CN-121972605-A - Automatic production line for static vortex disc
Abstract
The invention discloses an automatic production line of a static vortex disc, which comprises cooling equipment and trimming equipment, wherein the cooling equipment comprises a cooling pool and a cooling arm, the cooling arm comprises a supporting claw for grasping a forging piece, a first lifting cylinder for sinking the supporting claw into the cooling pool, and a rotary cylinder for rotating the supporting claw to drain water, two supporting plates are arranged on two fingers of the supporting claw, the trimming equipment comprises a trimming table, the trimming table is provided with a static clamping block, a movable clamping block and a locking driving cylinder for driving the movable clamping block to tightly clamp the static clamping block, the trimming table is also provided with a main cylinder, a piston rod of the main cylinder is provided with a horizontal push-out knife, a knife blade of the push-out knife is level with the top surfaces of the movable clamping block and the static clamping block, the production line also comprises a first discharging six-axis mechanical arm for grasping the forging piece from a forging die to the supporting claw supporting plate, and a trimming mechanical arm for grasping the cooled forging piece from the supporting claw supporting plate to the static clamping block and the movable clamping block. The flanging of forging can be got rid of to this production line high efficiency.
Inventors
- ZHU HONGGUANG
- TANG YAMING
- LIU SHUJIU
- ZHANG YANTONG
- LIU YUNWEI
Assignees
- 宁波普锐明汽车零部件有限公司
Dates
- Publication Date
- 20260505
- Application Date
- 20260326
Claims (9)
- 1. The automatic production line of the fixed vortex disc comprises an intermediate frequency furnace, a graphite pool, a mesh belt furnace and a forging die and is characterized by further comprising cooling equipment and trimming equipment, wherein the cooling equipment comprises a cooling pool and a cooling arm, the cooling arm comprises a supporting claw for grasping a forging piece, a first lifting cylinder for sinking the supporting claw into the cooling pool and a rotary cylinder for rotating the supporting claw to drain water, a movable part of the first lifting cylinder is connected with a fixed part of the rotary cylinder, a rotary part of the rotary cylinder is connected with the supporting claw, and two supporting plates are arranged on two fingers of the supporting claw; The trimming equipment comprises a trimming table, wherein the trimming table is provided with a static clamping block, a movable clamping block and a locking driving cylinder for driving the movable clamping block to prop against the static clamping block; when the movable clamping block abuts against the static clamping block, the rear clamping port of the movable clamping block and the front clamping port of the static clamping block are closed to clamp the forging piece, and the flanging of the forging piece is higher than the top surfaces of the movable clamping block and the static clamping block; The production line also comprises a first discharging six-axis mechanical arm used for grabbing and conveying the forged piece from the forging die to the supporting claw supporting plate, and a trimming mechanical arm used for grabbing and conveying the cooled forged piece from the supporting claw supporting plate to the static clamping block and the movable clamping block.
- 2. The automatic fixed vortex disc production line according to claim 1 is characterized in that two parallel guide blocks are fixed on a trimming table, two ends of a static clamping block are fixed with the front ends of the two guide blocks, a movable clamping block is in sliding fit between the two guide blocks, a locking driving cylinder is perpendicular to the guide blocks, a trapezoidal locking block is arranged on a piston rod of the locking driving cylinder, a trapezoidal linkage block is arranged at the rear end of the movable clamping block, the front inclined surface of the trapezoidal locking block and the rear inclined surface of the trapezoidal linkage block are parallel to each other, an inclined hook strip is arranged at the rear side of the trapezoidal linkage block, and an inclined hook groove is formed at the front side of the trapezoidal locking block and is in hooking fit with the inclined hook strip.
- 3. The automatic production line of the fixed vortex disc, which is characterized by comprising a cleaning table, wherein a self-rotating motor is arranged below the cleaning table, a piston rod of the self-rotating motor penetrates through the cleaning table, a rotating head for sleeving a cut workpiece is fixed at the upper end of the piston rod, the rotating head is limited with the lower opening of the cut workpiece in the circumferential direction, a laser emitter which is opposite to the rotating head is arranged on the cleaning table through a vertical frame, an ejection cylinder is arranged below the cut table, a piston rod of the ejection cylinder is provided with a plug penetrating through the cut table, the plug is concentric with a rear clamping opening of a static clamping block, the plug is flush with the top surface of the cut table in the initial state, and the cut device further comprises a cleaning mechanical arm for grabbing the cut workpiece from the upper side of the plug to the rotating head.
- 4. The automatic production line for the fixed scroll as set forth in claim 3, wherein the trimming device further comprises a second discharging six-axis mechanical arm for grabbing the cleaned finished product from the rotating head and placing the finished product into the finished product frame.
- 5. The automatic production line of the fixed vortex plate, which is characterized in that the lower end of a discharging chute at the outlet of the intermediate frequency furnace is soaked in a graphite pool, the graphite pool is communicated with a liquid return pool through a liquid return pipe, the liquid return pipe is provided with a liquid return pump, a liquid draining channel for draining graphite to the liquid return pool is arranged above the liquid return pool, the mesh belt furnace further comprises a liquid draining mechanical arm for grabbing a rough blank at the tail end of the discharging chute to the liquid draining channel, and the mesh belt furnace further comprises a feeding mechanical arm for grabbing the rough blank at the liquid draining channel to the inlet of the mesh belt furnace.
- 6. The automatic production line of the fixed vortex plate, as set forth in claim 5, characterized in that the liquid draining channel is horizontally distributed, a guide cover with a big top and a small bottom is arranged at the front end of the liquid draining channel, a drawing driving cylinder is arranged at the front end of the liquid draining channel, an L plate is arranged on a piston rod of the drawing driving cylinder, and a vertical plate of the L plate stretches into the liquid draining channel to push the rough blank piece of the liquid draining channel to advance.
- 7. The automatic fixed vortex disc production line is characterized in that a rough blank to be preheated is placed in a feeding frame, a support is arranged at the feeding frame, a first linear module which spans over each feeding frame is arranged on a support beam, a first top light source and a first top camera are arranged on a sliding block of the first linear module, a detection table is arranged between the feeding frame and an intermediate frequency furnace, a transparent plate is arranged on a top plate of the detection table, a bottom light source and a bottom camera are arranged below the transparent plate, the intermediate frequency furnace further comprises a six-axis feeding manipulator for grabbing the rough blank from the feeding frame to the detection table for identification and adjustment, and then grabbing the rough blank forward and backward to an inlet of a preheating channel of the intermediate frequency furnace, and the first top light source, the first top camera, the bottom light source, the bottom camera and the six-axis feeding manipulator are all connected with a main controller.
- 8. The automatic fixed vortex disc production line of claim 7, wherein the tail end of the preheating channel of the intermediate frequency furnace is vertically communicated with a discharging chute and a waste chute, a baffle plate for blocking the tail end of the preheating channel is arranged between the discharging chute and the waste chute, a first temperature sensor is arranged on the baffle plate, the baffle plate is hinged with a screen plate, the intermediate frequency furnace is hinged with the lower end of a sorting cylinder body, a piston rod of the sorting cylinder is hinged with one end of the screen plate, the screen plate is parallel to the bottom of the discharging chute when the sorting cylinder is ejected out, the front end of the screen plate is tilted upwards to seal the inlet of the waste chute, the screen plate is parallel to the bottom of the waste chute when the sorting cylinder is retracted, the rear end of the screen plate is tilted upwards to seal the inlet of the discharging chute, and the sorting cylinder and the first temperature sensor are connected with the main controller.
- 9. The automatic production line of the fixed vortex disc, which is characterized in that an outlet of a mesh belt furnace is communicated with an inlet of a slope plate, closing side plates are arranged on two sides of the slope plate, the outlet of the slope plate is communicated with a conveyor belt, a detection station is arranged above the conveyor belt, a top plate of the detection station is provided with a second top light source and a second top camera, the top plate of the detection station is provided with a second temperature sensor, a recovery frame is arranged beside the detection station, the mesh belt furnace further comprises a six-axis discharging manipulator for placing a rough blank qualified in temperature from the outlet of the mesh belt furnace to a forging die and secondarily screening the rough blank, and the second top light source, the second top camera, the second temperature sensor and the six-axis discharging manipulator are all connected with a main controller.
Description
Automatic production line for static vortex disc Technical Field The invention relates to the technical field of manufacturing of automobile parts, in particular to an automatic production line for manufacturing a new energy oil-free air conditioner compressor static vortex disc. Background Forging is a processing method for forging a metal blank by applying pressure to the metal blank by using forging machinery to plastically deform the metal blank so as to obtain a forging piece with certain mechanical properties, shape and size. Forging can eliminate as-cast loose and welded holes of metal, so that its mechanical property is superior to that of casting of identical material, so that some important parts with high load and severe working condition in the machine are made up by adopting forging and pressing process. For example, a compression part of an oil-free air conditioner compressor for new energy vehicles in the automobile industry, namely a static vortex disc, is mostly manufactured by forging and pressing. The static vortex disc forging and pressing process is that a flat rough blank piece is placed into an upper cavity of a fixed mold core of a mold, forging and pressing equipment drives an upper mold mechanism and a pressing head to press downwards, and the lower part of the rough blank piece is plastically extruded into a volute lower cavity to form a volute of a forging piece. The forging die and the forging process of the fixed scroll belong to the mature prior art. The forging and pressing process is only one ring of the whole production line, the rough blank before forging and pressing is further subjected to a series of preceding processes such as preheating by an intermediate frequency furnace, soaking graphite, secondary heating by a mesh belt furnace and the like, and the forged and pressed forging piece is further subjected to subsequent processes such as flanging by machining, shot blasting and the like. Specifically, the worker manually places the rough blank into the inlet of the intermediate frequency furnace, pushes the rough blank into the intermediate frequency furnace along a first channel by a first pushing cylinder to preheat the rough blank to about 250 ℃, and then discharges the rough blank from the outlet. And then the preheated rough blank is clamped by a hand-held pliers of a worker and soaked in the graphite tank. And then, the rough blank piece clamped by a worker through the pliers after the secondary heating is sent to an upper cavity of a forging die for forging. During forging, the upper die mechanism presses down the rough blank in the upper die cavity of the fixed die core to enable the rough blank to be plastically deformed downwards to form a vortex body, the upper edge of the rough blank is synchronously and reversely extruded into a gap between the pressing head and the upper die cavity upwards to form an upward flanging, and therefore the flanging of the forged piece is required to be removed. The existing method is that a worker takes out a high-temperature forging piece from a die after die opening by using pliers, places the high-temperature forging piece on the ground to cool the high-temperature forging piece, and then manually turns off a flanging by using a numerical control machine tool. And finally, performing shot blasting and sand blasting on the cut workpiece to obtain a fixed vortex disc finished product. The above-described prior art fixed scroll production line and process have the following drawbacks. 1. The flanging procedure is carried out by manually clamping the high-temperature forging piece from the die, the clamping operation is complicated and laborious, the hidden danger of scalding exists, the high-temperature forging piece cannot be directly turned, the ground is required to be placed for full cooling, the continuity of production is broken, the time is long, the speed is low, the efficiency is low, the yield is restricted, the turning procedure is manually operated, the labor is wasted, the cutting consistency is poor, errors are easy, and the yield is insufficient. 2. During forging, graphite is soaked on the surface of a rough blank for heat insulation and temperature reduction, and the graphite is adhered to the surface of a forged piece, so that the color is blackish, the burden of a subsequent shot blasting and sand blasting process can be increased, a large number of sand shots are consumed, and the color of finished products on the rear side of the shot blasting is dark and non-uniform. 3. The mesh belt furnace is used as secondary heating, namely reheating equipment, has low automation degree, is labor-operated, consumes labor, increases labor cost, clamps high-temperature reheating workpieces, is complex and dangerous in operation, is highly dependent on worker experience, has poor consistency of time and rhythm of soaking and reheating feeding, is easy to influence soaking and reheating effects, and further, graphite is