into the first available protective bag, - said protective bags exceeding the size of the mobile x-ray detector being bagged, and characterized in that : the back panel element comprises at least two segments arranged in a hinged configuration. - a back panel element mountable against an external and operator-accessible side of a cart of said mobile x-ray apparatus, said back panel element having dimensions which are exceeding the size of a protective bag being dispensed, - a front panel element joined to said back panel element at the bottom side of both panels forming a cavity for supporting and accommodating an X-ray detector during a bagging process, - a bag holding means for hanging down a stack of multiple protective bags , said protective bags individually and removably attached from their top sides allowing an individual bag to be removed from the stack while inserting said X-ray detector into the first available protective bag, - said protective bags exceeding the size of the mobile x-ray detector being bagged, and characterized in that : the back panel element comprises at least two segments arranged in a hinged configuration.
An additive manufacturing system comprising: an extruder having a motor ; a gantry assembly for moving the extruder along toolpaths; a pressure sensor producing pressure values representing sensed pressure in the extruder ; characterized by a model, receiving speed values for the motor and generating a predicted pressure value from the speed values wherein the speed values for the motor change while the gantry moves the extruder a long a tool path; and a response threshold module setting a response threshold pressure value based on the predicted pressure value such that when the response threshold pressure value is between a pressure value from the pressure sensor and the predicted pressure value, a response is executed. an extruder having a motor ; a gantry assembly for moving the extruder along toolpaths; a pressure sensor producing pressure values representing sensed pressure in the extruder ; characterized by a model, receiving speed values for the motor and generating a predicted pressure value from the speed values wherein the speed values for the motor change while the gantry moves the extruder a long a tool path; and a response threshold module setting a response threshold pressure value based on the predicted pressure value such that when the response threshold pressure value is between a pressure value from the pressure sensor and the predicted pressure value, a response is executed.