A mould static pressure moulding line

Abstract

The invention discloses a static pressure molding line for a mold, and relates to the technical field of industrial casting. A relay gear is rotatably connected to the inner side of an integral support frame, a clamping hydraulic cylinder is clamped at the top of the integral support frame near the position of the relay gear, and a load-bearing clamping frame is rotatably connected to the bottom end of the clamping hydraulic cylinder. A driven gear is sleeved on the side end of the load-bearing clamping frame, and a direction-changing transmission box is equidistantly installed on the top of the load-bearing clamping frame. A double molding die is clamped on the output shaft of the direction-changing transmission box. The invention realizes mold replacement through synchronous cooperation operation of multi-step feeding, utilizes extrusion feeding and gear clamping to rotate back and forth, combines multi-step operations together, reduces equipment waiting time, separates single-step operations to multiple positions for processing through vibration blanking, casting sand extrusion fixing and mold extrusion molding distribution operations, utilizes mobile processing to reduce waiting time, and solves the problem of long waiting time of equipment due to temporary production in the prior art, thereby improving production efficiency.

Description

Technical Field

[0001] The invention relates to the technical field of industrial casting, in particular to a static-pressure moulding line of a mould. Background Art

[0002] The static pressure automatic molding line compacts the molding sand initially through pneumatic pre-compacting or hydraulic multi-contact heads, and then compacts the molding sand through a multi-contact hydraulic pressure head. It is a hydraulically driven process to achieve fully automatic compaction of the sand mold. Static pressure means that there is no vibration during the compaction process, it is a simple compaction. The static pressure molding line compacts directly without vibration during the compaction process.

[0003] The patent with application number 202210857522.8 mentions "a mold static pressure molding line". This patent uses a circular production line to drive the mold to move, and cooperates with multiple groups of cooling treatments to speed up production. However, when the mold static pressure molding line is in production, the feeding and mold switching are separated, which leads to the interruption of linkage during processing, resulting in a long production waiting time. In addition, during production, the casting sand unloading, mold fitting and extrusion molding are concentrated together, which requires waiting for equipment switching during production, resulting in too long production waiting time, affecting production efficiency. Summary of the invention

[0004] The present invention provides a static pressure molding line for a mold, which can effectively solve the problem raised in the above background technology that during the production of the static pressure molding line for a mold, due to the separation of feeding and mold switching, it is easy to cause a long production waiting time due to linkage interruption during processing, and now during production, casting sand unloading, mold fitting and extrusion molding are concentrated together, resulting in the need to wait for equipment switching during production, resulting in too long production waiting time and affecting production efficiency.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solutions: a mold static pressure molding line, comprising an integral support frame, a bottom mold fixed slide frame is fixedly connected to one side of the top of the integral support frame, a top mold fixed slide frame is connected to the other side of the top of the integral support frame, an outer row support frame is connected between the bottom end of the bottom mold fixed slide frame and the bottom end of the top mold fixed slide frame, and a synchronous multi-stage processing component is arranged on the top of the integral support frame;

[0006] The synchronous multi-stage processing assembly includes a conveying motor;

[0007] A relay gear is rotatably connected to the inner side of the overall support frame. A clamping hydraulic cylinder is clamped at a position near the relay gear at the top end of the overall support frame. The bottom end of the clamping hydraulic cylinder is rotatably connected to a bearing clamping frame. A driven gear is sleeved on the side end of the bearing clamping frame. A number of variable-direction transmission boxes are equidistantly installed at the top end of the bearing clamping frame. A double shaping die is clamped to the output shaft of the variable-direction transmission box. A speed-changing transmission box is installed at a position corresponding to the input shaft at the top end of the variable-direction transmission box. An insertion clamping block is clamped to the input shaft of the speed-changing transmission box. An insertion clamping hole is formed in the middle of the relay gear. A synchronous linkage rod is fixedly connected between the two variable-direction transmission boxes;

[0008] A number of pushing hydraulic cylinders are equidistantly installed at one end of the overall support frame. One end of the number of pushing hydraulic cylinders is fixedly connected to a multi-rod feeding frame. A middle part of one end of the multi-rod feeding frame is fixedly connected to an L-shaped rack;

[0009] A blanking assembly box is fixedly connected to the top ends of the bottom die fixed sliding frame and the top die fixed sliding frame. A number of linkage springs are equidistantly installed at the inner top ends of the bottom die fixed sliding frame and the top die fixed sliding frame. A blanking fixed hopper is connected between the number of linkage springs. A vibration motor is installed at the bottom end of the blanking fixed hopper through a motor base. A number of fixed-value hydraulic cylinders are equidistantly installed at the top and bottom ends of the bottom die fixed sliding frame and the top die fixed sliding frame. A fixed-value hydraulic plate is installed at one end of the fixed-value hydraulic cylinder;

[0010] A number of separating hydraulic cylinders are equidistantly installed at the top ends of the bottom die fixed sliding frame and the top die fixed sliding frame. A separating extrusion block is installed at the bottom end of the separating hydraulic cylinder.

[0011] According to the above technical solution, a conveying motor is installed at one end of the overall support frame through a motor base. A synchronous transmission rod is clamped to the output shaft of the conveying motor at a position corresponding to the overall support frame. Synchronous conveyor belts are symmetrically installed at the top end of the overall support frame. An inlet and outlet motor is installed at the other end of the overall support frame through a motor base;

[0012] A bidirectional lead screw is clamped to the output shaft of the inlet and outlet motor at a position corresponding to the top end of the overall support frame. A fixed moving sleeve is installed on the side end of the bidirectional lead screw through a lead screw seat. An inlet and outlet electric push rod is clamped to the top end of the fixed moving sleeve. A steering motor is installed at the bottom end of the output shaft of the inlet and outlet electric push rod through a motor base. A steering inlet and outlet plate is clamped to the bottom end of the output shaft of the steering motor. A clamping electric push rod is clamped to the top end of the steering inlet and outlet plate. A U-shaped clamping plate is installed at one end of the clamping electric push rod;

[0013] The top of the integral support frame is symmetrically equipped with scraping electric push rods, and the bottom ends of the two scraping electric push rods are equipped with scraping blocks. The bottom ends of the bottom mold fixed slide and the top mold fixed slide are both equipped with entry and exit electric slide rails, and the bottom ends of the entry and exit electric slide rails are equipped with entry and exit slide plates through slide rail seats. The top of the top mold fixed slide is fixedly connected with an opening electric push rod, and the bottom end of the opening electric push rod is equipped with a switching operation panel, and the bottom end of the switching operation panel is equipped with a switching electric slide rail. The bottom end of the switching electric slide rail is connected with an internal thread block through the slide rail seat, and the bottom end of the internal thread block is connected with an opening column through threads, and a slag discharge port is opened at the position of the opening column corresponding to the bottom end of the top mold fixed slide.

[0014] According to the above technical solution, the side end of the synchronous transmission rod is clamped with the synchronous conveyor belt input shaft, the fixed movable sleeve is slidably installed on the side end of the integral support frame, the steering motor is slidably installed on the inner side of the fixed movable sleeve, and the steering entry and exit plate is rotatably fitted with the fixed movable sleeve.

[0015] According to the above technical solution, the relay gear is meshed and connected with the driven gear, the input shaft of the direction-changing transmission box is clamped with the output shaft of the speed-changing transmission box, and the double molding die is rotatably sleeved with the bearing clamping frame.

[0016] According to the above technical solution, the synchronous linkage rod is rotatably installed on the inner side of the bearing engaging frame, the insertion engaging block is sleeved and connected with the insertion engaging hole, and the L-shaped rack is meshed and connected with the relay gear.

[0017] According to the above technical solution, the two fixed feeding hoppers are respectively placed inside the bottom mold fixed slide and the top mold fixed slide, and the double shaping mold is inserted into the bottom ends of the bottom mold fixed slide and the top mold fixed slide;

[0018] The input ends of the conveying motor, the in-and-out motor, the in-and-out electric push rod, the steering motor, the clamping electric push rod, the clamping hydraulic cylinder, the pushing hydraulic cylinder, the vibration motor, the fixed value hydraulic cylinder, the separation hydraulic cylinder, the in-and-out electric slide rail, the opening electric push rod and the switching electric slide rail are all electrically connected to the output end of the external controller;

[0019] The input terminal of the external controller is electrically connected to the output terminal of the external power supply.

[0020] According to the above technical solution, a bidirectional processing component is provided at the top of the outer row support frame;

[0021] The two-way processing assembly includes a slag collection operation box;

[0022] A slag collecting operation box is fixedly connected to one side of the top of the outer row support frame, a plurality of discs are welded inside the slag collecting operation box, a scraping brush plate is clamped on the top of the plurality of discs, a flip motor is installed at one end of the outer row support frame through a motor seat, and an output shaft of the flip motor has a transmission gear;

[0023] The side end of the outer row support frame is rotatably connected to the material turning support frame, one end of the material turning support frame is welded with a material turning gear ring, and the other side of the top end of the outer row support frame is installed with a discharge conveyor belt;

[0024] One end of the outer support frame is symmetrically installed with an adjustment electric push rod, one end of the two adjustment electric push rods is fixedly connected to a special-shaped synchronous frame, one end of the special-shaped synchronous frame is clamped with a linkage transmission box, and a linkage motor is installed at the position of the input shaft at one end of the linkage transmission box through a motor seat, and the top and bottom output shafts of the linkage transmission box are clamped with mounting screws, and the side ends of the mounting screws are connected with a double-hole entry and exit sleeve through a screw seat, and the inner side of the double-hole entry and exit sleeve is sleeved with a linkage electric push rod, and one end of the linkage electric push rod is installed with a linkage closing A switching motor is installed on the inner side of the linkage closed sleeve through a motor seat, one of the switching motor output shafts is clamped with a collecting installation box at the top end, a sliding electric push rod is symmetrically installed at one end of the collecting installation box, and a sliding push plate is installed at one end of two sliding electric push rods, a fixed electromagnet is installed at the bottom end of the inner side of the collecting installation box, and a raised fixing plate is clamped at the bottom end of the other switching motor output shaft, and combined electric push rods are symmetrically installed at both ends of the raised fixing plate, and an L-shaped combined plate is installed at one end of the combined electric push rod.

[0025] According to the above technical solution, the transmission gear is meshed and connected with the material turning gear ring, the transmission gear is rotatably installed on one end of the outer row support frame, the special-shaped synchronization frame is slidably installed on the side end of the outer row support frame, and the linkage motor output shaft is engaged and connected with the linkage transmission box input shaft.

[0026] According to the above technical solution, the installation screw is rotatably connected to the special-shaped synchronous frame, the double-hole inlet and outlet sleeve is slidably installed on the side end of the special-shaped synchronous frame, and the collection installation box is rotatably installed on the top of the linkage closing sleeve.

[0027] According to the above technical solution, the top end of the raised fixing plate is rotatably sleeved with the bottom end of the collecting and installing box;

[0028] The input ends of the flip motor, the discharging conveyor belt, the adjusting electric push rod, the linkage motor, the linkage electric push rod, the switching motor, the sliding electric push rod, the fixed electromagnet and the combined electric push rod are electrically connected to the output end of the external controller.

[0029] Compared with the prior art, the present invention has the following beneficial effects: the present invention has a scientific and reasonable structure and is safe and convenient to use:

[0030] 1. A synchronous multi-stage processing component is provided. The multi-rod feeding rack and the L-shaped rack are driven to move by the push hydraulic cylinder. The L-shaped rack drives the relay gear, the driven gear, the speed transmission box, the insert clamping block, the change-direction transmission box, the load-bearing clamping rack and the double-setting mold to rotate and change direction. The L-shaped rack is moved back and forth to drive the relay gear to rotate back and forth. The clamping hydraulic cylinder drives the load-bearing clamping rack to rise and fall to switch the operation state, so that the feeding operation, mold switching and mold clamping can be performed during the production process, so that multiple groups of operations can be coordinated with each other, and the linkage of the equipment can be strengthened. The linkage operation can be used during production to change the equipment state, strengthen the equipment linkage, and reduce the waiting time during production;

[0031] The linkage spring and the vibration motor drive the fixed bucket to vibrate and discharge the materials. The shaking is used to discharge the materials so that the materials are evenly processed. The fixed hydraulic cylinder drives the fixed hydraulic plate to squeeze from the top and bottom at the same time to perform preliminary solidification of the casting sand to avoid the movement and leakage of the casting sand. The clamping hydraulic cylinder drives the load-bearing clamping frame and the double fixed mold to be inserted into the side end of the mold. The separation hydraulic cylinder drives the separation extrusion block to separate and press down to achieve the fixed mold. The production operation originally concentrated in the same position is separated into three steps, so that the feeding can be processed immediately after the feeding is completed during production, reducing the production waiting time caused by equipment switching.

[0032] Through the synchronous coordination of multi-step feeding operations, the use of extrusion feeding and gear engagement to rotate back and forth can realize the replacement of the mold, and the multi-step operations are combined together to reduce the waiting time of the equipment. Through the distribution operations of vibration unloading, casting sand extrusion fixation and mold extrusion shaping, the single-step operation is separated into multiple positions for processing, and mobile processing is used to reduce the waiting time. This solves the problem of long waiting time of equipment due to temporary production in the prior art, thereby improving production efficiency.

[0033] 2. A two-way processing component is provided. The collection installation box and the raised fixing plate are rotated by switching the motor, and the linkage electric push rod drives the linkage closing sleeve, the collection installation box and the raised fixing plate to rise and fall. Then, the linkage motor and the installation screw drive the top mold and the bottom mold to move toward the middle. The bottom mold and the combined electric push rod are driven to separate the L-shaped combined plate by the sliding electric push rod and the sliding push plate, and the bottom mold is placed on the top of the discharge conveyor belt, and the bottom mold is fixedly connected to the top mold. The top mold and the bottom mold are driven to operate in combination through bidirectional synchronous sliding movement, so that synchronous alignment can be achieved during production, ensuring the accuracy of alignment and the speed of combination, and the operation efficiency is improved by operating the two components at the same time;

[0034] The bottom end of the double molding die is fitted with the side end of the scraper brush plate, and the supporting clamping frame and the double molding die are rotated and fitted to enable the scraper brush plate to clean the side end of the double molding die. The fitting cleaning is combined with downward pressure and rotation to achieve continuous and synchronous cleaning of the equipment, thus ensuring stable processing.

[0035] In summary, by coordinating the synchronous multi-stage processing components with the bidirectional processing components and utilizing two sets of coordinated production operations, multiple components can be processed in linkage when in different positions, realizing the combined operations of material feeding and discharging production, cleaning processing and steering of the top mold and the bottom mold, thereby ensuring the overall linkage and reducing the waiting time for equipment production. Through the coordination of multiple components, the production efficiency is improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0037] In the attached picture:

[0038] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;

[0039] Figure 2 is a schematic diagram of the structure of a synchronous multi-stage processing component of the present invention;

[0040] Figure 3 It is a schematic diagram of the installation structure of the bidirectional screw rod of the present invention;

[0041] Figure 4 It is a schematic diagram of the installation structure of the fixed bucket for unloading materials of the present invention;

[0042] Figure 5 It is a schematic diagram of the installation structure of the relay gear of the present invention;

[0043] Figure 6 It is a schematic diagram of the installation structure of the double shaping mold of the present invention;

[0044] Figure 7 It is a schematic diagram of the installation structure of the opening column of the present invention;

[0045] Figure 8 is a schematic diagram of the structure of the bidirectional processing component of the present invention;

[0046] Fig. 9 It is a schematic diagram of the installation structure of the discharge conveyor belt of the present invention;

[0047] Fig.10 It is a schematic diagram of the installation structure of the L-shaped composite panel of the present invention;

[0048] Numbers in the figure: 1, overall support frame; 2, bottom mold fixed slide; 3, top mold fixed slide; 4, outer row support frame;

[0049] 5. Synchronous multi-stage processing component; 501. Conveyor motor; 502. Synchronous drive rod; 503. Synchronous conveyor belt; 504. In-and-out motor; 505. Bidirectional lead screw; 506. Fixed moving sleeve; 507. In-and-out electric push rod; 508. Steering motor; 509. Steering in-and-out plate; 510. Clamping electric push rod; 511. C-shaped clamping plate; 512. Relay gear; 513. Engaging hydraulic cylinder; 514. Bearing engaging frame; 515. Driven gear; 516. Direction-changing transmission box; 517. Double shaping die; 518. Variable-speed transmission box; 519. Insertion engaging block; 520. Insertion engaging hole; 521. Synchronous linkage rod; 522. Pushing material hydraulic cylinder; 523. Multi-rod feeding frame; 524. L-shaped rack; 525. Total blanking box; 526. Linkage spring; 527. Fixed blanking hopper; 528. Vibration motor; 529. Fixed-value hydraulic cylinder; 530. Fixed-value hydraulic plate; 531. Separation hydraulic cylinder; 532. Separation extrusion block; 533. Scraping electric push rod; 534. Scraping block; 535. In-and-out electric slide rail; 536. In-and-out slide plate; 537. Opening electric push rod; 538. Switching operation plate; 539. Switching electric slide rail; 540. Internal thread block; 541. Opening column; 542. Discharge port;

[0050] 6. Bidirectional processing component; 601. Slag collection operation box; 602. Multi-port disc; 603. Scraping brush plate; 604. Flipping motor; 605. Transmission gear; 606. Material flipping support frame; 607. Material flipping tooth ring; 608. Discharge conveyor belt; 609. Adjusting electric push rod; 610. Special-shaped synchronous frame; 611. Linkage transmission box; 612. Linkage motor; 613. Installation lead screw; 614. Double-hole in-and-out sleeve; 615. Linkage electric push rod; 616. Linkage closing sleeve; 617. Switching motor; 618. Collection installation box; 619. Sliding-out electric push rod; 620. Sliding-out push plate; 621. Fixed electromagnet; 622. Raised fixing plate; 623. Combined electric push rod; 624. L-shaped combined plate. Detailed implementation manners

[0051] The following describes the preferred embodiments of the present invention with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are only for the purpose of illustration and explanation of the present invention, and are not used to limit the present invention.

[0052] Embodiment: As Figure 1-10 shown, the present invention provides a technical solution, a molding line for die static pressure, including an overall support frame 1. One side of the top end of the overall support frame 1 is fixedly connected with a bottom die fixed slide frame 2, and the other side of the top end of the overall support frame 1 is fixedly connected with a top die fixed slide frame 3. An outer row support frame 4 is fixedly connected between the bottom end of the bottom die fixed slide frame 2 and the bottom end of the top die fixed slide frame 3. A synchronous multi-stage processing component 5 is arranged at the top end of the overall support frame 1;

[0053] The synchronous multi-stage processing component 5 includes a conveying motor 501, a synchronous transmission rod 502, a synchronous conveyor belt 503, an inlet and outlet motor 504, a bidirectional lead screw 505, a fixed moving sleeve 506, an inlet and outlet electric push rod 507, a steering motor 508, a steering inlet and outlet plate 509, a clamping electric push rod 510, a C-shaped clamping plate 511, an intermediate gear 512, a clamping hydraulic cylinder 513, a bearing clamping frame 514, a driven gear 515, a direction-changing transmission box 516, a double shaping die 517, a speed-changing transmission box 518, an insertion clamping block 519, an insertion clamping hole 520, a synchronous linkage rod 521, a feeding hydraulic cylinder 522, a multi-rod feeding frame 523, an L-shaped rack 524, a blanking assembly box 525, a linkage spring 526, a blanking fixed hopper 527, a vibration motor 528, a fixed-value hydraulic cylinder 529, a fixed-value hydraulic plate 530, a separation hydraulic cylinder 531, a separation extrusion block 532, a scraping electric push rod 533, a scraping block 534, an inlet and outlet electric slide rail 535, an inlet and outlet slide plate 536, an opening electric push rod 537, a switching operation plate 538, a switching electric slide rail 539, an internal thread block 540, an opening column 541, and a slag discharge port 542;

[0054] One end of the overall support frame 1 is provided with a conveying motor 501 through a motor base. The output shaft of the conveying motor 501 is clamped with a synchronous transmission rod 502 at a position corresponding to the overall support frame 1. The side end of the synchronous transmission rod 502 is clamped with the input shaft of the synchronous conveyor belt 503, so that stable operation can be carried out during synchronous transmission. The top of the overall support frame 1 is symmetrically provided with the synchronous conveyor belt 503. The other end of the overall support frame 1 is provided with an inlet and outlet motor 504 through a motor base. The output shaft of the inlet and outlet motor 504 is clamped with a bidirectional lead screw 505 at a position corresponding to the top of the overall support frame 1. The side end of the bidirectional lead screw 505 is provided with a fixed moving sleeve 506 through a lead screw base. The fixed moving sleeve 506 is slidably installed on the side end of the overall support frame 1, facilitating stable limit support during sliding and avoiding the situation of slipping and offset detachment. The top of the fixed moving sleeve 506 is clamped with an inlet and outlet electric push rod 507. The bottom end of the output shaft of the inlet and outlet electric push rod 507 is provided with a steering motor 508 through a motor base. The steering motor 508 is slidably installed inside the fixed moving sleeve 506, enabling stable limit during lifting and moving and adjusting the inlet and outlet positions, and avoiding the situation of the steering motor 508 getting out of the clamping position. The bottom end of the output shaft of the steering motor 508 is clamped with a steering inlet and outlet plate 509. The steering inlet and outlet plate 509 is rotatably sleeved with the fixed moving sleeve 506, enabling stable linkage operation during rotation and switching and ensuring the stable operation of the processing linkage. The top of the steering inlet and outlet plate 509 is clamped with a clamping electric push rod 510, and one end of the clamping electric push rod 510 is provided with a C-shaped clamping plate 511;

[0055] The inner side of the integral support frame 1 is rotatably connected with a relay gear 512, and the relay gear 512 is meshed with the driven gear 515, so that the transmission can be operated steadily after the switching position. A clamping hydraulic cylinder 513 is clamped at the top of the integral support frame 1 near the relay gear 512, and the bottom end of the clamping hydraulic cylinder 513 is rotatably connected with a load-bearing clamping frame 514, and the side end of the load-bearing clamping frame 514 is sleeved with a driven gear 515, and a plurality of change-direction transmission boxes 516 are equidistantly installed on the top of the load-bearing clamping frame 514, and the input shaft of the change-direction transmission box 516 is clamped with the output shaft of the speed change transmission box 518 to ensure the stability of the linkage transmission, and the output shaft of the change-direction transmission box 516 is clamped with a double stereotyped mold 517, and the double stereotyped mold 517 is rotatably sleeved with the load-bearing clamping frame 514, so that when switching different molds, it can effectively support the replacement, thereby ensuring the stability of the equipment operation and the equipment work. A speed transmission box 518 is installed at the position of the input shaft corresponding to the top of 16. The input shaft of the speed transmission box 518 is connected with an insertion clamping block 519. The insertion clamping block 519 is sleeved and connected with the insertion clamping hole 520 to ensure the steady operation of the sleeve connection and positioning movement. An insertion clamping hole 520 is opened in the middle of the relay gear 512. A synchronous linkage rod 521 is fixedly connected between the two direction-changing transmission boxes 516. The synchronous linkage rod 521 is rotatably installed on the inner side of the load-bearing clamping frame 514, so that it can be effectively operated during load support and linkage transmission. A plurality of push hydraulic cylinders 522 are equidistantly installed at one end of the overall support frame 1. One end of the plurality of push hydraulic cylinders 522 is fixedly connected to a multi-rod feeding frame 523. The middle part of one end of the multi-rod feeding frame 523 is fixedly connected with an L-shaped rack 524. The L-shaped rack 524 is meshed and connected with the relay gear 512, so that it can be effectively operated during transmission.

[0056] The top of the bottom mold fixed slide 2 and the top mold fixed slide 3 are fixedly connected with a material unloading assembly box 525, and a plurality of linkage springs 526 are equidistantly installed at the top of the inner side of the bottom mold fixed slide 2 and the top mold fixed slide 3. A material unloading fixed bucket 527 is connected between the plurality of linkage springs 526. The two material unloading fixed buckets 527 are respectively placed on the inner side of the bottom mold fixed slide 2 and the top mold fixed slide 3. The double shaping mold 517 is inserted into the bottom end of the bottom mold fixed slide 2 and the top mold fixed slide 3 so that the material unloading and shaping can be operated steadily. A vibration motor 528 is installed at the bottom end of the material unloading fixed bucket 527 through a motor seat. A plurality of fixed value hydraulic cylinders 529 are equidistantly installed at the top and bottom of the bottom mold fixed slide 2 and the top mold fixed slide 3. A fixed value hydraulic plate 530 is installed at one end of the fixed value hydraulic cylinder 529. A plurality of fixed value hydraulic plates 530 are installed at the top of the bottom mold fixed slide 2 and the top mold fixed slide 3. A separation hydraulic cylinder 531 is provided with a separation extrusion block 532 at the bottom end of the separation hydraulic cylinder 531, a cleaning electric push rod 533 is symmetrically provided at the top end of the integral support frame 1, a cleaning block 534 is provided at the bottom end of the two cleaning electric push rods 533, an in-and-out electric slide rail 535 is provided at the bottom end of the bottom mold fixed slide 2 and the top mold fixed slide 3, an in-and-out slide plate 536 is provided at the bottom end of the in-and-out electric slide rail 535 through a slide rail seat, an opening electric push rod 537 is fixedly connected to the top end of the top mold fixed slide 3, a switching operation panel 538 is provided at the bottom end of the opening electric push rod 537, a switching electric slide rail 539 is provided at the bottom end of the switching operation panel 538, an internal thread block 540 is provided at the bottom end of the internal thread block 540 through a slide rail seat, an opening column 541 is provided at a threaded connection, and a slag discharge port 542 is provided at the bottom end of the top mold fixed slide 3 corresponding to the opening column 541;

[0057] For the stable operation of the equipment, the input ends of the conveying motor 501, the in-and-out motor 504, the in-and-out electric push rod 507, the steering motor 508, the clamping electric push rod 510, the clamping hydraulic cylinder 513, the pushing hydraulic cylinder 522, the vibration motor 528, the fixed value hydraulic cylinder 529, the separation hydraulic cylinder 531, the in-and-out electric slide rail 535, the opening electric push rod 537 and the switching electric slide rail 539 are all electrically connected to the output end of the external controller;

[0058] The input terminal of the external controller is electrically connected to the output terminal of the external power supply.

[0059] A bidirectional processing assembly 6 is provided at the top of the outer row support frame 4;

[0060] The two-way processing assembly 6 includes a slag collecting operation box 601, a multi-mouth disc 602, a scraping brush plate 603, a flipping motor 604, a transmission gear 605, a material turning support frame 606, a material turning gear ring 607, a material discharging conveyor belt 608, an adjustment electric push rod 609, a special-shaped synchronous frame 610, a linkage transmission box 611, a linkage motor 612, an installation screw rod 613, a double-hole inlet and outlet sleeve 614, a linkage electric push rod 615, a linkage closing sleeve 616, a switching motor 617, a collection installation box 618, a slide-out electric push rod 619, a slide-out push plate 620, a fixed electromagnet 621, a protruding fixed plate 622, a combined electric push rod 623 and an L-shaped combined plate 624;

[0061] A slag collecting operation box 601 is fixedly connected to one side of the top of the outer row support frame 4, and a multi-mouth disc 602 is welded inside the slag collecting operation box 601. A scraping brush plate 603 is clamped on the top of the multi-mouth disc 602. A turning motor 604 is installed at one end of the outer row support frame 4 through a motor seat. The output shaft of the turning motor 604 has a transmission gear 605. The side end of the outer row support frame 4 is rotatably connected to a material turning support frame 606. A material turning gear ring 607 is welded at one end of the material turning support frame 606. The transmission gear 605 is meshed and connected with the material turning gear ring 607. The transmission gear 605 is rotatably installed at one end of the outer row support frame 4, which ensures the steady operation of the rotary transmission, so that the equipment can be effectively processed during linkage operation. A discharging conveyor belt 608 is installed on the other side of the top of the outer row support frame 4;

[0062] One end of the outer support frame 4 is symmetrically installed with an adjustment push rod 609, one end of the two adjustment push rods 609 is fixedly connected with a special-shaped synchronous frame 610, and the special-shaped synchronous frame 610 is slidably installed on the side end of the outer support frame 4, so that it can move steadily when switching the unloading position, and one end of the special-shaped synchronous frame 610 is clamped with a linkage transmission box 611, and a linkage motor 612 is installed at the position of the input shaft at one end of the linkage transmission box 611 through the motor seat, and the output shaft of the linkage motor 612 is connected to the linkage transmission box 611 The input shaft is connected by a card engagement to ensure the stable operation of the linkage transmission. The top and bottom output shafts of the linkage transmission box 611 are both carded with mounting screws 613, which are rotationally connected to the special-shaped synchronization frame 610. The double-hole entry and exit sleeve 614 is slidably installed on the side end of the special-shaped synchronization frame 610, so that it can effectively support and guide when driving the double-hole entry and exit sleeve 614 to move. The side end of the mounting screw 613 is connected to the double-hole entry and exit sleeve 614 through a screw seat, and the inner side of the double-hole entry and exit sleeve 614 is sleeved with a linkage electric Push rod 615, one end of the linkage electric push rod 615 is installed with a linkage closing sleeve 616, and a switching motor 617 is installed inside the linkage closing sleeve 616 through a motor seat. The top of the output shaft of one of the switching motors 617 is clamped with a collection installation box 618, and the collection installation box 618 is rotatably installed on the top of the linkage closing sleeve 616, so that it can be operated steadily during collection, ensuring the stability of the overall support and positioning, and realizing the stable operation of the equipment. A sliding electric push rod is symmetrically installed at one end of the collection installation box 618 Rod 619, one end of the two sliding electric push rods 619 is installed with a sliding push plate 620, and the bottom end of the inner side of the collection installation box 618 is installed with a fixed electromagnet 621, wherein the bottom end of the output shaft of another switching motor 617 is clamped with a raised fixing plate 622, and the top of the raised fixing plate 622 is rotatably fitted with the bottom end of the collection installation box 618 to ensure the support and clamping stability, and the two ends of the raised fixing plate 622 are symmetrically installed with combined electric push rods 623, and one end of the combined electric push rod 623 is installed with an L-shaped combined plate 624;

[0063] In order to ensure the stable operation of the equipment, the input ends of the flip motor 604, the discharging conveyor belt 608, the adjustment electric push rod 609, the linkage motor 612, the linkage electric push rod 615, the switching motor 617, the sliding electric push rod 619, the fixed electromagnet 621 and the combined electric push rod 623 are electrically connected to the output end of the external controller.

[0064] Working principle and usage process of the present invention: When manufacturing a sand casting mold, the top shell and the bottom shell are respectively placed at the top ends of two synchronous conveyor belts 503. The conveying motor 501 and the synchronous transmission rod 502 drive the two groups of synchronous conveyor belts 503 to convey materials at the same speed, and convey the top shell and the bottom shell to the material taking position. The in-out motor 504 drives the bidirectional lead screw 505 to rotate along the overall support frame 1. Driven by the bidirectional lead screw 505, the fixed moving sleeve 506 moves along the overall support frame 1. When it moves to the material taking position, the in-out electric push rod 507 drives the steering motor 508 to press down. The steering motor 508 drives the steering in-out plate 509 to rotate and change direction along the fixed moving sleeve 506. After the direction change is completed, two clamping electric push rods 510 drive two C-shaped clamping plates 511 to move towards each other, so that the side ends of the C-shaped clamping plates 511 are clamped and connected to the two ends of the top shell and the bottom shell. After the clamping is completed, the in-out electric push rod 507 drives the steering motor 508 and the steering in-out plate 509 to rise. During the rising process, the steering motor 508 drives the steering in-out plate 509 and the C-shaped clamping plates 511 to rotate, thus completing the material taking operation. Again, the in-out motor 504 and the bidirectional lead screw 505 drive the fixed moving sleeve 506 to move towards the bottom die fixed slide 2 and the top die fixed slide 3, and make the side ends of the C-shaped clamping plates 511 fit with the side ends of the bottom die fixed slide 2 and the top die fixed slide 3. After the fitting is completed, the feeding hydraulic cylinder 522 drives the multi-rod feeding frame 523 to slide along the overall support frame 1, and uses the multi-rod feeding frame 523 to push the top shell and the bottom shell to slide towards the inside of the top die fixed slide 3 and the bottom die fixed slide 2 respectively, so as to realize synchronous feeding at the same time. And through two-stage feeding and processing, the separation operation of the bottom die and the top die is carried out, and during the operation, production can be carried out simultaneously and synchronously, so that the production speed can be accelerated during production, and multi-step operations can be realized and coordinated with each other to achieve the operation. And the synchronous operation is used to realize linkage production. While ensuring the production quality, the production speed can be accelerated. And through two-way synchronous feeding and discharging, direction-changing material taking and placing, and position fine-tuning operations, accurate product alignment is realized, and the situation that the product is stuck and cannot move due to alignment deviation is avoided;

[0065] The top shell is placed on the inner side of the top mold fixed slide 3, and the bottom shell is placed on the inner side of the bottom mold fixed slide 2. The cleaning electric push rod 533 drives the cleaning block 534 to be pressed down along the top mold fixed slide 3 and the bottom mold fixed slide 2 to the position of the top shell and the bottom shell, and moves back and forth. The internal cleaning operation is performed through the up and down movement operation. The external sand feeding equipment feeds the material into the lower material assembly box 525, and then the material is fed into the fixed material bucket 527 by the material feeding assembly box 525. At this time, the fixed material bucket 527 is driven by the vibration motor 528 to swing back and forth with the assistance of the linkage spring 526. At this time, the casting sand material swings back and forth and falls to the inner side of the top shell and the bottom shell, so that the material can be evenly laid, and the material is discharged at different positions by vibration screening. At this time, when discharging, the casting sand material will be evenly laid on the top shell and the bottom shell along multiple discharge ports. The inner side is paved by moving back and forth to avoid uneven material discharge caused by paving in a single position, and uniform paving and stable material discharge are achieved. The top shell and the bottom shell after feeding are moved along the top mold fixed slide 3 and the bottom mold fixed slide 2 to the position of the fixed hydraulic plate 530, and the fixed hydraulic cylinders 529 at the top and bottom drive the fixed hydraulic plate 530 to rise and fall along the top mold fixed slide 3 and the bottom mold fixed slide 2, so as to perform preliminary leveling and collection of the casting sand material, and clean the inner shell to avoid large impurities remaining inside, which will affect the uniformity of the casting sand material input, and make the sand material evenly distributed by vibration feeding and extrusion bonding, and use the pause time in the middle of feeding for cleaning, feeding and material stabilization, and through multi-step separation operation, the overall waiting time is reduced during the feeding process, and the overall production efficiency is improved;

[0066] After the flattening and assembly is completed, the top shell and the bottom shell continue to move to the position of the double shaping mold 517. At the same time, the multi-rod feeding frame 523 pushes the L-shaped rack 524 to move, and the clamping hydraulic cylinder 513 drives the load-bearing clamping frame 514 and the driven gear 515 to press down, so that the relay gear 512 is meshed with the driven gear 515. The L-shaped rack 524 drives the relay gear 512 to rotate along the overall support frame 1, and the driven gear 515 is driven to rotate through the relay gear 512, and the driven gear 515 drives the load-bearing clamping frame 514 rotates along the engagement hydraulic cylinder 513, driving the double-setting mold 517 to rotate and switch positions. After the rotation switching is completed, the engagement hydraulic cylinder 513 drives the load-bearing engagement frame 514 to rise, so that the driven gear 515 is separated from the relay gear 512. At this time, the insertion engagement block 519 is embedded in the inner side of the insertion engagement hole 520 at the position of the relay gear 512, and the L-shaped rack 524 is driven to move and reset through the multi-rod feeding frame 523. The L-shaped rack 524 drives the relay gear 512 to rotate in the opposite direction. At this time, the relay gear 51 2 drives the insertion engaging block 519 to rotate, and the insertion engaging block 519 and the speed change transmission box 518 drive the direction changing transmission box 516. The direction changing transmission box 516 has a reversing function, and the internal bevel gear meshing output and input ends can be used. Then the direction changing transmission box 516 drives the double shaping mold 517 to rotate along the bearing engaging frame 514 to switch the top mold and the bottom mold. When a single direction changing transmission box 516 rotates, the other direction changing transmission box 516 is driven by the synchronous linkage rod 521 to achieve the steering of the two double shaping molds 517. The lifting operation and the feeding and discharging switching operation are used to realize the mold switching, and through the multi-step coordinated operation, the production can be effectively linked, and the feeding slides back and forth to realize the mold switching and mold clamping production, and the abnormal movement during production can be avoided, so that the equipment can be stably operated, and the stability of the equipment positioning support is ensured. And through the in-and-out clamping connection, the operation state can be quickly changed during lifting, and the operation of different positions can be separated by the highly coordinated linkage operation to avoid mutual influence between operations;

[0067] After the double shaping die 517 is inserted into the bottom ends of the top shell and the bottom shell, the multiple sets of separation hydraulic cylinders 531 drive the separation extrusion blocks 532 to press down, pushing the sand material to the position of the double shaping die 517, so that the multiple sets of separation extrusion blocks 532 are used to separate and extrude the sand material to achieve steady extrusion molding. After the molding is completed, the engaging hydraulic cylinder 513 drives the bearing engaging frame 514 and the double shaping die 517 to press down. After the extrusion is completed, the top shell and the bottom shell continue to move, and when they move to the discharge position, the in-and-out electric slide rail 535 drives the in-and-out slide plate 536 to slide along the bottom mold fixed slide 2 and the top mold fixed slide 3, so that the in-and-out slide plate 536 is engaged and sealed with the bottom ends of the bottom mold fixed slide 2 and the top mold fixed slide 3, and the opening column 541 is fixed by the internal thread block 540. It is necessary to switch the opening columns 541 of different sizes, and the switching electric slide rail 539 drives the internal thread block 540 and the opening column 541 to move along the switching operation plate 538, and the opening electric push rod 537 drives the opening column 541 to be pressed down, so as to realize the opening of the sand material of the top shell, and the excess sand material is discharged to the inner side of the slag collecting operation box 601 along the slag discharge port 542, and at the same time, the bottom shell located at the position of the bottom mold fixed slide 2 moves to the position of the material turning support frame 606, and the turning motor 604 drives the transmission gear 605 to rotate along the outer row support frame 4, and the transmission gear 605 drives the material turning gear ring 607 to engage and rotate, thereby driving the material turning support frame 606 to rotate along the outer row support frame 4, changing the direction of the bottom shell, thereby realizing the simultaneous production operation of opening the hole and switching the mold direction, and ensuring the linkage stability of the overall operation;

[0068] The bottom mold with the switching direction completed is moved to the position of the collecting and installing box 618 under the push of the multi-rod feeding rack 523, and finally after the bottom mold is placed inside the collecting and installing box 618, the bottom mold is fixed by the fixed electromagnet 621, and the collecting and installing box 618 is driven by the switching motor 617 to rotate along the linkage closing sleeve 616. The top mold with the opening completed is moved to the position of the L-shaped combination plate 624 under the push of the multi-rod feeding rack 523, and the L-shaped combination plate 624 is driven to move in the opposite direction by the combined electric push rod 623 to fix the top mold, and the special-shaped synchronous frame 610 is driven by the adjustment electric push rod 609 to slide along the outer row support frame 4. When it moves to the unloading position, the two switching motors 617 respectively drive the collecting and installing box 618 and the raised fixing plate 622 to rotate, and the linkage motor 612 and the linkage transmission box 611 drive the installation screw rod 613 to rotate along the special-shaped synchronous frame 610, thereby driving the double The hole in-and-out sleeve 614 slides along the special-shaped synchronous frame 610, and the linkage electric push rod 615 drives the linkage closing sleeve 616 to move downward, so that the collection installation box 618 rotates and fits to the side end of the outer row support frame 4, and the slide-out electric push rod 619 drives the slide-out push plate 620 to push the bottom mold to the position of the discharge conveyor belt 608 along the collection installation box 618. At the same time, the double-hole in-and-out sleeve 614 located at the top mold position moves to the top of the discharge conveyor belt 608, and the linkage electric push rod 615 drives the linkage closing sleeve 616 to press down again, so that the top mold and the bottom mold fit together. After the clamping is completed, the combined electric push rod 623 pushes the L-shaped combined plate 624 to move along the raised fixed plate 622, thereby realizing the mold clamping connection, and the discharge conveyor belt 608 drives the mold to move, thereby realizing combined fixation and discharge production, and the top mold and the bottom mold cooperate in the in-and-out operation at the same time, to achieve rapid combination and accelerate the combination speed;

[0069] When the supporting clamping frame 514 is pressed down, the bottom end of the double molding die 517 is fitted with the scraping brush plate 603 at the top of the multi-mouth disc 602, and the supporting clamping frame 514 drives the double molding die 517 to rotate. The scraping brush plate 603 cleans the side end of the double molding die 517 by utilizing the rotational fitting operation, and the residual sand material on the side end of the double molding die 517 is scraped off and detached, and the sand material is detached downward along the scraping brush plate 603, and the sand material is discharged downward along the multi-mouth disc 602 to the inner side of the slag collecting operation box 601. The fitting cleaning is combined with the downward pressing rotation to realize continuous and synchronous cleaning of the equipment, thereby ensuring the stability of the processing.

[0070] Finally, it should be noted that the above description is only a preferred example of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A static mold pressing molding line, comprising an integral support frame (1), characterized in that: One side of the top of the integral support frame (1) is fixedly connected to a bottom mold fixed slide (2), the other side of the top of the integral support frame (1) is connected to a top mold fixed slide (3), an outer row support frame (4) is connected between the bottom ends of the bottom mold fixed slide (2) and the bottom ends of the top mold fixed slide (3), and a synchronous multi-stage processing component (5) is arranged at the top of the integral support frame (1); The synchronous multi-stage processing component (5) comprises a relay gear (512), a locking hydraulic cylinder (513), a load-bearing locking frame (514), a driven gear (515), a direction-changing transmission box (516), a double-setting mold (517), a speed-changing transmission box (518), an insertion locking block (519), an insertion locking hole (520), a synchronous linkage rod (521), a material pushing hydraulic cylinder (522), a multi-rod feeding frame (523), an L-shaped rack (524), a material unloading assembly box (525), a linkage spring (526), ​​a material unloading fixed bucket (527), a vibration motor (528), a fixed value hydraulic cylinder (529), a fixed value hydraulic plate (530), a separation hydraulic cylinder (531) and a separation extrusion block (532); The inner side of the integral support frame (1) is rotatably connected to a relay gear (512); a clamping hydraulic cylinder (513) is clamped at the top of the integral support frame (1) near the relay gear (512); the bottom end of the clamping hydraulic cylinder (513) is rotatably connected to a bearing clamping frame (514); a driven gear (515) is sleeved on the side end of the bearing clamping frame (514); a plurality of direction-changing transmission boxes (516) are equidistantly mounted at the top of the bearing clamping frame (514); a double-shaped mold (517) is clamped on the output shaft of the direction-changing transmission box (516); a speed-changing transmission box (518) is mounted at the top of the direction-changing transmission box (516) at a position corresponding to the input shaft; an insertion clamping block (519) is clamped on the input shaft of the speed-changing transmission box (518); an insertion clamping hole (520) is provided in the middle of the relay gear (512); and a synchronous linkage rod (521) is fixedly connected between the two direction-changing transmission boxes (516); A plurality of pusher hydraulic cylinders (522) are equidistantly mounted on one end of the integral support frame (1); a multi-rod feed frame (523) is fixedly connected to one end of the plurality of pusher hydraulic cylinders (522); an L-shaped rack (524) is fixedly connected to the middle of one end of the multi-rod feed frame (523); The top ends of the bottom mold fixed slide (2) and the top mold fixed slide (3) are fixedly connected with a material unloading assembly box (525); a plurality of linkage springs (526) are equidistantly installed at the top ends of the inner sides of the bottom mold fixed slide (2) and the top mold fixed slide (3); a material unloading fixed bucket (527) is connected between the plurality of linkage springs (526); a vibration motor (528) is installed at the bottom end of the material unloading fixed bucket (527) via a motor seat; a plurality of fixed value hydraulic cylinders (529) are equidistantly installed at the top and bottom ends of the bottom mold fixed slide (2) and the top mold fixed slide (3); a fixed value hydraulic plate (530) is installed at one end of the fixed value hydraulic cylinder (529); A number of separating hydraulic cylinders (531) are equidistantly installed at the tops of the bottom die fixed sliding frame (2) and the top die fixed sliding frame (3), and a separating extrusion block (532) is installed at the bottom end of the separating hydraulic cylinder (531); The relay gear (512) is meshed and connected with the driven gear (515), the input shaft of the direction-changing transmission box (516) is clamped with the output shaft of the variable-speed transmission box (518), and the double shaping die (517) is rotationally sleeved with the bearing engagement frame (514); The synchronous linkage rod (521) is rotatably installed inside the bearing engagement frame (514), the insertion engagement block (519) is sleeved and connected with the insertion engagement hole (520), and the L-shaped rack (524) is meshed and connected with the relay gear (512).

2. A static mold pressing molding line according to claim 1, characterized in that: The synchronous multi-stage processing component (5) further includes a conveying motor (501), a synchronous transmission rod (502), a synchronous conveyor belt (503), an inlet and outlet motor (504), a bidirectional lead screw (505), a fixed moving sleeve (506), an inlet and outlet electric push rod (507), a steering motor (508), a steering inlet and outlet plate (509), a clamping electric push rod (510), a C-shaped clamping plate (511), a cleaning electric push rod (533), a cleaning block (534), an inlet and outlet electric slide rail (535), an inlet and outlet slide plate (536), an opening electric push rod (537), a switching operation plate (538), a switching electric slide rail (539), an internally threaded block (540), an opening column (541), and a slag discharge port (542); One end of the overall support frame (1) is provided with a conveying motor (501) through a motor seat, the output shaft of the conveying motor (501) is clamped with a synchronous transmission rod (502) corresponding to the position of the overall support frame (1), the overall support frame (1) is symmetrically provided with a synchronous conveyor belt (503) at the top, and the other end of the overall support frame (1) is provided with an inlet and outlet motor (504) through a motor seat; The output shaft of the inlet and outlet motor (504) is clamped with a bidirectional lead screw (505) corresponding to the top of the overall support frame (1), the side end of the bidirectional lead screw (505) is provided with a fixed moving sleeve (506) through a lead screw seat, the top of the fixed moving sleeve (506) is clamped with an inlet and outlet electric push rod (507), the bottom end of the output shaft of the inlet and outlet electric push rod (507) is provided with a steering motor (508) through a motor seat, the bottom end of the output shaft of the steering motor (508) is clamped with a steering inlet and outlet plate (509), the top of the steering inlet and outlet plate (509) is clamped with a clamping electric push rod (510), and one end of the clamping electric push rod (510) is provided with a C-shaped clamping plate (511); The top of the integral support frame (1) is symmetrically provided with a cleaning electric push rod (533), the bottom ends of the two cleaning electric push rods (533) are provided with a cleaning block (534), the bottom ends of the bottom mold fixed slide (2) and the top mold fixed slide (3) are both provided with an in-and-out electric slide rail (535), the bottom ends of the in-and-out electric slide rail (535) are provided with an in-and-out slide plate (536) via a slide rail seat, the top end of the top mold fixed slide (3) is fixedly connected with an opening electric push rod (537), A switching operation panel (538) is installed at the bottom end of the opening electric push rod (537), a switching electric slide rail (539) is installed at the bottom end of the switching operation panel (538), the bottom end of the switching electric slide rail (539) is connected to an internal thread block (540) via a slide rail seat, the bottom end of the internal thread block (540) is connected to an opening column (541) via a thread, and a slag discharge port (542) is provided at the bottom end of the top mold fixed slide (3) at a position corresponding to the opening column (541).

3. A static mold pressing molding line according to claim 2, characterized in that: The side end of the synchronous transmission rod (502) is clamped with the input shaft of the synchronous conveyor belt (503), the fixed movable sleeve (506) is slidably mounted on the side end of the integral support frame (1), the steering motor (508) is slidably mounted on the inner side of the fixed movable sleeve (506), and the steering inlet and outlet plate (509) is rotatably sleeved with the fixed movable sleeve (506).

4. A static mold pressing molding line according to claim 2, characterized in that: The two fixed material discharge hoppers (527) are respectively placed inside the bottom mold fixed slide (2) and the top mold fixed slide (3), and the double shaping mold (517) is inserted into the bottom ends of the bottom mold fixed slide (2) and the top mold fixed slide (3); The input ends of the conveying motor (501), the in-and-out motor (504), the in-and-out electric push rod (507), the steering motor (508), the clamping electric push rod (510), the locking hydraulic cylinder (513), the pushing hydraulic cylinder (522), the vibration motor (528), the fixed value hydraulic cylinder (529), the separation hydraulic cylinder (531), the in-and-out electric slide rail (535), the opening electric push rod (537) and the switching electric slide rail (539) are all electrically connected to the output end of the external controller; The input terminal of the external controller is electrically connected to the output terminal of the external power supply.

5. A static mold pressing molding line according to claim 4, characterized in that: A bidirectional processing component (6) is provided at the top end of the outer row support frame (4); The bidirectional processing assembly (6) comprises a slag collecting operation box (601), a multi-mouth disc (602), a scraping brush plate (603), a turning motor (604), a transmission gear (605), a material turning support frame (606), a material turning gear ring (607), a material discharging conveyor belt (608), an adjustment electric push rod (609), a special-shaped synchronous frame (610), a linkage transmission box (611), a linkage motor (612), an installation screw rod (613), a double-hole inlet and outlet sleeve (614), a linkage electric push rod (615), a linkage closing sleeve (616), a switching motor (617), a collecting installation box (618), a sliding electric push rod (619), a sliding push plate (620), a fixed electromagnet (621), a raised fixed plate (622), a combined electric push rod (623) and an L-shaped combined plate (624); A slag collection operation box (601) is fixedly connected to one side of the top end of the outer row support frame (4), a plurality of circular discs (602) are welded to the inner side of the slag collection operation box (601), a scraping brush plate (603) is clamped on the top end of the plurality of circular discs (602), a turning motor (604) is mounted on one end of the outer row support frame (4) via a motor seat, and an output shaft of the turning motor (604) has a transmission gear (605); The side end of the outer row support frame (4) is rotatably connected to a material turning support frame (606), one end of the material turning support frame (606) is welded with a material turning gear ring (607), and the other side of the top end of the outer row support frame (4) is installed with a discharge conveyor belt (608); One end of the outer row support frame (4) is symmetrically mounted with an adjustment electric push rod (609), one end of the two adjustment electric push rods (609) is fixedly connected to a special-shaped synchronization frame (610), one end of the special-shaped synchronization frame (610) is clamped with a linkage transmission box (611), a linkage motor (612) is mounted at a position corresponding to the input shaft at one end of the linkage transmission box (611) through a motor seat, the top and bottom output shafts of the linkage transmission box (611) are clamped with a mounting screw rod (613), the side end of the mounting screw rod (613) is connected to a double-hole entry and exit sleeve (614) through a screw seat, the inner side of the double-hole entry and exit sleeve (614) is sleeved with a linkage electric push rod (615), and one end of the linkage electric push rod (615) is mounted with a linkage closing sleeve (616) A switching motor (617) is installed on the inner side of the linkage closing sleeve (616) through a motor seat, wherein a collection installation box (618) is clamped on the top end of the output shaft of one of the switching motors (617), and a slide-out electric push rod (619) is symmetrically installed on one end of the collection installation box (618), and a slide-out push plate (620) is installed on one end of the two slide-out electric push rods (619), and a fixed electromagnet (621) is installed on the bottom end of the inner side of the collection installation box (618), wherein a protruding fixing plate (622) is clamped on the bottom end of the output shaft of another switching motor (617), and combined electric push rods (623) are symmetrically installed at both ends of the protruding fixing plate (622), and an L-shaped combined plate (624) is installed on one end of the combined electric push rod (623).

6. A static mold pressing molding line according to claim 5, characterized in that: The transmission gear (605) is meshedly connected with the material turning gear ring (607), the transmission gear (605) is rotatably mounted on one end of the outer row support frame (4), the special-shaped synchronization frame (610) is slidably mounted on the side end of the outer row support frame (4), and the output shaft of the linkage motor (612) is engaged and connected with the input shaft of the linkage transmission box (611).

7. A static mold pressing molding line according to claim 5, characterized in that: The mounting screw rod (613) is rotatably connected to the special-shaped synchronous frame (610), the double-hole inlet and outlet sleeve (614) is slidably mounted on the side end of the special-shaped synchronous frame (610), and the collection mounting box (618) is rotatably mounted on the top end of the linkage closing sleeve (616).

8. A static mold pressing molding line according to claim 5, characterized in that: The top end of the raised fixing plate (622) is rotatably sleeved with the bottom end of the collecting installation box (618); The input ends of the flip motor (604), the discharging conveyor belt (608), the adjustment electric push rod (609), the linkage motor (612), the linkage electric push rod (615), the switching motor (617), the slide-out electric push rod (619), the fixed electromagnet (621) and the combined electric push rod (623) are electrically connected to the output end of the external controller.

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