CN110893546B - Production process of centrifugal blood pump rotor - Google Patents
Production process of centrifugal blood pump rotor Download PDFInfo
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- CN110893546B CN110893546B CN201911237370.6A CN201911237370A CN110893546B CN 110893546 B CN110893546 B CN 110893546B CN 201911237370 A CN201911237370 A CN 201911237370A CN 110893546 B CN110893546 B CN 110893546B
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23P—METAL-WORKING NOT OTHERWISE PROVIDED FOR; COMBINED OPERATIONS; UNIVERSAL MACHINE TOOLS
- B23P21/00—Machines for assembling a multiplicity of different parts to compose units, with or without preceding or subsequent working of such parts, e.g. with programme control
- B23P21/004—Machines for assembling a multiplicity of different parts to compose units, with or without preceding or subsequent working of such parts, e.g. with programme control the units passing two or more work-stations whilst being composed
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23K—SOLDERING OR UNSOLDERING; WELDING; CLADDING OR PLATING BY SOLDERING OR WELDING; CUTTING BY APPLYING HEAT LOCALLY, e.g. FLAME CUTTING; WORKING BY LASER BEAM
- B23K31/00—Processes relevant to this subclass, specially adapted for particular articles or purposes, but not covered by only one of the preceding main groups
- B23K31/02—Processes relevant to this subclass, specially adapted for particular articles or purposes, but not covered by only one of the preceding main groups relating to soldering or welding
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23K—SOLDERING OR UNSOLDERING; WELDING; CLADDING OR PLATING BY SOLDERING OR WELDING; CUTTING BY APPLYING HEAT LOCALLY, e.g. FLAME CUTTING; WORKING BY LASER BEAM
- B23K37/00—Auxiliary devices or processes, not specially adapted to a procedure covered by only one of the preceding main groups
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Abstract
The invention discloses a production process of a centrifugal blood pump rotor, belonging to the technical field of production processes of medical instruments, and comprising the following steps of 1, feeding a motor magnet and an impeller, and 2, pressing a bearing magnet stack in the impeller: step 3, pressing four motor magnets into the impeller: the conveyor belt moves the pressed impeller to the position below the motor magnet mounting mechanism, and the motor magnet mounting mechanism presses the motor magnet into the impeller; step 4, the base is pressed into the impeller and welded to be molded, the steps of press mounting of the bearing magnetic pile of the centrifugal blood pump rotor, motor magnet installation and base welding can be automatically completed, the motor magnet installation mechanism can install four motor magnets in the impeller at the same time, and workers do not need to install the motor magnets one by one; the process design of the invention is ingenious, the connection between the working procedures is smooth, the consistency of the produced products is good, the yield is high, more than 70 percent of labor can be saved in the whole process, and the invention has better economic value.
Description
Technical Field
The invention relates to the technical field of production processes of medical instrument accessories, in particular to a production process of a centrifugal blood pump rotor.
Background
In cardiovascular medicine, the clinical use of artificial hearts (or blood pumps) as a bridge to heart transplantation or as a form of end-stage treatment to support patients with advanced heart disease has become an accepted clinical practice. The number of patients suffering from heart disease requiring a heart replacement operation is quite large, but the serious shortage of transplant donors makes the treatment of most heart disease patients difficult, and even loses the chance of survival. Therefore, the development of a high-performance heart pump is of great significance.
Ventricular assist devices may use a blood pump to power the patient's blood, thereby pushing the blood to high pressure. One example of a ventricular assist device is a Left Ventricular Assist Device (LVAD). The LVAD is connected to the left ventricle of the patient's heart where oxygenated blood enters the LVAD through the blood inlet of the LAVD. LVAD then provides momentum to the blood. A blood outlet through the LVAD is connected to the aorta of the patient; the pumped blood may re-enter the patient point circulatory system. Common LVADs, however, currently include positive displacement pumps and rotary pumps. In which a rotary pump urges blood through rotation of an impeller in the pump, a rotary blood pump, which may be of the centrifugal or axial type, in which blood enters the pump along a rotational axis of the pump and exits the pump perpendicular to the rotational axis, includes a spindle and a rotor formed by an impeller connected to the spindle.
As shown in fig. 1 and 2, the assembly of the rotor of the conventional centrifugal blood pump is mostly manually operated, and firstly, the bearing magnetic stack 2 is arranged in an annular cavity on the bottom surface of the impeller 1; then the motor magnet 3 is arranged in the impeller recess, finally the base 4 is arranged on the impeller 1, and the joint is sealed by laser welding. Degree of automation is lower, and need more labour, great economic pressure has been increased for the mill, motor magnet 3 has four, and all need the workman to install four motor magnet 3 one by one and place in four pockets of impeller 1 respectively, whole process is high to workman's requirement, as long as bearing magnetic pile 2, motor magnet 3 installs not in place, or the welding is not firm during the welding, all can cause badly, consequently, work efficiency is low, the defective rate is high, be difficult to extensive batch automated production, the high cost of centrifugal blood pump has also been caused, need improve.
Disclosure of Invention
The invention aims to provide a production process of a centrifugal blood pump rotor, which aims to solve the technical problems of low assembly efficiency and low automation degree of the traditional centrifugal blood pump rotor in the prior art.
The invention provides a production process of a centrifugal blood pump rotor, which comprises the following steps:
Further, in the step 2, the vibration disc works to push the bearing magnetic pile towards the direction of the feeding channel, the material moving cylinder works to push the material pushing plate towards the direction of the trapezoidal block, the material pushing plate moves the bearing magnetic pile to move, the bearing magnetic pile moves to a position where the bearing magnetic pile abuts against the trapezoidal block, the rotating motor works to drive the driving gear to rotate, the driving gear can drive the driven gear meshed with the driving gear to rotate, the rotating cylinder can drive the fixing frame to rotate through the connecting frame, the fixing frame can drive the transmission lead screw and the feeding plate to rotate, the feeding plate can drive the lifting cylinder and the clamping cylinder to rotate, the clamping cylinder can move to a direction close to the vibration disc, the driving motor works to drive the transmission lead screw to rotate, and the transmission lead screw can drive the feeding plate in threaded connection with the transmission lead screw to move, the feeding plate can drive the lifting cylinder and the clamping cylinder to move above the bearing magnetic pile, the lifting cylinder can move the clamping cylinder to a proper position when working, the bearing magnetic pile can be clamped by the clamping plate, the clamping cylinder can clamp the bearing magnetic pile under the action of the clamping plate when working, the lifting cylinder can take out the bearing magnetic pile when working, the clamping cylinder can move above the impeller under the action of the rotating cylinder, and the bearing magnetic pile can be pressed on the impeller under the secondary action of the lifting cylinder;
in the step 3, the four-claw cylinder grabs the four motor magnets, the pushing cylinder works to enable the supporting seat to drive the sliding plate to move horizontally, the sliding plate drives the four-claw cylinder to move above the four motor magnets, the lifting cylinder works to enable the lifting seat to move vertically, the bearing frame can move in the vertical direction, the bearing frame can drive the four-claw cylinder to lift, the limiting plate at the bottom of each clamping jaw of the four-claw cylinder moves to a position where the limiting plate can be abutted against the motor magnets, the four-claw cylinder works to enable the four clamping jaws to work simultaneously to enable the motor magnets to be pressed on the limiting posts by the four limiting plates, the lifting cylinder works again to enable the bearing frame to lift, the four clamped motor magnets can lift, the clamped motor magnets can be placed into the impeller under the work of the pushing cylinder, and the cylinder position is lifted, the pushing cylinder works to enable the four-jaw cylinder to move a small distance, and the lifting cylinder works again to enable the limiting plate to press the motor magnet into the impeller;
in the step 4, the feeding motor works to drive the second chain wheel to rotate, so that the second chain wheel drives the first chain wheel to rotate through the chain, the chain drives the sliding block through the driving frame in the moving process to move, the sliding block drives the first double-rod cylinder and the second double-rod cylinder to move, the welding device and the material taking cylinder move, the material taking cylinder works to enable the two arc-shaped material taking plates to move relatively, the two arc-shaped material taking plates clamp the base on the uppermost layer, the second double-rod cylinder resets to enable the base to be taken out, the base can be moved to the position above the conveying belt under the action of the feeding assembly, the second double-rod cylinder works again to enable the clamped base to be tightly pressed on the impeller, and the welding device moves to the position above the impeller under the re-action of the feeding motor to realize the welding operation of the impeller and the base, and finishing the assembly operation of the centrifugal blood pump rotor.
Further, the bearing magnetic pile press-mounting mechanism and the motor magnet mounting mechanism are symmetrically arranged on two sides of the conveyor belt, the base welding mechanism is arranged above the conveyor belt, the motor magnet mounting mechanism comprises a sliding plate, a workbench, a material pushing assembly, a lifting assembly, a clamping assembly and a bearing frame, the sliding plate can be slidably arranged on the bearing frame, the lifting assembly is arranged below the sliding plate, the clamping assembly is arranged at the bottom of the sliding plate, the material pushing assembly is arranged on the side wall of the bearing frame, the bearing frame is horizontally arranged above the workbench, the clamping assembly comprises a mounting plate, a four-jaw air cylinder and a limiting column arranged at the bottom of the mounting plate, the four-jaw air cylinder is vertically arranged at the top of the mounting plate, a limiting plate is arranged at the bottom of each clamping jaw of the four-jaw air cylinder, and an arc-shaped groove is arranged on the limiting plate, four bearing rods are arranged between the mounting plate and the sliding plate.
Furthermore, the lifting assembly comprises a fixed plate and two lifting cylinders, the fixed plate is horizontally arranged, the two lifting cylinders are arranged at the top of the fixed plate at intervals, lifting seats are arranged on two sides of the bearing frame, the output ends of the lifting cylinders are fixedly connected with the bottoms of the two lifting seats respectively, the fixed plate is arranged below the workbench, four fixed columns distributed in a matrix mode are arranged at the top of the workbench, sliding columns in sliding fit with the fixed columns are arranged on the fixed columns, and the bearing frame is fixed to the tops of the four sliding columns.
Furthermore, the material pushing assembly comprises a supporting seat, a material pushing seat arranged at the top of the sliding plate and a material pushing cylinder horizontally arranged at the top of the material pushing seat, the output end of the material pushing cylinder is fixedly connected with the side wall of the supporting seat, a supporting block is arranged at the top of the workbench, and four positioning grooves used for limiting the motor magnet are formed in the top of the supporting block.
Further, bearing magnetic pile pressure equipment mechanism is including the vibration dish, move the material subassembly, bear the frame and move the material cylinder, it sets up between conveyer belt and vibration dish to move the material subassembly, bear the side that the frame set up at the vibration dish, it sets up at the top of bearing the frame to move material cylinder level, be equipped with the pay-off passageway on the vibration dish, the delivery outlet of pay-off passageway is equipped with the chute feeder rather than the intercommunication, be equipped with the scraping wings on the output of moving the material cylinder, be equipped with the trapezoidal piece that two symmetries set up in the chute feeder.
Further, the material moving assembly comprises a fixed table, a rotating motor and a rotating cylinder vertically arranged at the top of the fixed table, the bottom of the rotating cylinder is connected with the top of the fixed table through a bearing, a driven gear is sleeved on the rotating cylinder, the rotating motor is arranged at the bottom of the fixed table, the output end of the rotating motor is upwards arranged, a driving gear meshed with the driven gear is sleeved on the output end of the rotating motor, the material moving assembly further comprises a driving motor, a feeding plate, a clamping cylinder, a lifting cylinder and a fixed frame horizontally arranged, a connecting frame is arranged between the top of the fixed frame and the top of the rotating cylinder, a transmission lead screw rotationally connected with the fixed frame is arranged on the fixed frame, the transmission lead screw is horizontally arranged, the feeding plate is in sliding fit with the fixed frame, a screw in threaded fit with the transmission lead screw is arranged on the feeding plate, the lifting cylinder is fixed at the top of the feeding plate, the output end of the lifting cylinder is vertically arranged downwards, an L-shaped mounting plate is fixed on the output end of the lifting cylinder, the clamping cylinder is fixed on the L-shaped mounting plate, a clamping plate is arranged on the clamping end of the clamping cylinder, and the clamping plate is of an arc-shaped structure.
Further, base welding mechanism is including portal frame, feeding unit, welding ware, stock subassembly and the slide rail of setting in the portal frame bottom, feeding unit sets up the top at the portal frame, be equipped with on the slide rail rather than sliding fit's sliding block, the bottom of sliding block is equipped with the first double-rod cylinder and the second double-rod cylinder that the interval set up, be equipped with the connecting plate on the output of first double-rod cylinder, the welding ware sets up the bottom at the connecting plate, be equipped with the install bin on the output of the second double-rod cylinder, be equipped with the material cylinder of getting that the output set up down in the install bin, get the arc that is equipped with two intervals settings on the output of material cylinder and get the flitch.
Furthermore, the feeding assembly comprises a feeding motor and a mounting seat arranged at the top of the gantry frame, a connecting shaft is arranged on the mounting seat, a first chain wheel is sleeved on the connecting shaft, a second chain wheel is sleeved on the output end of the feeding motor, the first chain wheel and the second chain wheel are in transmission connection through a chain, a driving frame is arranged at the top of the sliding block, and the driving frame is fixedly connected with the chain.
Further, the material stock subassembly is including lifting disk, brace table, lead screw lift and four arc risers that are the circumference and distribute at brace table top, the lifting disk sets up between four arc risers, the below of brace table is equipped with the bearing board that the level set up, the lead screw lift sets up the top at the bearing board, be equipped with the lift lead screw on the lead screw lift, the top of lift lead screw is rotated with the bottom of lifting disk and is connected.
Compared with the prior art, the invention has the beneficial effects that:
the invention comprises a conveyor belt, a bearing magnetic stack press-mounting mechanism, a motor magnet installation mechanism and a base welding mechanism, wherein the conveyor belt is provided with a plurality of limiting components which are arranged at equal intervals along the conveying direction of the conveyor belt, the motor magnet installation mechanism can simultaneously install four motor magnets in an impeller without installing the motor magnets one by workers, the bearing magnetic stack press-mounting mechanism can realize the feeding of the bearing magnetic stack, and the bearing magnetic pile is pressed in the impeller, the base welding mechanism can realize that the bases are taken out one by one, and the base can be welded on the impeller, the invention can automatically complete the steps of press mounting of the bearing magnetic pile of the centrifugal blood pump rotor, installation of the motor magnet and welding of the base, the technical problems that the traditional centrifugal blood pump rotor is low in assembling efficiency and low in automation degree in the prior art are solved.
Secondly, the motor magnet installation mechanism is arranged and comprises a sliding plate, a workbench, a material pushing assembly, a lifting assembly, a clamping assembly and a bearing frame, the four motor magnets can be grabbed through the motor magnet installation mechanism, the four motor magnets can be simultaneously installed in the impeller, workers do not need to install the motor magnets one by one, the labor amount of the workers is reduced, the automation degree is high, and the motor magnet installation mechanism is worthy of popularization.
Thirdly, the bearing magnetic pile press-mounting mechanism is arranged and comprises a vibration disc, a material moving assembly, a bearing frame and a material moving cylinder, the bearing magnetic pile can be pressed and mounted in the impeller through the bearing magnetic pile press-mounting mechanism, the vibration disc is adopted, workers do not need to manually load the bearing magnetic pile, the bearing magnetic pile can be taken out and automatically pressed and mounted in the impeller, the workers do not need to manually press and mount the bearing magnetic pile, and the labor intensity of the workers is reduced.
The base welding mechanism comprises a portal frame, a feeding assembly, a welding device, a material storage assembly and a sliding rail arranged at the bottom of the portal frame, the bases can be taken out one by one through the base welding mechanism, the bases can be pressed into the impellers, welding operation on the bases and the impellers can be completed under the action of the welding device, unmanned workers can install and weld the bases with high automation degree, and economic pressure is reduced for factories.
Fifthly, a plurality of limiting assemblies which are arranged at equal intervals along the conveying direction of the conveying belt are arranged on the conveying belt, each limiting assembly comprises a limiting strip and four positioning strips which are distributed circumferentially, the impeller is placed among the four positioning strips, so that the positioning strips can realize positioning operation on the impeller, subsequent assembly operation on the impeller is facilitated, the limiting strips can limit the impeller, and the bearing magnetic pile and the motor magnet can be accurately installed on the impeller;
sixth, the process of the invention realizes the automatic production of the centrifugal blood pump rotor, the process design is ingenious, the connection between the working procedures is smooth, the consistency of the produced products is good, the yield is high, more than 70% of labor can be saved in the whole process, and the process has better economic value.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below, and it is obvious that the drawings in the following description are some embodiments of the present invention, and other drawings can be obtained by those skilled in the art without creative efforts.
FIG. 1 is a schematic perspective view of a centrifugal blood pump rotor;
FIG. 2 is an exploded view of a centrifugal blood pump rotor;
FIG. 3 is a schematic perspective view of the present invention;
FIG. 4 is a schematic top view of the present invention;
FIG. 5 is a schematic perspective view of a motor magnet mounting mechanism;
FIG. 6 is a partially exploded view of the motor magnet mounting mechanism;
FIG. 7 is a schematic perspective view of the bearing stack press-fitting mechanism and the conveyor belt;
FIG. 8 is a partial perspective view of the bearing magnetic stack press-fitting mechanism;
FIG. 9 is an enlarged view taken at A in FIG. 8;
FIG. 10 is a schematic front view of the base welding mechanism;
FIG. 11 is a schematic view of a partial perspective view of a base welding mechanism;
FIG. 12 is a process flow diagram of the present invention.
Reference numerals:
Detailed Description
The technical solutions of the present invention will be described clearly and completely with reference to the accompanying drawings, and it should be understood that the described embodiments are some, but not all embodiments of the present invention.
The components of embodiments of the present invention generally described and illustrated in the figures herein may be arranged and designed in a wide variety of different configurations. Thus, the following detailed description of the embodiments of the present invention, presented in the figures, is not intended to limit the scope of the invention, as claimed, but is merely representative of selected embodiments of the invention.
All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
In the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicate orientations or positional relationships based on the orientations or positional relationships shown in the drawings, and are only for convenience of description and simplicity of description, but do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, should not be construed as limiting the present invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.
In the description of the present invention, it should be noted that, unless otherwise explicitly specified or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, e.g., as meaning either a fixed connection, a removable connection, or an integral connection; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.
Referring to fig. 1 to 12, an embodiment of the present invention provides a production process of a centrifugal blood pump rotor, including the following steps:
step 1, feeding a motor magnet and an impeller: set up conveyer belt 5, bearing magnetic pile pressure equipment mechanism 6 motor magnet installation mechanism 7 and base welding mechanism 8, be equipped with the spacing subassembly 51 that a plurality of set up along the direction of transfer of conveyer belt 5 equidistant on the conveyer belt 5, every spacing subassembly 51 is all including spacing 52 and four location strips 53 that are the circumference and distribute, every location strip 53 all is the arc structure, spacing strip 52 sets up on conveyer belt 5, and spacing strip 52 is used for spacing impeller 1, and at first, the manual four motor magnet 3 that will cooperate with impeller 1 of workman are placed respectively in four constant head tanks 612, and four-jaw cylinder 762 snatchs four motor magnet 3, and material pushing cylinder 743 work can make supporting seat 741 drive sliding plate 72 horizontal migration, makes sliding plate 72 can drive four-jaw cylinder 762 and remove to the top of four motor magnet 3, and four-jaw cylinder 762 work can make four clamping jaws work simultaneously and make motor magnet 3 can be compressed tightly at the limit by four limiting plates 77 On the position column 763, the impeller 1 is placed among the four positioning strips 53, so that the positioning strips 53 can position the impeller 1;
In the step 2, the vibration disk 61 works to push the bearing magnetic pile 2 to the direction of the feeding channel 611, the material moving cylinder 621 works to push the material pushing plate 63 to the direction of the trapezoidal blocks 64, so that the material pushing plate 63 drives the bearing magnetic pile 2 to move, so that the bearing magnetic pile 2 moves to a position where the bearing magnetic pile 2 abuts against the trapezoidal blocks 64, the rotating motor 652 works to drive the driving gear 655 to rotate, so that the driving gear 655 can drive the driven gear 654 engaged with the driving gear to rotate, so that the rotating cylinder 653 can drive the fixing frame 664 to rotate through the connecting frame 665, the fixing frame 664 can drive the transmission screw rod 666 and the feeding plate 661 to rotate, so that the feeding plate 661 can drive the lifting cylinder 663 and the clamping cylinder 662 to rotate, so that the clamping cylinder 662 can move to a direction close to the vibration disk 61, and the driving motor 66 works to drive the transmission screw rod 666 to rotate, the transmission screw rod 666 can drive the feeding plate 661 in threaded connection with the transmission screw rod to move, the feeding plate 661 can drive the lifting cylinder 663 and the clamping cylinder 662 to move to the position above the bearing magnetic stack 2, the lifting cylinder 663 can move the clamping cylinder 662 to a proper position to enable the bearing magnetic stack 2 to be clamped by the clamping plate, the clamping cylinder 662 can clamp the bearing magnetic stack 2 under the action of the clamping plate, the lifting cylinder 663 can work to take out the bearing magnetic stack 2, the clamping cylinder 662 can move to the position above the impeller 1 under the action of the rotating cylinder, and the bearing magnetic stack 2 can be pressed on the impeller 1 under the secondary action of the lifting cylinder 663;
in the step 3, the four-jaw cylinder 762 grabs the four motor magnets 3, the pushing cylinder 743 works to enable the supporting seat 741 to drive the sliding plate 72 to move horizontally, the sliding plate 72 drives the four-jaw cylinder 762 to move above the four motor magnets 3, the lifting cylinder 755 works to enable the lifting seat 752 to move vertically, the bearing frame 71 can move in the vertical direction, the bearing frame 71 can drive the four-jaw cylinder 762 to lift, the limit plate 77 at the bottom of each clamping jaw of the four-jaw cylinder 762 moves to a position where the four clamping jaws can collide with the motor magnets 3, the four-jaw cylinder 762 works to enable the four clamping jaws to work simultaneously, the motor magnets 3 can be pressed on the limit posts 763 by the four limit plates 77, the lifting cylinder 663 works again to enable the bearing frame 71 to lift, the four clamped motor magnets 3 can lift, and the clamped motor magnets 3 can be placed into the impeller 1 under the work of the pushing cylinder 743, the lifting cylinder 663 is reset, the material pushing cylinder 743 works to enable the four-claw cylinder 762 to move a small distance, and the lifting cylinder 663 works again to enable the limiting plate 77 to press the motor magnet 3 into the impeller 1;
in the step 4, the feeding motor 85 is operated to drive the second sprocket 855 to rotate, so that the second sprocket 855 drives the first sprocket 854 to rotate through the chain 856, the chain 856 drives the sliding block 871 to move through the driving rack 852 in the moving process, the sliding block 871 drives the first dual-rod cylinder 872 and the second dual-rod cylinder 873 to move, the welder 83 and the material taking cylinder 84 are moved, the material taking cylinder 84 operates to move the two arc-shaped material taking plates 89 relatively, the two arc-shaped material taking plates 89 clamp the uppermost layer of the base 4, the second dual-rod cylinder 873 resets to take out the base 4, the base 4 can be moved to the position above the conveyor belt 5 under the action of the feeding assembly 82, the second dual-rod cylinder 873 operates again to press the clamped base 4 to the impeller 1, and the welder 83 is moved to the position above the impeller 1 under the re-operation of the feeding motor 85, the welding operation of the impeller 1 and the base 4 is realized, and the assembling operation of the centrifugal blood pump rotor is completed.
The bearing magnetic pile press-mounting mechanism 6 and the motor magnet mounting mechanism 7 are symmetrically arranged on two sides of the conveyor belt 5, the base welding mechanism 8 is arranged above the conveyor belt 5, the motor magnet mounting mechanism 7 comprises a sliding plate 72, a workbench 73, a pushing assembly 74, a lifting assembly 75, a clamping assembly 76 and a bearing frame 71, the sliding plate 72 can be slidably arranged on the bearing frame 71, the lifting assembly 75 is arranged below the sliding plate 72, the clamping assembly 76 is arranged at the bottom of the sliding plate 72, the pushing assembly 74 is arranged on the side wall of the bearing frame 71, the bearing frame 71 is horizontally arranged above the workbench 73, the clamping assembly 76 comprises a mounting plate 761, a four-jaw cylinder 762 and a limiting column 763 arranged at the bottom of the mounting plate 761, the four-jaw cylinder 762 is vertically arranged at the top of the mounting plate 761, a limiting plate 77 is arranged at the bottom of each clamping jaw of the four-jaw cylinder 762, the limiting plate 77 is provided with an arc-shaped groove, and four bearing rods 78 are arranged between the mounting plate 761 and the sliding plate 72; the four motor magnets 3 can be grabbed through the motor magnet mounting mechanism 7, the four motor magnets 3 can be simultaneously mounted in the impeller 1, the motor magnets 3 do not need to be mounted one by workers, the labor amount of workers is reduced, the automation degree is high, and the impeller is worthy of popularization, the workers manually place the four motor magnets 3 matched with the impeller 1 in the four positioning grooves 612 respectively, the four motor magnets 3 can be grabbed by the four-jaw cylinder 762 conveniently, the material pushing cylinder 743 can enable the supporting seat 741 to drive the sliding plate 72 to horizontally move, the sliding plate 72 can drive the four-jaw cylinder 762 to move above the four motor magnets 3, and the four-jaw cylinder 762 can enable the four clamping jaws to simultaneously work to enable the motor magnets 3 to be pressed on the limiting columns 763 by the four limiting plates 77; the bearing magnetic pile 2 can be pressed and mounted in the impeller 1 through the bearing magnetic pile press-mounting mechanism 6, the bearing magnetic pile 2 is not required to be manually loaded by workers through the vibration disc 61, the bearing magnetic pile 2 can be taken out and automatically pressed and mounted in the impeller 1, the bearing magnetic pile 2 is not required to be manually pressed and mounted by workers, the labor intensity of the workers is reduced, the base 4 can be taken out one by one through the base welding mechanism 8, the base 4 can be pressed into the impeller 1, the welding operation of the base 4 and the impeller 1 can be completed under the action of the welder 83, the base 4 is installed and welded by unmanned workers with higher automation degree, the economic pressure is reduced for factories, the impeller 1 is placed among the four positioning strips 53, the positioning strips 53 can realize the positioning operation of the impeller 1, the subsequent assembly operation of the impeller 1 is convenient, the limiting strips 52 can realize the limiting of the impeller 1, the bearing magnetic stack 2 and the motor magnet 3 can be accurately installed on the impeller 1.
Specifically, the lifting assembly 75 includes a fixed plate 751 horizontally disposed and two lifting cylinders 755 disposed at the top of the fixed plate 751 at intervals, the two sides of the carrying frame 71 are both provided with lifting seats 752, the output ends of the two lifting cylinders 755 are respectively fixedly connected with the bottoms of the two lifting seats 752, the fixed plate 751 is disposed below the worktable 73, the top of the worktable 73 is provided with four fixed columns 753 distributed in a matrix, each fixed column 753 is provided with a sliding column 754 in sliding fit therewith, and the carrying frame 71 is fixed at the tops of the four sliding columns 754; the lifting cylinder 755 works to enable the lifting seat 752 to vertically move, so that the bearing frame 71 can move in the vertical direction, the bearing frame 71 can drive the four-jaw cylinder 762 to lift, the limiting plate 77 at the bottom of each clamping jaw of the four-jaw cylinder 762 moves to a position where the limiting plate can be abutted against the motor magnet 3, the lifting cylinder 663 works again to enable the bearing frame 71 to lift, and the clamped four motor magnets 3 can lift.
Specifically, the pushing assembly 74 includes a supporting seat 741, a pushing seat 742 disposed at the top of the sliding plate 72, and a pushing cylinder 743 horizontally disposed at the top of the pushing seat 742, an output end of the pushing cylinder 743 is fixedly connected to a side wall of the supporting seat 741, a supporting block 744 is disposed at the top of the working table 73, and four positioning slots 612 for limiting the motor magnet 3 are disposed at the top of the supporting block 744; the clamped motor magnet 3 can be placed into the impeller 1 under the work of the material pushing cylinder 743, the lifting cylinder 663 resets, the material pushing cylinder 743 works to enable the four-jaw cylinder 762 to move a small distance, the lifting cylinder 663 works again to enable the limiting plate 77 to press the motor magnet 3 into the impeller 1, a worker manually places the four motor magnets 3 matched with the impeller 1 into the four positioning grooves 612 respectively, and the four-jaw cylinder 762 can grab the four motor magnets 3 conveniently.
Specifically, the bearing magnetic pile press-loading mechanism 6 comprises a vibration disc 61, a material moving assembly 65, a bearing frame 62 and a material moving cylinder 621, wherein the material moving assembly 65 is arranged between the conveyor belt 5 and the vibration disc 61, the bearing frame 62 is arranged at the side of the vibration disc 61, the material moving cylinder 621 is horizontally arranged at the top of the bearing frame 62, the vibration disc 61 is provided with a feeding channel 611, a feeding groove 745 communicated with the feeding channel 611 is arranged at an output port of the feeding channel 611, a material pushing plate 63 is arranged at an output end of the material moving cylinder 621, and two symmetrically arranged trapezoidal blocks 64 are arranged in the feeding groove 745; the bearing magnetic pile 2 can be pressed in the impeller 1 through the bearing magnetic pile press-fitting mechanism 6, the bearing magnetic pile 2 can be fed by the vibration disc 61 without manual operation of workers, the bearing magnetic pile 2 can be taken out and automatically pressed in the impeller 1 without manual operation of the workers, the labor intensity of the workers is reduced, the bearing magnetic pile 2 can be pushed towards the feeding channel 611 by the vibration disc 61, the material pushing plate 63 can be pushed towards the trapezoidal block 64 by the material moving cylinder 621, the bearing magnetic pile 2 can be driven by the material pushing plate 63 to move, and the bearing magnetic pile 2 can be moved to the position where the bearing magnetic pile 2 is abutted against the trapezoidal block 64,
specifically, the material moving assembly 65 comprises a fixed table 651, a rotating motor 652 and a rotating cylinder 653 vertically arranged at the top of the fixed table 651, the bottom of the rotating cylinder 653 is connected with the top of the fixed table 651 through a bearing, a driven gear 654 is sleeved on the rotating cylinder 653, the rotating motor 652 is arranged at the bottom of the fixed table 651, the output end of the rotating motor 652 is arranged upward, and a driving gear 655 meshed with the driven gear 654 is sleeved on the output end of the rotating motor 652; the rotating motor 652 works to drive the driving gear 655 to rotate, the driving gear 655 can drive the driven gear 654 engaged with the driving gear to rotate, the rotating cylinder 653 can drive the fixing frame 664 to rotate through the connecting frame 665, the fixing frame 664 can drive the transmission screw rod 666 and the feeding plate 661 to rotate, the feeding plate 661 can drive the lifting cylinder 663 and the clamping cylinder 662 to rotate, and the clamping cylinder 662 can move to the direction close to the vibrating disk 61.
Specifically, the material moving assembly 65 further comprises a driving motor 66, a feeding plate 661, a clamping cylinder 662, a lifting cylinder 663 and a horizontally arranged fixing frame 664, wherein a connecting frame 665 is arranged between the fixing frame 664 and the top of the rotary cylinder 653, the fixing frame 664 is provided with a transmission screw rod 666 which is rotatably connected with the fixing frame 664, the transmission screw rod 666 is horizontally arranged, the feeding plate 661 is in sliding fit with the fixing frame 664, the feeding plate 661 is provided with a screw nut which is in threaded fit with the transmission screw rod 666, the lifting cylinder 663 is fixed at the top of the feeding plate 661, the output end of the lifting cylinder 663 is vertically arranged downwards, an L-shaped mounting plate 67 is fixed at the output end of the lifting cylinder 663, the clamping cylinder 662 is fixed on the L-shaped mounting plate 67, a clamping plate 68 is arranged at the clamping end of the clamping cylinder 662, and the clamping plate 68 is of an arc-shaped structure; the driving motor 66 can make the transmission screw rod 666 rotate, the transmission screw rod 666 can drive the feeding plate 661 in threaded connection with the transmission screw rod to move, the feeding plate 661 can drive the lifting cylinder 663 and the clamping cylinder 662 to move to the upper side of the bearing magnetic stack 2, the lifting cylinder 663 can move the clamping cylinder 662 to a proper position, the bearing magnetic stack 2 can be clamped by the clamping plate, the clamping cylinder 662 can clamp the bearing magnetic stack 2 under the action of the clamping plate, the lifting cylinder 663 can make the bearing magnetic stack 2 take out, the clamping cylinder 662 can move to the upper side of the impeller 1 under the action of the rotating cylinder, the bearing magnetic stack 2 can be pressed on the impeller 1 under the secondary action of the lifting cylinder 663, and the pressed impeller 1 can be moved to the lower side of the motor magnet mounting mechanism 7 by the conveyor belt 5.
Specifically, the base welding mechanism 8 comprises a portal frame 81, a feeding assembly 82, a welder 83, a material taking cylinder 84, a material storing assembly 86 and a sliding rail 87 arranged at the bottom of the portal frame 81, wherein the feeding assembly 82 is arranged at the top of the portal frame 81, the sliding rail 87 is provided with a sliding block 871 in sliding fit with the sliding block 87, the bottom of the sliding block 871 is provided with a first double-rod cylinder 872 and a second double-rod cylinder 873 which are arranged at intervals, the output end of the first double-rod cylinder 872 is provided with a connecting plate 874, the welder 83 is arranged at the bottom of the connecting plate 874, the output end of the second double-rod cylinder 873 is provided with a mounting box 88, the mounting box 88 is internally provided with the material taking cylinder 84 with the output end facing downwards, and the output end of the material taking cylinder 84 is provided with two arc-shaped material taking plates 89 which are arranged at intervals; the base welding mechanism 8 can be used for taking out the bases 4 one by one, the bases 4 can be pressed into the impeller 1, the welding operation of the bases 4 and the impeller 1 can be completed under the action of the welder 83, the automation degree is high, manual installation and welding operation of the bases 4 are not needed, the economic pressure is reduced for a factory, the two arc-shaped material taking plates 89 can be moved relatively under the operation of the material taking cylinder 84, the bases 4 on the uppermost layer can be clamped by the two arc-shaped material taking plates 89, the bases 4 can be taken out under the reset of the second double-rod cylinder 873, the bases 4 can be moved to the upper side of the conveyor belt 5 under the action of the feeding component 82, the clamped bases 4 can be pressed on the impeller 1 under the secondary operation of the second double-rod cylinder 873, the welder 83 can be moved to the upper side of the impeller 1 under the secondary operation of the feeding motor 85, the welding operation of the impeller 1 and the base 4 is realized, and the assembling operation of the centrifugal blood pump rotor is completed.
Specifically, the feeding assembly 82 comprises a feeding motor 85 and a mounting seat 851 arranged at the top of a portal frame 81, wherein the mounting seat 851 is provided with a connecting shaft 853, the connecting shaft 853 is sleeved with a first chain wheel 854, the output end of the feeding motor 85 is sleeved with a second chain wheel 855, the first chain wheel 854 and the second chain wheel 855 are in transmission connection through a chain 856, the top of a sliding block 871 is provided with a driving frame 852, and the driving frame 852 is fixedly connected with the chain 856; the work of pay-off motor 85 can drive second sprocket 855 and take place to rotate, makes second sprocket 855 drive first sprocket 854 through chain 856 and takes place to rotate, makes chain 856 can drive sliding block 871 through drive frame 852 and remove at the in-process that removes, makes sliding block 871 can drive first double-rod cylinder 872 and second double-rod cylinder 873 and remove, makes welding ware 83 and gets material cylinder 84 and can remove.
Specifically, the material storage assembly 86 comprises a lifting disk 861, a support table 862, a screw rod lifter 863 and four arc-shaped vertical plates 864 circumferentially distributed at the top of the support table 862, the lifting disk 861 is arranged between the four arc-shaped vertical plates 864, a horizontally arranged support plate 865 is arranged below the support table 862, the screw rod lifter 863 is arranged at the top of the support plate 865, a lifting screw rod 866 is arranged on the screw rod lifter 863, and the top end of the lifting screw rod 866 is rotatably connected with the bottom of the lifting disk 861; after the base 4 is taken out, the screw rod lifter 863 can make the lifting screw rod 866 vertically move during working, so that the lifting screw rod 866 can drive the lifting disc 861 to move, the lifting disc 861 can drive the stacked bases 4 to integrally move upwards for a certain distance, and the material taking cylinder 84 is convenient to take the materials from the bases 4 on the uppermost layer.
Specifically, each limiting assembly 51 comprises a limiting strip 52 and four positioning strips 53 distributed circumferentially, each positioning strip 53 is of an arc-shaped structure, the limiting strip 52 is arranged on the conveyor belt 5, and the limiting strip 52 is used for limiting the impeller 1; impeller 1 places between four location strips 53, makes location strip 53 can realize the location operation to impeller 1, is convenient for to impeller 1's follow-up assembly operation, and spacing 52 can realize spacing to impeller 1, makes bearing magnetic pile 2 and motor magnet 3 can accurately install on impeller 1.
Finally, it should be noted that: the above embodiments are only used to illustrate the technical solution of the present invention, and not to limit the same; while the invention has been described in detail and with reference to the foregoing embodiments, it will be understood by those skilled in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some or all of the technical features may be equivalently replaced; and the modifications or the substitutions do not make the essence of the corresponding technical solutions depart from the scope of the technical solutions of the embodiments of the present invention.
Claims (9)
1. A production process of a centrifugal blood pump rotor is characterized by comprising the following steps:
step 1, feeding a motor magnet and an impeller: the device is characterized by comprising a conveyor belt (5), a bearing magnetic pile press-mounting mechanism (6), a motor magnet installation mechanism (7) and a base welding mechanism (8), wherein a plurality of limiting assemblies (51) are arranged on the conveyor belt (5) at equal intervals along the conveying direction of the conveyor belt (5), each limiting assembly (51) comprises a limiting strip (52) and four positioning strips (53) which are distributed circumferentially, each positioning strip (53) is of an arc-shaped structure, the limiting strips (52) are arranged on the conveyor belt (5), the limiting strips (52) are used for limiting an impeller (1), firstly, a worker manually places four motor magnets (3) matched with the impeller (1) in four positioning grooves (745) respectively, a four-claw cylinder (762) captures the four motor magnets (3), and a material pushing cylinder (743) can enable a supporting seat (741) to drive a sliding plate (72) to move horizontally, the sliding plate (72) can drive the four-jaw cylinder (762) to move above the four motor magnets (3), the four-jaw cylinder (762) can work to enable the four clamping jaws to work simultaneously, so that the motor magnets (3) can be pressed on the limiting columns (763) by the four limiting plates (77), the impeller (1) is placed among the four positioning strips (53), and the positioning strips (53) can realize the positioning operation on the impeller (1);
step 2, pressing the bearing magnetic pile in the impeller: then, the bearing magnetic pile (2) is pressed in the impeller (1) through the bearing magnetic pile pressing mechanism (6), the vibration disc (61) is used for feeding the bearing magnetic pile (2), and the bearing magnetic pile (2) is taken out and automatically pressed in the impeller (1); the vibrating disc (61) works to push the bearing magnetic pile (2) to the direction of the feeding channel (611), the material moving cylinder (621) works to push the material pushing plate (63) to the direction of the trapezoidal block (64), so that the material pushing plate (63) drives the bearing magnetic pile (2) to move, the bearing magnetic pile (2) moves to a position where the bearing magnetic pile is abutted against the trapezoidal block (64), the rotating motor (652) works to drive the driving gear (655) to rotate, the driving gear (655) can drive the driven gear (654) meshed with the driving gear to rotate, the rotating cylinder (653) can drive the fixing frame (664) to rotate through the connecting frame (653), the fixing frame (664) can drive the transmission screw rod (666) and the feeding plate (661) to rotate, and the feeding plate (665) can drive the lifting cylinder (663) and the clamping cylinder (662) to rotate, the clamping cylinder (662) can move to the direction close to the vibrating disk (61), the driving motor (66) works to enable the transmission screw rod (666) to rotate, the transmission screw rod (666) can drive the feeding plate (661) in threaded connection with the transmission screw rod to move, the feeding plate (661) can drive the lifting cylinder (663) and the clamping cylinder (662) to move to the upper part of the bearing magnetic stack (2), the lifting cylinder (663) works to move the clamping cylinder (662) to a proper position, the bearing magnetic stack (2) can be clamped by the clamping plate, the clamping cylinder (662) works to clamp the bearing magnetic stack (2) under the action of the clamping plate, the lifting cylinder (663) works to take out the bearing magnetic stack (2), and the clamping cylinder (662) can be moved to the upper part of the impeller (1) under the action of the rotating cylinder, the bearing magnetic pile (2) can be pressed on the impeller (1) under the secondary action of the lifting cylinder (663);
step 3, pressing four motor magnets into the impeller: the conveyor belt (5) moves the pressed impeller (1) to the lower part of the motor magnet mounting mechanism (7), and the motor magnet mounting mechanism (7) presses the motor magnet (3) into the impeller (1); the four-claw cylinder (762) grabs the four motor magnets (3), the pushing cylinder (743) works to enable the supporting seat (741) to drive the sliding plate (72) to move horizontally, the sliding plate (72) drives the four-claw cylinder (762) to move to the positions above the four motor magnets (3), the lifting cylinder (755) works to enable the lifting seat (752) to move vertically, the bearing frame (71) can move in the vertical direction, the bearing frame (71) can drive the four-claw cylinder (762) to lift, a limiting plate (77) at the bottom of each clamping jaw of the four-claw cylinder (762) moves to a position capable of abutting against the motor magnets (3), the four-claw cylinder (762) works to enable the four clamping jaws to work simultaneously, the motor magnets (3) can be pressed on the limiting columns (763) by the four limiting plates (77), and the lifting cylinder (663) works again to enable the bearing frame (71) to lift, the four clamped motor magnets (3) can be lifted, the clamped motor magnets (3) can be placed into the impeller (1) under the action of the material pushing cylinder (743), the lifting cylinder (663) is reset, the material pushing cylinder (743) works to enable the four-claw cylinder (762) to move for a short distance, and the lifting cylinder (663) works again to enable the limiting plate (77) to press the motor magnets (3) into the impeller (1);
step 4, pressing the base into the impeller and welding for forming: finally, the base welding mechanism (8) takes out the bases (4) one by one, then the bases (4) are pressed into the impeller (1), the welding operation of the bases (4) and the impeller (1) is completed under the action of the welder (83) of the base welding mechanism (8), the feeding motor (85) works to drive the second chain wheel (855) to rotate, the second chain wheel (855) drives the first chain wheel (854) to rotate through the chain (856), the chain (856) drives the sliding block (871) to move through the driving frame (852) in the moving process, the sliding block (871) drives the first double-rod cylinder (872) and the second double-rod cylinder (873) to move, the welder (83) and the material taking cylinder (84) move, the material taking cylinder (84) works, the two arc-shaped material taking plates (89) move relatively, and the two arc-shaped material taking plates (89) clamp the bases (4) on the uppermost layer, the second double-rod cylinder (873) is reset, so that the base (4) is taken out, the base (4) can be moved to the position above the conveyor belt (5) under the action of the feeding assembly (82), the second double-rod cylinder (873) works again to enable the clamped base (4) to be pressed on the impeller (1), and the welder (83) is moved to the position above the impeller (1) under the re-action of the feeding motor (85) to achieve the welding operation of the impeller (1) and the base (4), and the production of the centrifugal blood pump rotor is completed.
2. The production process of the centrifugal blood pump rotor as claimed in claim 1, wherein the bearing magnetic stack press-fitting mechanism (6) and the motor magnet installation mechanism (7) are symmetrically arranged on two sides of the conveyor belt (5), the base welding mechanism (8) is arranged above the conveyor belt (5), the motor magnet installation mechanism (7) comprises a sliding plate (72), a workbench (73), a pushing assembly (74), a lifting assembly (75), a clamping assembly (76) and a bearing frame (71), the sliding plate (72) can be slidably arranged on the bearing frame (71), the lifting assembly (75) is arranged below the sliding plate (72), the clamping assembly (76) is arranged at the bottom of the sliding plate (72), the pushing assembly (74) is arranged on the side wall of the bearing frame (71), the bearing frame (71) is horizontally arranged above the workbench (73), centre gripping subassembly (76) including mounting panel (761), four-jaw cylinder (762) and setting at spacing post (763) of mounting panel (761) bottom, the vertical top that sets up at mounting panel (761) of four-jaw cylinder (762), limiting plate (77) are all installed to the bottom of every clamping jaw of four-jaw cylinder (762), be equipped with the arc recess on limiting plate (77), be equipped with four carrier bars (78) between mounting panel (761) and sliding plate (72).
3. The production process of the centrifugal blood pump rotor as claimed in claim 2, wherein the lifting assembly (75) comprises a fixing plate (751) arranged horizontally and two lifting cylinders (755) arranged at the top of the fixing plate (751) at intervals, lifting seats (752) are arranged on both sides of the bearing frame (71), the output ends of the two lifting cylinders (755) are respectively fixedly connected with the bottoms of the two lifting seats (752), the fixing plate (751) is arranged below the workbench (73), four fixing columns (753) distributed in a matrix are arranged at the top of the workbench (73), each fixing column (753) is provided with a sliding column (754) in sliding fit with the fixing column, and the bearing frame (71) is fixed at the tops of the four sliding columns (754).
4. The production process of the centrifugal blood pump rotor according to claim 2, wherein the pushing assembly (74) comprises a supporting seat (741), a pushing seat (742) arranged at the top of the sliding plate (72), and a pushing cylinder (743) horizontally arranged at the top of the pushing seat (742), the output end of the pushing cylinder (743) is fixedly connected with the side wall of the supporting seat (741), the top of the working table (73) is provided with a supporting block (744), and the top of the supporting block (744) is provided with four positioning slots (745) for limiting the motor magnet (3).
5. The production process of the centrifugal blood pump rotor according to claim 2, wherein the bearing magnetic stack press-fitting mechanism (6) comprises a vibration disc (61), a material moving assembly (65), a bearing frame (62) and a material moving cylinder (621), the material moving assembly (65) is arranged between the conveyor belt (5) and the vibration disc (61), the bearing frame (62) is arranged at the side of the vibration disc (61), the material moving cylinder (621) is horizontally arranged at the top of the bearing frame (62), a feeding channel (611) is arranged on the vibration disc (61), a feeding groove (612) communicated with the feeding channel (611) is formed in an output port of the feeding channel (611), a material pushing plate (63) is arranged at an output end of the material moving cylinder (621), and two symmetrically arranged trapezoidal blocks (64) are arranged in the feeding groove (612).
6. The production process of the centrifugal blood pump rotor as claimed in claim 5, characterized in that the material moving assembly (65) comprises a fixed table (651), a rotating motor (652) and a rotating cylinder (653) vertically arranged at the top of the fixed table (651), the bottom of the rotating cylinder (653) is connected with the top of the fixed table (651) through a bearing, a driven gear (654) is sleeved on the rotating cylinder (653), the rotating motor (652) is arranged at the bottom of the fixed table (651), the output end of the rotating motor (652) is arranged upwards, a driving gear (655) meshed with the driven gear (654) is sleeved on the output end of the rotating motor (652), the material moving assembly (65) further comprises a driving motor (66), a feeding plate (661), a clamping cylinder (662), a lifting cylinder (663) and a horizontally arranged fixed frame (664), be equipped with link (665) between the top of fixed frame (664) and rotatory section of thick bamboo (653), be equipped with on fixed frame (664) rather than rotate transmission lead screw (666) of being connected, transmission lead screw (666) are the level setting, feed plate (661) and fixed frame (664) sliding fit, and be equipped with on feed plate (661) with transmission lead screw (666) screw-thread fit's screw, the top at feed plate (661) is fixed in lift cylinder (663), the vertical setting down of output of lift cylinder (663), be fixed with L type mounting panel (67) on the output of lift cylinder (663), centre gripping cylinder (662) are fixed on L type mounting panel (67), be equipped with clamp plate (68) on the exposed core of centre gripping cylinder (662), clamp plate (68) are the arc structure.
7. The production process of the centrifugal blood pump rotor as claimed in claim 2, wherein the base welding mechanism (8) comprises a portal frame (81), a feeding assembly (82), a welder (83), a material taking cylinder (84), a material storing assembly (86) and a sliding rail (87) arranged at the bottom of the portal frame (81), the feeding assembly (82) is arranged at the top of the portal frame (81), a sliding block (871) in sliding fit with the sliding rail (87) is arranged on the sliding rail (87), a first double-rod cylinder (872) and a second double-rod cylinder (873) are arranged at the bottom of the sliding block (871) at intervals, a connecting plate (874) is arranged at the output end of the first double-rod cylinder (872), the welder (83) is arranged at the bottom of the connecting plate (874), a mounting box (88) is arranged at the output end of the second double-rod cylinder (873), the material taking cylinder (84) with the output end arranged downwards is arranged in the mounting box (88), the output end of the material taking cylinder (84) is provided with two arc-shaped material taking plates (89) which are arranged at intervals.
8. The production process of the centrifugal blood pump rotor as claimed in claim 7, wherein the feeding assembly (82) comprises a feeding motor (85) and a mounting seat (851) arranged at the top of a portal frame (81), a connecting shaft (853) is arranged on the mounting seat (851), a first chain wheel (854) is sleeved on the connecting shaft (853), a second chain wheel (855) is sleeved on the output end of the feeding motor (85), the first chain wheel (854) is in transmission connection with the second chain wheel (855) through a chain (856), a driving frame (852) is arranged at the top of a sliding block (871), and the driving frame (852) is fixedly connected with the chain (856).
9. The production process of the centrifugal blood pump rotor according to claim 7, wherein the stock component (86) comprises a lifting disk (861), a supporting platform (862), a screw rod lifter (863) and four arc-shaped vertical plates (864) which are circumferentially distributed at the top of the supporting platform (862), the lifting disk (861) is arranged between the four arc-shaped vertical plates (864), a horizontally arranged supporting plate (865) is arranged below the supporting platform (862), the screw rod lifter (863) is arranged at the top of the supporting plate (865), a lifting screw rod (866) is arranged on the screw rod lifter (863), and the top end of the lifting screw rod (866) is rotatably connected with the bottom of the lifting disk (861).
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| CN201911237370.6A CN110893546B (en) | 2019-12-05 | 2019-12-05 | Production process of centrifugal blood pump rotor |
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| CN201911237370.6A CN110893546B (en) | 2019-12-05 | 2019-12-05 | Production process of centrifugal blood pump rotor |
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| CN111318878B (en) * | 2020-03-23 | 2021-06-22 | 浙江中在医疗科技有限公司 | Automatic production process of magnetic suspension artificial heart blood pump |
| CN111318879B (en) * | 2020-03-23 | 2021-06-15 | 中国人民解放军空军军医大学 | Automatic production process of magnetic suspension artificial heart blood pump |
| CN111558792A (en) * | 2020-05-27 | 2020-08-21 | 安徽盛美金属科技有限公司 | Welding tool for automobile shock-absorbing support rod |
| CN112102704A (en) * | 2020-08-10 | 2020-12-18 | 上海有间建筑科技有限公司 | Wisdom mill is with real standard system of teaching |
Citations (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPH08118168A (en) * | 1994-10-25 | 1996-05-14 | Hitachi Ltd | Automatic gear assembling device by robot |
| CN105414962A (en) * | 2015-12-30 | 2016-03-23 | 考普瑞西元器件（珠海）有限公司 | Automatic water pump production line |
| CN110142590A (en) * | 2019-05-13 | 2019-08-20 | 深圳市兴特创自动化设备有限公司 | Rotor automatic press mounting machine |
Family Cites Families (7)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN201982364U (en) * | 2011-02-24 | 2011-09-21 | 北京航天控制仪器研究所 | Novel rotor of centrifugal blood pump |
| EP2743028B1 (en) * | 2012-12-17 | 2017-11-08 | General Electric Technology GmbH | System and method for manufacturing rotors |
| CN106363413B (en) * | 2015-07-24 | 2019-06-28 | 浙江三花汽车零部件有限公司 | The manufacturing method of electronic pump |
| CN105436886B (en) * | 2016-01-08 | 2017-08-29 | 利欧集团浙江泵业有限公司 | Water pump automatic assembly line |
| CN107283166B (en) * | 2017-08-16 | 2023-04-14 | 杭州泰尚机械有限公司 | Automatic assembly line for fuel pumps and operation method of automatic assembly line |
| CN108566060A (en) * | 2018-06-15 | 2018-09-21 | 留丹翠 | A kind of rotor assembling production equipment |
| CN109048327B (en) * | 2018-08-27 | 2019-10-01 | 郑小燕 | Special-shaped magnetic plate block toy automatic assembling technique |
-
2019
- 2019-12-05 CN CN201911237370.6A patent/CN110893546B/en active Active
Patent Citations (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPH08118168A (en) * | 1994-10-25 | 1996-05-14 | Hitachi Ltd | Automatic gear assembling device by robot |
| CN105414962A (en) * | 2015-12-30 | 2016-03-23 | 考普瑞西元器件（珠海）有限公司 | Automatic water pump production line |
| CN110142590A (en) * | 2019-05-13 | 2019-08-20 | 深圳市兴特创自动化设备有限公司 | Rotor automatic press mounting machine |
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