CN118768486A - A multi-stage continuous aluminum alloy door frame stamping equipment - Google Patents

Abstract

The present invention discloses a multi-stage continuous aluminum alloy door frame stamping equipment, which relates to the field of intelligent equipment manufacturing technology. It includes a placement component for installing aluminum alloy door frame molds of different specifications; a filler stamping component for adding filling materials into the aluminum alloy door frame mold and subsequent stamping processing of the filling materials in the aluminum alloy door frame mold; a bearing component for providing a support platform for the placement component and the filler stamping component; a retrieval component is installed at one end of the top surface of the bearing component. By setting a retrieval component, the present invention enables the finished aluminum alloy door frame in the aluminum alloy door frame mold to transfer its own attribute data to the filler stamping component in real time during the stamping process. After receiving these real-time data, the filler stamping component can automatically adjust the stamping strength, speed and stamping depth, thereby ensuring that the aluminum alloy door frame achieves the best stamping effect, ensuring the accuracy and durability of the final product, and improving the stamping accuracy.

Description

A multi-stage continuous aluminum alloy door frame stamping equipment

Technical Field

The present invention relates to the technical field of intelligent equipment manufacturing, and in particular to a multi-stage continuous aluminum alloy door frame stamping device.

Background Art

In the manufacturing process of aluminum alloy door frames, the stamping process is a key link, and its efficiency and quality directly affect the market competitiveness of the product. Therefore, in order to improve efficiency and quality, a multi-stage continuous aluminum alloy door frame stamping equipment is urgently needed.

After searching, the publication number "CN116851583A" is named: an aluminum alloy door and window molding device, which drives gear 3 through two adjacent motors 5 and electric telescopic rods 4, meshes gear 4 or gear 5, and then enables several different molds 3 in the rotating body to complete the plastic work on the aluminum frame. When changing the mold, a large amount of manual work is not required, and the safety hazards caused by changing the mold can be greatly reduced;

In addition, the publication number "CN114985567A" is named: a continuous stamping device for metal accessories, which transmits the metal sheet to be stamped to the position of the stamping machine, and then controls the pushing mechanism to push the metal sheet to be stamped into the conveying channel of the stamping conveying seat, and the metal sheet to be stamped enters the stamping seat through the conveying channel, and then controls the stamping machine to drive the punching head to move downward into the stamping through hole to stamp the metal sheet to be stamped on the stamping seat. After the stamping is completed, the punching head is lifted up to bring the stamped metal part upward, and then the formed metal part falls from the other side of the conveying channel and is conveyed to the discharge conveying mechanism to leave the stamping machine, and at the same time, the next metal sheet is stamped, thereby realizing the automatic continuous stamping of metal accessories and eliminating the need for manual loading;

Since the pressure and force conditions at different positions of the aluminum alloy door frame are different during actual use, it is necessary to adjust and optimize the raw materials in the mold in real time during the stamping process to ensure the accuracy and durability of the final product. However, the above-mentioned disclosed device and similar devices do not fully consider the details of the aluminum alloy door frame stamping process during actual operation, and the accuracy is limited. Therefore, the applicant proposes a new multi-stage continuous aluminum alloy door frame stamping equipment to solve the above-mentioned problems.

Summary of the invention

The object of the present invention is to provide a multi-stage continuous aluminum alloy door frame stamping equipment to solve the problems raised in the above background technology.

To achieve the above object, the present invention provides the following technical solution: a multi-stage continuous aluminum alloy door frame stamping equipment, comprising:

Place components for installing aluminum alloy door frame molds of different specifications;

A filler stamping component is used to add filler material into the aluminum alloy door frame mold and subsequently perform stamping processing on the filler material in the aluminum alloy door frame mold;

A load-bearing assembly, used to provide a support platform for placing the assembly and the filler stamping assembly;

A retrieval component is installed at one end of the top surface of the bearing component, and the retrieval component is used to retrieve and evaluate the specifications, dimensions and quality of the finished aluminum alloy door frame in the aluminum alloy door frame mold. A push-pull component is installed at the other end of the top surface of the bearing component, and the push-pull component is used to act on the placement component and allow the placement component to reciprocate through the retrieval range of the retrieval component.

The retrieval component includes:

Two carrying seats, the two carrying seats are fixed on both sides of one end of the top surface of the bearing assembly, an assembly rod is fixed to the top of the inside of the carrying seat, and a plurality of sleeve rings are slidably sleeved on the outside of one end of the assembly rod, and the two ends of the bottom of the placement assembly are respectively fixed to the top of the outside of the first and last sleeve rings, and an interlaced rod is rotatably connected between the two sleeve rings at any end of different sides;

Racks are fixed at the bottom of the opposite surfaces of the two mounting seats, and half-wall gears are fixed at both ends of the insertion rod respectively. The half-wall gears and the racks are adapted to each other. A transmission component sleeved and fixed to the outside of the insertion rod is arranged between the two half-wall gears, and a detection probe that can be arranged inside the placement component is installed outside the output end of the transmission component;

When the push-pull assembly is in operation, the placement assembly moves back and forth on the mounting seat, and the half-wall gear just reaches the end of the rack when the push-pull assembly's one-way stroke ends, allowing the transmission component to run a complete one-way stroke to complete the inspection of the finished aluminum alloy door frame in the placement assembly.

As a further preferred embodiment of the present technical solution, a connecting notch is provided on the top surface of the mounting seat, the connecting notch penetrates the load-bearing component and forms an interlacing notch inside the load-bearing component, a hydraulic damping rod is fixedly installed on the bottom of the sleeve ring, and the top surface of the hydraulic damping rod base passes through the connecting notch and the interlacing notch in turn and is slidably installed inside the load-bearing component.

As a further preferred embodiment of the present technical solution, the transmission component includes:

A stud, which is sleeved and fixed outside the insertion rod and is co-centered with the insertion rod;

The output end is a threaded sleeve, which is matched with the stud. A horizontal bidirectional telescopic rod is installed on one end of the outer surface of the threaded sleeve. The bidirectional telescopic rod is parallel to the horizontal end of the bottom of the placement component. One end of the bidirectional telescopic rod is rotatably connected to the outer surface of the threaded sleeve, and the other end of the bidirectional telescopic rod is slidably connected to the side of the bottom of the placement component away from the stud.

The detection probes are provided with two, and the two detection probes are respectively mounted at two ends of the rod body of the bidirectional telescopic rod.

As a further preferred embodiment of the present technical solution, the placement component includes:

Two main protective frames and a plurality of separable sub-protection frames arranged between the two main protective frames;

The two ends of the bottom of the two mother protection frames are respectively fixed to the top of the outer side of the sleeve ring, and the bottom of the sub-protection frame is in contact with the top of the sleeve ring;

The two ends of the mother protective frame for contacting the sub-collecting frame are respectively fixed with spacer blocks, and the mother protective frame and the sub-collecting frame form a movable gap with the help of the spacer blocks. The movable gap is adapted to the detection probe, and the distance between the two spacer blocks placed on the same mother protective frame is not less than the length of the stud.

As a further preferred embodiment of the technical solution, a buffer sleeve is mounted on the outer surface of one end of the assembly rod away from the sleeve ring, wherein the sleeve ring close to the buffer sleeve is fixedly connected to the buffer sleeve;

A sliding frame is fixed outside one end of the two female protective frames close to the buffer sleeve, and a sliding pin is fixed on one end of the two-way telescopic rod away from the threaded sleeve, and the sliding pin is matched with the sliding frame.

As a further preferred embodiment of the present technical solution, a through socket is fixed to one end outside the mother collecting frame, a positioning screw is installed between the two through sockets, and a nut is threadedly installed at one end of the positioning screw.

As a further preferred embodiment of the present technical solution, the bearing assembly includes:

The assembly cabinet is used to provide bearing capacity. A bearing table is fixed on the top surface of the assembly cabinet. The filler stamping assembly, the retrieval assembly and the push-pull assembly are all installed on the top of the bearing table. The bearing table is provided with sliding notches between the two mounting seats on both sides close to one end of the retrieval assembly.

The push-pull assembly comprises:

A rotating motor is used to provide an uninterrupted rotating power source. The rotating motor is installed at one end of the top surface of the bearing table away from the retrieval component. The rotor shaft of the rotating motor penetrates the bearing table and the assembly cabinet and is fixed with a transmission disk. The transmission disk is arranged at the top of the assembly cabinet. The edge of one end of the bottom surface of the transmission disk is rotatably connected to a transmission arm. The end of the transmission arm away from the transmission disk is rotatably connected to a drive frame. The two ends of the top of the drive frame are adapted to the sliding notch.

Dampers are fixed between the two ends of the top of the driving frame and the mother protective frame close to the buffer sleeve.

As a further preferred embodiment of the present technical solution, the filler stamping assembly comprises:

A stabilizing frame is installed at the position of the retrieval component on the top of the bearing table, the stabilizing frame is arranged above the retrieval component, and an electronic discharge funnel and a punch are respectively installed at two ends of the top of the stabilizing frame, and the punch and the buffer sleeve are at the same end;

The stabilizing frame is fixed with a body frame outside the punching machine, and an auger conveyor for discharging filling materials to the electronic discharge funnel is installed in the body frame. The auger conveyor and the electronic discharge funnel are both electrically connected to the detection probe.

As a further preferred embodiment of the present technical solution, a belt drive group is installed on the end of the auger conveyor away from the punching machine;

The bottom surface of the stabilizing frame is respectively fixed with slide rail frames on both sides of the discharge port of the electronic discharge funnel, and a scraping template is slidably connected between the two slide rail frames, and the scraping template is used to scrape and level the filling material in the aluminum alloy door frame mold;

A threaded shaft is fixed at the bottom of the belt transmission group, and one end of the threaded shaft away from the belt transmission group is rotatably connected to a limit seat fixed on the bottom surface of the stabilizing frame, and the threaded shaft and the scraper template are in a threaded connection.

As a further preferred embodiment of the present technical solution, universal wheels are fixed on all four sides of the bottom of the assembly cabinet, an inclined force-bearing rod is fixed at one end of the outside of the assembly cabinet, a control panel is fixed to the edge of one end of the top surface of the supporting table, and the control panel is electrically connected to the rotating motor, detection probe, auger conveyor, punching machine and electronic discharge funnel.

Compared with the prior art, the present invention has the following beneficial effects:

The multi-stage continuous aluminum alloy door frame stamping equipment, by setting a retrieval component, enables the finished aluminum alloy door frame in the aluminum alloy door frame mold to transmit its own attribute data to the filler stamping component in real time during the stamping process. After receiving these real-time data, the filler stamping component can automatically adjust the stamping force, speed and stamping depth, thereby ensuring that each aluminum alloy door frame achieves the best stamping effect, which guarantees the accuracy and durability of the final product to a certain extent and improves the stamping accuracy;

In addition, by using two main guard frames and several sub-guard frames, the aluminum alloy door frame can be flexibly loaded and unloaded during the stamping and testing process, ensuring the automation degree and operation efficiency of the production line. At the same time, the design of the sub-guard frames allows the number to be adjusted according to actual needs, so as to adapt to the production of aluminum alloy door frames of different sizes or batches, enhancing the versatility and flexibility of the equipment. Finally, the modular design is also convenient for maintenance and replacement, reducing maintenance costs and time;

Furthermore, the setting of placing the components by pushing and pulling the components to make the retrieval components run makes the entire retrieval process without manual intervention, ensuring production efficiency. At the same time, the damper fixed between the top of the drive frame and the mother collecting frame effectively alleviates the impact force during the pushing and pulling process, protects the precision parts of the equipment, and prolongs the service life;

Furthermore, the combined use of the stabilizing frame, electronic discharge funnel, stamping machine and auger conveyor in the filler stamping assembly realizes the precise measurement and automatic delivery of the filling material, as well as the intelligent control of the stamping process. The electronic discharge funnel automatically adjusts the discharge amount according to the real-time data of the detection probe to ensure that the filling material is neither excessive nor insufficient, while the stamping machine flexibly adjusts the stamping force and depth according to the preset parameters and real-time feedback to achieve the best stamping effect. In addition, the close cooperation between the auger conveyor and the electronic discharge funnel realizes the continuous supply of filling materials, avoiding the tediousness and errors of manual feeding.

Finally, the universal wheel design at the bottom of the assembly cabinet allows the entire equipment to be easily moved to the desired location, enhancing the flexibility and portability of the equipment, while the inclined force rod provides additional support and stability, ensuring the smoothness and safety of the equipment during high-speed operation.

BRIEF DESCRIPTION OF THE DRAWINGS

Fig. 1 is an isometric view of the present invention;

Fig. 2 is a diagram of the internal structure of the present invention;

Fig. 3 is a main sectional view of the present invention;

FIG4 is an assembly diagram of the search component of the present invention on the supporting desktop;

FIG5 is a structural diagram of a placement assembly of the present invention;

FIG6 is a structural diagram of a search component of the present invention;

FIG7 is a structural diagram of a packing stamping assembly according to the present invention;

FIG. 8 is a structural diagram of the push-pull assembly of the present invention.

In the figure: 1, force-bearing rod; 2, universal wheel; 3, bearing table; 4, assembly cabinet; 5, placement component; 501, sub-collection frame; 502, partition block; 503, sliding frame; 504, main collection frame; 505, nut; 506, positioning screw; 507, socket; 6, retrieval component; 601, carrying seat; 602, connecting gap; 603, buffer sleeve; 604, hydraulic damping rod; 605, insertion rod; 606, two-way telescopic rod; 607, threaded sleeve; 608, half-wall gear; 609, detection probe; 610, assembly rod; 611, sliding Movable pin; 612, rack; 613, stud; 7, filler stamping assembly; 701, stabilizing frame; 702, pressing module; 703, slide rail frame; 704, electronic discharge funnel; 705, scraper template; 706, threaded shaft; 707, belt drive group; 708, auger conveyor; 709, limit seat; 710, body frame; 711, stamping machine; 8, push-pull assembly; 801, rotating motor; 802, transmission plate; 803, transmission arm; 804, driving frame; 805, damper; 9, control panel; 10, interlaced notch; 11, sliding notch.

DETAILED DESCRIPTION

The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

The actual application scenario of the multi-stage continuous aluminum alloy door frame stamping equipment disclosed in the present invention is an aluminum alloy door and window manufacturing factory. It should be noted that during the aluminum alloy door frame stamping process, due to the high-speed operation and strong stamping force of the machine, the operator must strictly abide by the safety regulations and wear protective equipment, such as safety helmets, protective glasses, earplugs and protective gloves. At the same time, the factory should set up clear warning signs and area divisions to ensure that non-operating personnel are not allowed to enter the stamping operation area without authorization to prevent accidents. Secondly, due to the complex structure of the multi-stage continuous stamping equipment, the precise coordination between the components is the key to achieving efficient production. Therefore, the equipment should be cleaned, inspected and maintained regularly.

For example, for the control panel 9, the motor and all the circuits connected thereto, their insulation performance should be checked regularly to see if they are good, and whether the joints are loose or corroded, so as to ensure the safe and stable operation of the circuits. At the same time, the buttons, switches and display screens on the control panel 9 should be kept clean to avoid dust or oil stains affecting their normal functions. Before and after each use, the power cord should be checked to see if it is firmly connected to prevent electrical failures caused by poor contact. Secondly, for the mechanical transmission parts, such as the threaded shaft 706, the belt transmission group 707, the auger conveyor 708 and the punching machine 711, their lubrication should be checked regularly, and the lubricating oil should be replenished or replaced in time to reduce wear and noise. At the same time, check whether the fastening bolts of the transmission parts are loose, whether the transmission belt is worn or broken, and whether the gears, bearings, etc. are running smoothly without abnormal vibration or noise. Any problems found should be dealt with in a timely manner to prevent the problems from expanding and affecting the overall performance of the equipment.

As shown in Figures 1 to 8, the present invention provides a technical solution: a multi-stage continuous aluminum alloy door frame stamping equipment, including: a placement component 5, used to install aluminum alloy door frame molds of different specifications, a filler stamping component 7, used to add filling material to the aluminum alloy door frame mold and subsequently stamp the filling material in the aluminum alloy door frame mold, a bearing component, used to provide a support platform for the placement component 5 and the filler stamping component 7, a retrieval component 6 is installed at one end of the top surface of the bearing component, and the retrieval component 6 is used to retrieve and evaluate the specifications, dimensions and quality of the finished aluminum alloy door frame in the aluminum alloy door frame mold, and a push-pull component 8 is installed at the other end of the top surface of the bearing component, and the push-pull component 8 is used to act on the placement component 5 and allow the placement component 5 to reciprocate through the retrieval range of the retrieval component 6.

As a preferred embodiment, it can be seen from reference to Figure 6 that in this embodiment, the retrieval component 6 includes: two carrying seats 601, the two carrying seats 601 are fixed on both sides of one end of the top surface of the bearing component, an assembly rod 610 is fixed at the top end inside the carrying seat 601, and a plurality of sleeve rings are slidably sleeved on one end of the assembly rod 610. The two ends of the bottom of the placement component 5 are respectively fixed to the top ends of the outsides of the first and last sleeve rings, and an insertion rod 605 is rotatably connected between the two sleeve rings at either end of different sides, a rack 612 is fixed at the bottom of the opposite surfaces of the two carrying seats 601, and half-wall gears 608 are respectively fixed at both ends of the insertion rod 605, and the half-wall gears 608 and the rack 612 are adapted to each other. A transmission component sleeved and fixed on the outside of the insertion rod 605 is arranged between the two half-wall gears 608, and a detection probe 609 that can be arranged inside the placement component 5 is installed outside the output end of the transmission component.

It should be added that when the push-pull component 8 is in operation, the placement component 5 moves back and forth on the mounting seat 601, and the half-wall gear 608 just reaches the end of the rack 612 at the end of the one-way stroke of the push-pull component 8, and allows the transmission component to run a complete one-way stroke to complete the inspection of the finished aluminum alloy door frame in the placement component 5.

In addition, it should be noted that, in the present embodiment, the transmission component completes a complete one-way stroke, which is specifically manifested in that the threaded sleeve 607 moves from one end of the stud 613 to the other end. In combination with Figures 1 to 8, it can be seen that under the action of the push-pull component 8, when the placement component 5 moves, the insertion rod 605 moves accordingly, and drives the half-wall gear 608 to roll on the rack 612. Due to the linear layout of the rack 612, the rolling of the half-wall gear 608 will drive the threaded sleeve 607 to move on the stud 613. When the half-wall gear 608 reaches the end of the rack 612, the threaded sleeve 607 also moves from one end of the stud 613 to the other end, realizing a complete one-way stroke of the transmission component. During the movement of the threaded sleeve 607, the detection probe 609 detects the specifications, dimensions and quality of the finished aluminum alloy door frame through the aluminum alloy door frame mold. After the detection is completed, the push-pull component 8 runs in the opposite direction, driving the placement component 5 and the detection probe 609 to reset, preparing for the next detection.

In addition, it should be noted that, in this embodiment, the material of the placement component 5 is a visual transparent material, such as high-strength organic glass, so that the detection probe 609 can be better detected through the visual material. Secondly, in this embodiment, the detection probe 609 is an integration of an infrared ranging sensor and an image recognition module, which is used to accurately measure the internal dimensions, edge flatness and surface quality of the aluminum alloy door frame. The infrared ranging sensor part can non-contactly measure the key dimensional parameters of the door frame, such as width, height and diagonal length, to ensure that the produced door frame meets the design standards, while the image recognition part captures the image of the door frame surface through a high-definition camera, and uses advanced algorithms to analyze the texture, color and defects (such as scratches, pits and bubbles) in the image to achieve a comprehensive evaluation of the door frame quality.

As a preferred embodiment, referring to Figure 6, it can be seen that in this embodiment, a connecting gap 602 is opened on the top surface of the mounting seat 601, the connecting gap 602 penetrates the load-bearing component and forms an insertion gap 10 in the load-bearing component, and a hydraulic damping rod 604 is fixedly installed on the bottom of the sleeve ring, and the top surface of the base of the hydraulic damping rod 604 passes through the connecting gap 602 and the insertion gap 10 in turn and is slidably installed inside the load-bearing component.

As a preferred embodiment, referring to Figure 6, it can be seen that in this embodiment, the transmission component includes: a stud 613, the stud 613 is sleeved and fixed on the outside of the insertion rod 605, and is in the same center of the circle as the insertion rod 605, and the output end is a threaded sleeve 607, the threaded sleeve 607 and the stud 613 are adapted to each other, and a horizontal two-way telescopic rod 606 is installed on one end of the outer surface of the threaded sleeve 607, the two-way telescopic rod 606 is parallel to the horizontal end of the bottom of the placement component 5, one end of the two-way telescopic rod 606 is rotatably connected to the outer surface of the threaded sleeve 607, and the other end of the two-way telescopic rod 606 is slidably connected to the side of the bottom of the placement component 5 away from the stud 613. In addition, it should be noted that in this embodiment, two detection probes 609 are provided, and the two detection probes 609 are respectively installed at both ends of the rod body of the two-way telescopic rod 606.

As a preferred embodiment, referring to Figure 5, it can be seen that in this embodiment, the placement component 5 includes: two mother protective frames 504 and several sub-collective protective frames 501 that can be separated and arranged between the two mother protective frames 504, the two ends of the bottom of the two mother protective frames 504 are respectively fixed to the top of the outside of the sleeve ring, the bottom of the sub-collective protective frame 501 is in contact with the top of the sleeve ring, and the two ends of the outside of the mother protective frame 504 for contacting the sub-collective protective frame 501 are respectively fixed with partition blocks 502, the mother protective frame 504 and the sub-collective protective frame 501 form a moving gap with the help of the partition block 502, the moving gap is adapted to the detection probe 609, and the distance between the two partition blocks 502 placed on the same mother protective frame 504 is not less than the length of the stud 613, in addition, a through socket 507 is fixed to one end outside the mother protective frame 504, a positioning screw 506 is installed between the two through sockets 507, and a nut 505 is threadedly installed at one end of the positioning screw 506.

It should be added that, in this embodiment, the specific number of the sub-collection protection frames 501 is limited, and the final limited number depends on the stroke of the bidirectional telescopic rod 606. Specifically, the width of all sub-collection protection frames 501 plus two main collection protection frames 504 cannot exceed the stroke of the bidirectional telescopic rod 606.

As a preferred embodiment, referring to Figures 5 and 6, it can be seen that in this embodiment, a buffer sleeve 603 is installed on the outer side of the end of the assembly rod 610 away from the sleeve ring, wherein the sleeve ring close to the buffer sleeve 603 and the buffer sleeve 603 are fixedly connected, and a sliding frame 503 is fixed on the outside of one end of the two mother protective frames 504 close to the buffer sleeve 603, and a sliding pin 611 is fixed on the end of the two-way telescopic rod 606 away from the threaded sleeve 607, and the sliding pin 611 is adapted to the sliding frame 503.

It should be added that, in this embodiment, when the placement component 5 moves quickly to the extreme position of the mounting seat 601, the buffer sleeve 603 can effectively absorb the impact force caused by inertia and reduce direct collisions between mechanical components, thereby extending the service life of the equipment and reducing noise. In addition, the elastic design of the buffer sleeve 603 can also compensate for the gap caused by manufacturing or installation errors to a certain extent, thereby ensuring the stability of the placement component 5 during movement.

As a preferred embodiment, referring to Figures 1 to 8, it can be seen that in this embodiment, the bearing component includes: an assembly cabinet 4 for providing bearing force, a bearing table top 3 is fixed to the top surface of the assembly cabinet 4, a filler stamping component 7, a retrieval component 6 and a push-pull component 8 are all installed on the top of the bearing table top 3, and the bearing table top 3 is provided with a sliding notch 11 between two mounting seats 601 on both sides close to one end of the retrieval component 6.

In this embodiment, the push-pull component 8 includes: a rotating motor 801, which is used to provide an uninterrupted rotational power source. The rotating motor 801 is installed on the top surface of the supporting desktop 3 at one end away from the retrieval component 6. The rotor shaft of the rotating motor 801 penetrates the supporting desktop 3 and the assembly cabinet 4 and is fixed with a transmission disk 802. The transmission disk 802 is arranged at the top inside the assembly cabinet 4. The edge of one end of the bottom surface of the transmission disk 802 is rotatably connected to a transmission arm 803. The end of the transmission arm 803 away from the transmission disk 802 is rotatably connected to a drive frame 804. The two ends of the top of the drive frame 804 are adapted to the sliding notch 11. A damper 805 is fixed between the two ends of the top of the drive frame 804 and the mother protective frame 504 close to the buffer sleeve 603.

It should be added that, in this embodiment, when the rotating motor 801 is started, the rotational power generated by it is transmitted to the transmission disk 802 through the rotor shaft, thereby driving the transmission arm 803 to perform circular motion, wherein the motion trajectory of the transmission arm 803 is precisely designed to ensure that the drive frame 804 can be driven to slide smoothly along the sliding notch 11 during the rotation process.

As a preferred embodiment, referring to Figures 1 to 7, it can be seen that in this embodiment, the filler stamping assembly 7 includes: a stabilizing frame 701, which is installed at the position of the retrieval assembly 6 on the top of the supporting desktop 3, and the stabilizing frame 701 is arranged above the retrieval assembly 6. The two ends of the top of the stabilizing frame 701 are respectively installed with an electronic discharge funnel 704 and a punch 711, and the punch 711 and the buffer sleeve 603 are at the same end. The stabilizing frame 701 has a body frame 710 fixed outside the punch 711, and an auger conveyor 708 for discharging filling material to the electronic discharge funnel 704 is installed in the body frame 710. The auger conveyor 708 and the electronic discharge funnel 704 are both electrically connected to the detection probe 609.

Furthermore, it should be added that, in the present embodiment, a belt drive group 707 is installed at one end of the auger conveyor 708 away from the punching machine 711, wherein the belt drive group 707 is composed of two pulleys, an interlaced shaft and a transmission belt, wherein one end of the interlaced shaft is connected to the shaft body inside the auger conveyor 708, and the other end is fixed to the center point of one pulley, and the two pulleys are transmitted by a transmission belt, and the center point of the other pulley is fixed to one end of the threaded shaft 706 away from the limit seat 709.

As a preferred embodiment, referring to Figure 7, it can be seen that in this embodiment, the bottom surface of the stabilizing frame 701 is fixed with slide rail frames 703 on both sides of the discharge port of the electronic discharge funnel 704, and a scraper template 705 is slidably connected between the two slide rail frames 703. The scraper template 705 is used to scrape the filling material in the aluminum alloy door frame mold. A threaded shaft 706 is fixed to the bottom of the belt drive group 707, and the end of the threaded shaft 706 away from the belt drive group 707 is rotatably connected to a limit seat 709 fixed on the bottom surface of the stabilizing frame 701. The threaded shaft 706 and the scraper template 705 are screwed. It should be added that, in this embodiment, the scraper template 705 is a plate structure with both side edges designed as smooth inclined surfaces.

As a preferred embodiment, referring to Figures 1 to 8, it can be seen that in this embodiment, universal wheels 2 are fixed on all four sides of the bottom of the assembly cabinet 4, an inclined force-bearing rod 1 is fixed at one end of the outside of the assembly cabinet 4, and a control panel 9 is fixed to the edge of one end of the top surface of the supporting table 3. The control panel 9 is electrically connected to the rotating motor 801, the detection probe 609, the auger conveyor 708, the punching machine 711 and the electronic discharge funnel 704. It should be added that, referring to Figure 7, it can be seen that in this embodiment, the punching end of the punching machine 711 is designed as a pressing module 702 that can be disassembled and replaced.

Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is limited by the attached embodiments and their equivalents.

Claims (10)

1. A multi-stage continuous aluminum alloy door frame stamping equipment, characterized by comprising: A placement component (5) is used to install aluminum alloy door frame molds of different specifications; A filler stamping assembly (7), used for adding filler material into the aluminum alloy door frame mold and for subsequent stamping of the filler material in the aluminum alloy door frame mold; A bearing assembly, used to provide a supporting platform for the placement assembly (5) and the filler stamping assembly (7); A search component (6) is installed at one end of the top surface of the bearing component, and the search component (6) is used to search and evaluate the specifications, dimensions and quality of the finished aluminum alloy door frame in the aluminum alloy door frame mold. A push-pull component (8) is installed at the other end of the top surface of the bearing component, and the push-pull component (8) is used to act on the placement component (5) and allow the placement component (5) to reciprocate through the search range of the search component (6); The retrieval component (6) comprises: Two carrying seats (601), the two carrying seats (601) are fixed on both sides of one end of the top surface of the bearing component, an assembly rod (610) is fixed to the top of the inside of the carrying seat (601), one end of the assembly rod (610) is slidably sleeved with a plurality of sleeve rings, the two ends of the bottom of the placement component (5) are respectively fixed to the top of the outside of the first and last sleeve rings, and an interlaced rod (605) is rotatably connected between the two sleeve rings at any end on different sides; A rack (612) is fixed to the bottom of the opposite surfaces of the two mounting seats (601), and half-wall gears (608) are fixed to both ends of the insertion rod (605). The half-wall gears (608) and the rack (612) are adapted to each other. A transmission component is provided between the two half-wall gears (608) and is sleeved and fixed to the outside of the insertion rod (605). A detection probe (609) that can be set inside the placement component (5) is installed outside the output end of the transmission component. When the push-pull assembly (8) is in operation, the placement assembly (5) moves back and forth on the mounting seat (601), and when the push-pull assembly (8) completes its one-way stroke, the half-wall gear (608) just reaches the end of the rack (612), allowing the transmission component to run a complete one-way stroke, thereby completing the inspection of the finished aluminum alloy door frame in the placement assembly (5). 2. According to claim 1, a multi-stage continuous aluminum alloy door frame stamping equipment is characterized in that: a connecting notch (602) is opened on the top surface of the mounting seat (601), the connecting notch (602) penetrates the bearing component and forms an insertion notch (10) in the bearing component, and a hydraulic damping rod (604) is fixedly installed on the bottom of the sleeve ring, and the top surface of the base of the hydraulic damping rod (604) passes through the connecting notch (602) and the insertion notch (10) in turn, and is slidably installed inside the bearing component. 3. The multi-stage continuous aluminum alloy door frame stamping equipment according to claim 1, characterized in that: the transmission component comprises: A stud (613), the stud (613) is sleeved and fixed outside the penetration rod (605) and is co-centered with the penetration rod (605); The output end is a threaded sleeve (607), the threaded sleeve (607) and the stud (613) are adapted to each other, a horizontal bidirectional telescopic rod (606) is installed at one end of the outer surface of the threaded sleeve (607), the bidirectional telescopic rod (606) is parallel to the horizontal end of the bottom of the placement component (5), one end of the bidirectional telescopic rod (606) is rotatably connected to the outer surface of the threaded sleeve (607), and the other end of the bidirectional telescopic rod (606) is slidably connected to a side of the bottom of the placement component (5) away from the stud (613); Two detection probes (609) are provided, and the two detection probes (609) are respectively mounted on two ends of the rod body of the bidirectional telescopic rod (606). 4. The multi-stage continuous aluminum alloy door frame stamping equipment according to claim 3, characterized in that: the placement component (5) comprises: Two main collecting frames (504) and a plurality of separable sub-collecting frames (501) arranged between the two main collecting frames (504); The two ends of the bottom of the two mother protective frames (504) are respectively fixed to the top of the outside of the sleeve ring, and the bottom of the sub-protection frame (501) is in contact with the top of the sleeve ring; Two ends of the mother protective frame (504) for contacting the sub-protection frame (501) are respectively fixed with spacer blocks (502); the mother protective frame (504) and the sub-protection frame (501) form a movable gap with the help of the spacer blocks (502); the movable gap is matched with the detection probe (609); and the distance between two spacer blocks (502) placed on the same mother protective frame (504) is not less than the length of the stud (613). 5. A multi-stage continuous aluminum alloy door frame stamping equipment according to claim 4, characterized in that: a buffer sleeve (603) is mounted on the outer surface of one end of the assembly rod (610) away from the sleeve ring, wherein the sleeve ring close to the buffer sleeve (603) is fixedly connected to the buffer sleeve (603); A sliding frame (503) is fixed to the outside of one end of the two female protective frames (504) close to the buffer sleeve (603), and a sliding pin (611) is fixed to one end of the bidirectional telescopic rod (606) away from the threaded sleeve (607), and the sliding pin (611) and the sliding frame (503) are matched. 6. A multi-stage continuous aluminum alloy door frame stamping equipment according to claim 4, characterized in that: a through socket (507) is fixed to one end outside the female protective frame (504), a positioning screw (506) is installed between the two through sockets (507), and a nut (505) is threadedly installed at one end of the positioning screw (506). 7. The multi-stage continuous aluminum alloy door frame stamping equipment according to claim 5, characterized in that: the bearing assembly comprises: An assembly cabinet (4) is used to provide bearing capacity. A bearing tabletop (3) is fixed on the top surface of the assembly cabinet (4). The filler punching assembly (7), the retrieval assembly (6) and the push-pull assembly (8) are all installed on the top of the bearing tabletop (3). The bearing tabletop (3) is provided with sliding notches (11) between the two mounting seats (601) on both sides of one end close to the retrieval assembly (6). The push-pull assembly (8) comprises: A rotating motor (801) is used to provide an uninterrupted rotating power source. The rotating motor (801) is mounted on an end of the top surface of the supporting table (3) away from the retrieval assembly (6). The rotor shaft of the rotating motor (801) penetrates the supporting table (3) and the assembly cabinet (4) and is fixed with a transmission disk (802). The transmission disk (802) is arranged at the top of the assembly cabinet (4). The edge of one end of the bottom surface of the transmission disk (802) is rotatably connected to a transmission arm (803). The end of the transmission arm (803) away from the transmission disk (802) is rotatably connected to a driving frame (804). The two ends of the top of the driving frame (804) are adapted to the sliding notch (11). A damper (805) is fixed between the two ends of the top of the driving frame (804) and the mother protective frame (504) close to the buffer sleeve (603). 8. The multi-stage continuous aluminum alloy door frame stamping equipment according to claim 7, characterized in that: the filler stamping assembly (7) comprises: A stabilizing frame (701) is installed at the position of the retrieval component (6) on the top of the supporting table (3), the stabilizing frame (701) is arranged above the retrieval component (6), and an electronic discharge funnel (704) and a punch (711) are respectively installed at two ends of the top of the stabilizing frame (701), and the punch (711) and the buffer sleeve (603) are at the same end; The stabilizing frame (701) has a body frame (710) fixed outside the punching machine (711), and an auger conveyor (708) for discharging filling material to the electronic discharge funnel (704) is installed in the body frame (710), and the auger conveyor (708) and the electronic discharge funnel (704) are both electrically connected to the detection probe (609). 9. The multi-stage continuous aluminum alloy door frame stamping equipment according to claim 8, characterized in that: a belt drive group (707) is installed at one end of the auger conveyor (708) away from the stamping machine (711); The bottom surface of the stabilizing frame (701) is respectively fixed with slide rail frames (703) on both sides of the discharge port of the electronic discharge funnel (704), and a scraping template (705) is slidably connected between the two slide rail frames (703). The scraping template (705) is used to scrape and level the filling material in the aluminum alloy door frame mold; A threaded shaft (706) is fixed to the bottom of the belt transmission group (707), and one end of the threaded shaft (706) away from the belt transmission group (707) is rotatably connected to a limit seat (709) fixed to the bottom surface of the stabilizing frame (701), and the threaded shaft (706) and the scraper template (705) are in a threaded connection. 10. A multi-stage continuous aluminum alloy door frame stamping equipment according to claim 9, characterized in that: universal wheels (2) are fixed on all four sides of the bottom of the assembly cabinet (4), an inclined force-bearing rod (1) is fixed on one end of the outside of the assembly cabinet (4), and a control panel (9) is fixed on the edge of one end of the top surface of the supporting table (3), and the control panel (9) is electrically connected to the rotating motor (801), the detection probe (609), the auger conveyor (708), the punching machine (711) and the electronic discharge funnel (704).