Pouring equipment for casting large sculpture copper wallboard

Abstract

The invention discloses pouring equipment for casting a large sculpture copper wallboard, and belongs to the technical field of pouring equipment, the pouring equipment comprises a sliding seat and a wallboard mold, a heat preservation box is fixed on one side of the sliding seat, an opening is formed in one side, close to the sliding seat, of the heat preservation box, a hot melting assembly for melting copper liquid is arranged on the top surface of the heat preservation box, and a plurality of liquid outlets are formed in one side of the hot melting assembly; the top face of the sliding base is slidably connected with an electric sliding plate, the wallboard mold is attached to the top face of the electric sliding plate, the top face of the wallboard mold is connected with a plurality of pouring pipes in a penetrating mode, and a first fixing plate is fixed to the top face of the electric sliding plate. The first sliding rail and the second sliding rail are in sliding connection with the multi-component injection mechanism, the injection mechanism can achieve the gathering state and the dispersing state through sliding, in the gathering state, the liquid outlet of the hot melting assembly is in butt joint to receive copper liquid, in the dispersing state, the pouring pipe of the mold is in butt joint to conduct pouring, and the copper liquid transferring and pouring efficiency and precision are improved; and therefore, the forming efficiency and effect of the large sculpture copper wall plate are improved.

Description

Technical Field

[0001] This application relates to the field of casting equipment technology, and more specifically, to casting equipment for casting large-scale bronze sculptural panels. Background Technology

[0002] Large-scale sculptural copper panels are important artistic carriers in urban landscapes and cultural buildings. A single panel can reach tens of square meters in area, with a thickness typically ranging from 5 to 20 mm, requiring both artistic decoration and structural stability. When these copper panels are formed using a casting process, it is essential to ensure that the molten copper fills the mold uniformly, without porosity, inclusions, or cracks. High requirements are placed on surface smoothness and internal density to meet the weather resistance needs of long-term outdoor use. Due to their large size and complex shape (often containing curved surfaces and openwork structures), the uniformity of copper pouring, temperature stability, and impurity control become key factors affecting the quality of the finished product.

[0003] Currently, the casting of large-scale bronze sculpture panels mainly relies on multiple people working together to pour the molten copper into hand-held crucibles. This involves dividing the molten copper (temperature approximately 1100-1200℃) from the furnace into multiple high-temperature resistant crucibles. Each crucible is connected to a hand-held rod via a long handle, and multiple operators work together to pour the molten copper synchronously around multiple pouring ports of the large panel mold. This multi-person collaborative pouring method is not only unsafe, but also makes it difficult to maintain consistent pouring speed and flow rate among the crucibles, resulting in reduced pouring efficiency and precision. This leads to uneven filling of the molten copper in the mold, with localized material shortages and accumulations, ultimately reducing the efficiency and effectiveness of casting large-scale bronze sculpture panels.

[0004] In view of this, we propose a highly efficient and stable casting device. Summary of the Invention

[0005] Technical problem to be solved: The purpose of this application is to provide casting equipment for casting large-scale bronze sculpture panels, which solves the technical problems mentioned in the background art above.

[0006] Technical Solution: This application provides a casting equipment for casting large-scale bronze sculpture panels, including a slide block and a panel mold. A heat preservation box is fixed to one side of the slide block, and an opening is provided on the side of the heat preservation box near the slide block. A hot-melting component for melting copper liquid is provided on the top surface of the heat preservation box, and multiple liquid outlets are provided on one side of the hot-melting component. An electric sliding plate is slidably connected to the top surface of the slide block. The panel mold is fitted to the top surface of the electric sliding plate, and multiple casting pipes are connected through the top surface of the panel mold. A first fixing plate is fixed to the top surface of the electric sliding plate, and a first slide rail and a second slide rail are fixed to one side of the first fixing plate. Two second slide rails are mirrored about the vertical center line of the first slide rails. Both the first and second slide rails are slidably connected to the top surface of the heat preservation box. Multiple injection mechanisms are horizontally connected across the top surface of the first slide rail and the two top surfaces of the second slide rails. The injection mechanisms are slidably connected to the first and second slide rails. The panel mold is moved horizontally by the electric sliding plate and has two states. In the first state, the electric slide plate and wall panel mold are set inside the heat preservation box, the first fixing plate is attached to the opening side wall of the heat preservation box, the first slide rail and the second slide rail are inserted into the top surface of the heat preservation box, and the multi-component injection mechanism is brought together by sliding on the first slide rail and the second slide rail, so that the multi-component injection mechanism is respectively set at the bottom of multiple liquid outlets of the hot melt assembly. In the second state, the electric slide plate and wall panel mold are set on the top of the slide block, the first fixed plate pulls the first slide rail and the second slide rail to extend out of the top surface of the heat preservation box, and the multi-component injection mechanism is dispersed by sliding on the first slide rail and the second slide rail, so that the multi-component injection mechanism is respectively set on the top of multiple casting pipes.

[0007] Furthermore, the dispensing mechanism includes a first electric slider and a second electric slider. The first electric slider is slidably connected to the top surface of the first slide rail, and the second electric slider is slidably connected to the top surface of the second slide rail. A dispensing guide assembly is fixed to the side wall of the first electric slider. The bottom end of the dispensing guide assembly has an elastic telescopic structure. A third slide rail is fixed to the side wall of the second electric slider. A filter assembly is fixed between one side of the dispensing guide assembly and one side of the third slide rail. A pouring assembly is slidably connected to the top surface of the third slide rail. The pouring assembly has two states by sliding on the third slide rail. In the third state, the casting component is moved to the top of the filter collection component, and the casting component and the filter collection component are connected through the interior. The bottom of the injection component is elastically contracted. In the fourth state, the casting component is moved horizontally to the top of the guiding component, and the casting component and the guiding component are internally connected. The bottom end of the guiding component is pushed outward by the casting component so that the bottom end of the guiding component descends and connects with the casting pipe.

[0008] Furthermore, the casting assembly includes a third electric slider slidably connected to the top surface of the third slide rail. A fixed frame is connected to the top surface of the third electric slider. A casting hopper is fixed to one side of the fixed frame. A fixed pusher is fixed to the side wall of the third electric slider. The bottom end of the casting hopper is inserted into the inside of the fixed pusher. The bottom surface of the casting hopper is flush with the top surface of the fixed pusher. A transparent plate is fixed to one side of the bottom of the fixed pusher. Both sides of the fixed pusher are fixed with sliding top grooves for pushing the casting assembly outward. The sliding top grooves are provided with inclined sections and horizontal sections. In the third state, the pouring hopper and the filter collection assembly are connected in a continuous manner, the transparent plate is attached to the top surface of the third slide rail, and the elastic telescopic structure of the injection guide assembly slides against the inclined section of the sliding top groove. In the fourth state, the pouring hopper and the inside of the pouring assembly are connected, the transparent plate is attached to and sealed on the top surface of the filter collection assembly, and one side of the elastic telescopic structure of the pouring assembly is slidably attached to the horizontal section of the sliding top groove.

[0009] Furthermore, the injection guide assembly includes a second fixed plate fixed to the side wall of the first electric slider. A sealing plate is elastically inserted into the top surface of the second fixed plate and adheres to the bottom surface of the fixed push frame. A guide cylinder is connected through the sealing plate and the second fixed plate. A lifting frame is fixedly sleeved on the outer wall of the bottom end of the guide cylinder. A second guide rod is connected to the top surface of one side of the lifting frame. A spring is sleeved on the outer wall of the second guide rod. The bottom end of the spring is connected to the top surface of the second fixed plate. Rollers are provided on the top surface of the lifting frame. Two rollers are mirrored about the vertical center line of the lifting frame. The rollers roll and adhere to the bottom surface of the sliding top groove.

[0010] Furthermore, the filtration assembly includes a fixing block fixed to the side wall of the third slide rail, and a liquid separator is installed through the fixing block. The liquid separator, the fixing block, and the top surface of the third slide rail are all located on the same horizontal line.

[0011] Furthermore, a filter screen is fixed inside the separator.

[0012] Furthermore, the filtration and collection assembly also includes a volume adjustment component, which is connected through the inside of the dispensing cylinder. One side of the volume adjustment component is elastically attached to the bottom surface of the horizontal section of the sliding top trough. The sliding top trough separates from the volume adjustment component by translation, so that one side of the volume adjustment component can elastically rise to increase the internal volume of the dispensing cylinder.

[0013] Furthermore, the volume adjustment component includes a first guide rod and a single clutch. The first guide rod is connected through to the bottom surface of the liquid separator. A piston plate is connected to the top of the first guide rod, and a lifting plate is connected to the bottom of the first guide rod. First toothed plates are fixed on both sides of the top surface of the lifting plate. The top of the first toothed plates is inserted into the interior of the fixed block. The single clutch is rotatably connected to the bottom surface of the fixed block. There are two single clutches mirror images of each other about the vertical center line of the fixed block. A first gear is fixed at one end of the single clutch. One side of the first gear meshes with the first toothed plate. A second gear is inserted at the other end of the single clutch. One side of the second gear meshes with the second toothed plate. An elastic telescopic rod is fixed on one side of the second toothed plate. The top of the elastic telescopic rod is inserted into the interior of the fixed block. An inclined structure is provided on the side of the second toothed plate near the sliding top groove. The sliding top groove pushes the second toothed plate along the inclined structure, so that the second toothed plate descends and elastically fits against the bottom surface of the sliding top groove, and the second gear rotates freely in the single clutch; The sliding top trough separates from the second toothed plate by translation. The elastic telescopic rod pulls the second toothed plate up, so that the first gear, the single clutch and the second gear rotate, and the first toothed plate pushes the lifting plate down. Then the first guide rod pulls the piston plate down to increase the internal volume of the liquid separator.

[0014] Furthermore, the hot-melting assembly includes a support frame fixed to the top surface of the insulation box, a melting furnace fixed to the top surface of the support frame, a liquid separator connected through one side of the melting furnace, and multiple liquid outlet pipes connected through both sides of the liquid separator.

[0015] Furthermore, the hot melt assembly also includes an exhaust fan disposed inside the support frame. A hot gas pipe is connected through one side of the exhaust fan to the inside of the furnace, and an air outlet pipe is connected through the bottom of the exhaust fan. The air outlet pipe is connected through the inside of the insulation box, and the bottom end of the air outlet pipe is connected through the casting pipe in the first state.

[0016] Beneficial effects: One or more technical solutions provided in this application have at least the following technical effects or advantages: 1. The sliding block works in conjunction with the electric sliding plate to switch between two states: preheating the wall panel mold in the heat preservation box and pouring on the sliding block, which helps to improve the casting efficiency of large sculpture panels. 2. The first and second slide rails are slidably connected to the multi-component injection mechanism. The injection mechanism can achieve two states: gathering and dispersing. When gathering, it connects to the outlet of the hot melt component to receive the copper liquid. When dispersing, it connects to the pouring pipe of the mold for pouring. This improves the efficiency and accuracy of copper liquid transfer and pouring, thereby improving the forming efficiency and effect of large-scale sculpted copper panels.

[0017] 3. The heat preservation box and hot melting components are integrated, and the mold preheating and copper melting can be carried out simultaneously, which shortens the overall process time, avoids the copper liquid from cooling down while waiting for the mold to preheat, improves processing efficiency, and ensures the casting and molding effect.

[0018] 4. The casting component can slide on the third slide rail to switch between the third and fourth states: In the third state, it connects to the filter and collection component to filter and remove impurities from the copper liquid, reducing the impurity content of the cast copper liquid and further improving the quality of the cast copper liquid; In the fourth state, it connects to the guiding component to accurately guide the filtered copper liquid into the casting pipe, further improving the casting accuracy.

[0019] 5. The third electric slider drives the pouring hopper to move horizontally. In the third state, the pouring hopper connects to the filter assembly to filter the copper liquid. In the fourth state, it connects to the guide assembly to achieve precise pouring. The switching process is smooth and leak-free. Through the cooperation of the inclined section and horizontal section of the sliding top trough with the guide assembly, in the third state, the rollers fit into the inclined section and the guide assembly retracts. In the fourth state, the rollers fit into the horizontal section and the guide assembly extends out to connect with the pouring pipe. No additional drive is required to achieve linkage of actions and improve the efficiency of the pouring operation.

[0020] 6. The volume adjustment component is connected inside the separator and linked with the sliding top tank. When the sliding top tank moves and separates, the volume adjustment component elastically rises to increase the volume of the separator. The separator is initially set with a smaller volume to avoid separating too much copper liquid in the separator when collecting impurities at the bottom of the casting hopper, thus ensuring the utilization rate of the copper liquid. Then, the space at the top of the separator increases, causing the level of the filtered copper liquid to drop to the bottom of the filter screen, achieving complete separation of copper liquid from impurities. This also facilitates the recovery and reuse of residual copper liquid in the casting hopper when it returns to the top of the separator.

[0021] 7. When the sliding top trough pushes the inclined surface of the second gear plate downward, the second gear idles in the single clutch, and the piston plate remains in place. After the sliding top trough separates, the elastic telescopic rod pulls the second gear plate upward, and through gear meshing, drives the piston plate downward, precisely increasing the volume of the liquid separator. The unidirectional transmission characteristic of the single clutch ensures the unidirectional controllability of the volume adjustment action, avoids reverse action caused by copper liquid pressure, and improves the stability of volume adjustment. After the piston plate descends and increases the volume, the copper liquid and impurities are stored in layers. The impurities remain above the filter screen, and the filtered copper liquid can be recycled separately, reducing copper liquid waste.

[0022] 8. The exhaust fan draws hot air from the furnace and guides it through the exhaust pipe into the mold inside the insulation box. The residual heat is used to preheat the mold, realizing energy recovery and utilization. This reduces energy consumption and effectively prevents the copper liquid from cooling suddenly due to the low temperature of the mold when pouring molten metal into the mold, thus avoiding casting defects in the copper wall plate and improving casting quality. Attached Figure Description

[0023] Figure 1 This is a schematic diagram of the casting equipment for casting large-scale bronze sculpture panels according to the present invention.

[0024] Figure 2 This is a schematic diagram of the structure of the distributive pouring mechanism of the present invention in the dispersed pouring state.

[0025] Figure 3 This is a schematic diagram of the dispensing mechanism of the present invention in the fourth state.

[0026] Figure 4 This is a schematic diagram of the dispensing mechanism of the present invention in the third state.

[0027] Figure 5 This is a schematic diagram of the casting assembly structure of the present invention.

[0028] Figure 6 This is a schematic diagram of the connection structure of the injection component of the present invention.

[0029] Figure 7 This is a schematic diagram of the filter collection component structure of the present invention.

[0030] Figure 8 This is a schematic diagram of the bottom structure of the filter collection component of the present invention.

[0031] Figure 9 This is a schematic diagram of the internal structure of the filter collection component of the present invention in the third state.

[0032] Figure 10 This is a schematic diagram of the internal structure of the filter collection component of the present invention in the fourth state.

[0033] Figure 11 This is a schematic diagram of the overall structure of the present invention in its first state.

[0034] Figure 12 This is a cross-sectional view of the connection structure of the hot melt assembly of the present invention in the first state.

[0035] Explanation of the numbers in the diagram: 100, slide block; 200, electric sliding plate; 300, first fixed plate; 400, first slide rail; 500, second slide rail; 600, wall panel mold; 610, pouring pipe; 700, dispensing mechanism; 710, first electric slider; 720, second electric slider; 730, third slide rail; 740, pouring assembly; 741, third electric slider; 742, fixed frame; 743, pouring hopper; 744, fixed pusher; 745, transparent plate; 746, sliding top groove; 750, filter assembly; 751, fixed block; 752, dispensing cylinder; 7521, filter screen; 753, volume adjustment component; 7531, first... 7532. Guide rod; 7533. Piston plate; 7534. Lifting plate; 7535. First gear plate; 7536. Single clutch; 7537. First gear; 7538. Second gear plate; 7539. Elastic telescopic rod; 760. Injection guide assembly; 761. Second fixing plate; 762. Sealing plate; 763. Guide cylinder; 764. Lifting frame; 765. Roller; 766. Second guide rod; 767. Spring; 800. Insulation box; 900. Hot melt assembly; 910. Support frame; 920. Furnace; 930. Separating furnace; 940. Liquid outlet pipe; 950. Hot gas pipe; 960. Exhaust fan; 970. Air outlet pipe. Detailed Implementation

[0036] To make the objectives, technical solutions, and advantages of the embodiments of this application clearer, the technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0037] In the description of this application, it should be understood that the terms "center", "longitudinal", "lateral", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.

[0038] In the description of this application, it should be noted that, unless otherwise expressly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or a link; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances.

[0039] Reference Figures 1-12 This application provides a casting device for casting large-scale bronze sculpture panels, including a slide block 100 and a panel mold 600. A heat-insulating box 800 is fixed to one side of the slide block 100. The heat-insulating box 800 has an opening near the slide block 100. A hot-melt assembly 900 for melting molten copper is provided on the top surface of the heat-insulating box 800. Multiple outlets are provided on one side of the hot-melt assembly 900. An electric sliding plate 200 is slidably connected to the top surface of the slide block 100. The panel mold 600 is fitted onto the top surface of the electric sliding plate 200. Multiple casting pipes 610 are connected through the top surface of the panel mold 600. A first fixing plate 300 is fixed to the top surface of the insulation box 800. A first slide rail 400 and a second slide rail 500 are fixed to one side of the first fixing plate 300. There are two second slide rails 500 mirror images of the vertical center line of the first slide rail 400. The first slide rail 400 and the second slide rail 500 are slidably connected to the top surface of the insulation box 800. The top surface of the first slide rail 400 and the top surfaces of the two second slide rails 500 are horizontally connected to a multi-component dispensing mechanism 700. The dispensing mechanism 700 is slidably connected to the first slide rail 400 and the second slide rail 500. The wall panel mold 600 is pushed and moved by the electric sliding plate 200 and has two states. In the first state, the electric slide plate 200 and the wall panel mold 600 are disposed inside the heat preservation box 800, the first fixing plate 300 is attached to the opening side wall of the heat preservation box 800, the first slide rail 400 and the second slide rail 500 are inserted into the top surface of the heat preservation box 800, and the multi-component injection mechanism 700 is brought together by sliding on the first slide rail 400 and the second slide rail 500 so that the multi-component injection mechanism 700 is respectively disposed at the bottom of multiple liquid outlets of the hot melt assembly 900; In the second state, the electric slide plate 200 and the wall panel mold 600 are set on the top of the slide block 100, the first fixed plate 300 pulls the first slide rail 400 and the second slide rail 500 to extend outward from the top surface of the heat preservation box 800, and the multi-component injection mechanism 700 is dispersed by sliding on the first slide rail 400 and the second slide rail 500 so that the multi-component injection mechanism 700 is respectively set on the top of multiple casting pipes 610; The slide block 100, in conjunction with the electric slide plate 200, can move the wall panel mold 600 and the multi-component injection mechanism 700 synchronously. When the wall panel mold 600 enters the heat preservation box 800, the injection mechanism 700 moves synchronously and adjusts to the bottom of the liquid outlet of the hot melt component 900. Then, when the wall panel mold 600 is moved out of the heat preservation box 800, the injection mechanism 700 moves synchronously and adjusts to the top of the wall panel mold 600. This allows for switching between two states: preheating of the wall panel mold 600 in the heat preservation box 800 and pouring on the slide block. This helps to improve the casting efficiency of large sculpture panels. The first slide rail 400 and the second slide rail 500 are slidably connected to the multi-component injection mechanism 700. The injection mechanism 700 not only moves with the first slide rail 400 and the second slide rail 500, but also achieves two states of convergence and dispersion by sliding synchronously on the first slide rail 400 and the second slide rail 500: when the first slide rail 400 and the second slide rail 500 move toward the heat preservation box 800, the multi-component injection mechanism 700 slides simultaneously on the first slide rail 400 and the second slide rail 500 to achieve rapid convergence and docking of the hot melt component 900 to receive the copper liquid at the outlet; when the first slide rail 400 and the second slide rail 500 move away from the heat preservation box, the multi-component injection mechanism 700 slides simultaneously on the first slide rail 400 and the second slide rail 500 to achieve rapid dispersion and docking of the mold's pouring pipe 610 for pouring, thereby improving the efficiency and accuracy of copper liquid transfer and pouring, and thus improving the forming efficiency and effect of large-scale sculptural copper wall panels; The heat preservation box 800 and the hot melting component 900 are integrated. Because mold preheating and copper melting both require a long time, and continuous heating and heat preservation are needed after completion to maintain the melting and preheating effect, the energy consumption is increased. By making the mold preheating and copper melting simultaneous, the overall process time is shortened, the copper melt is prevented from cooling down while waiting for the mold to preheat, and the mold is prevented from cooling down while waiting for the copper melt to melt. The continuous heating time of the molten copper and the heat preservation time of the mold are reduced, thereby reducing energy consumption, improving processing efficiency, and ensuring the casting and molding effect. In this embodiment, the dispensing mechanism 700 includes a first electric slider 710 and a second electric slider 720. The first electric slider 710 is slidably connected to the top surface of the first slide rail 400, and the second electric slider 720 is slidably connected to the top surface of the second slide rail 500. A dispensing component 760 is fixed to the side wall of the first electric slider 710. The bottom end of the dispensing component 760 is an elastic telescopic structure. A third slide rail 730 is fixed to the side wall of the second electric slider 720. A filter collection component 750 is fixed between one side of the dispensing component 760 and one side of the third slide rail 730. A casting component 740 is slidably connected to the top surface of the third slide rail 730. The casting component 740 has two states by sliding on the third slide rail 730. In the third state, the casting component 740 is moved to the top of the filter collection component 750, and the casting component 740 and the filter collection component 750 are connected internally, and the bottom of the injection component 760 is elastically contracted. In the fourth state, the casting component 740 is translatably positioned on top of the injection guide component 760, and the casting component 740 and the injection guide component 760 are internally connected. The bottom end of the injection guide component 760 is pushed outward by the casting component 740 so that the bottom end of the injection guide component 760 descends and is internally connected to the casting pipe 610. The dispensing mechanism 700 adjusts its overall position via the first electric slider 710 and the second electric slider 720 to adapt to the layout of the pouring pipe 610 for different molds, thus improving the applicability of pouring. The pouring assembly 740 can slide on the third slide rail 730 to switch between the third and fourth states: In the third state, it connects to the filter assembly 750 to filter and remove impurities from the molten copper, reducing the impurity content of the poured molten copper and further improving the quality of the poured molten copper. In the fourth state, it connects to the guide assembly 760 to accurately guide the filtered molten copper into the pouring pipe 610, further improving the pouring accuracy. The bottom of the guide assembly 760 has an elastic telescopic structure, which can tightly connect with the pouring pipe 610 in the fourth state to prevent molten copper leakage and improve pouring accuracy.

[0040] In this embodiment, the casting assembly 740 includes a third electric slider 741 slidably connected to the top surface of the third slide rail 730. A fixing frame 742 is connected to the top surface of the third electric slider 741. A casting hopper 743 is fixed to one side of the fixing frame 742. A fixed pusher 744 is fixed to the side wall of the third electric slider 741. The bottom end of the casting hopper 743 is inserted into the inside of the fixed pusher 744. The bottom surface of the casting hopper 743 is flush with the top surface of the fixed pusher 744. A transparent plate 745 is fixed to one side of the bottom of the fixed pusher 744. A sliding top groove 746 for pushing the injection guide assembly 760 outward is fixed on both sides of the fixed pusher 744. The sliding top groove 746 is provided with an inclined section and a horizontal section. In the third state, the pouring hopper 743 and the filter collection assembly 750 are connected in a continuous manner, the transparent plate 745 is attached to the top surface of the third slide rail 730, and one side of the elastic telescopic structure of the injection guide assembly 760 is slidably attached to the inclined section of the sliding top groove 746. In the fourth state, the pouring hopper 743 and the inside of the pouring assembly 760 are connected through, the transparent plate 745 is attached to and sealed on the top surface of the filter collection assembly 750, and one side of the elastic telescopic structure of the pouring assembly 760 is slidably attached to the horizontal section of the sliding top groove 746. The third electric slider 741 drives the pouring hopper 743 to move horizontally. In the third state, the pouring hopper 743 connects to the filter collection component 750 to achieve copper liquid filtration. In the fourth state, it connects to the pouring guide component 760 to achieve precise pouring. The switching process is smooth and leak-free. By cooperating with the guide assembly 760 through the inclined and horizontal sections of the sliding top groove 746, in the third state the roller 765 fits into the inclined section and the guide assembly 760 retracts; in the fourth state the roller 765 fits into the horizontal section and the guide assembly 760 extends out to connect with the pouring pipe 610. No additional drive is required to achieve action linkage and improve the efficiency of pouring operation. In the fourth state, the transparent plate 745 is attached to the top surface of the sealed filter assembly 750 to prevent copper liquid from overflowing or external impurities from entering, while also facilitating observation of the internal state of the filter assembly 750.

[0041] In this embodiment, the injection guide assembly 760 includes a second fixing plate 761 fixed to the side wall of the first electric slider 710. A sealing plate 762 is elastically inserted into the top surface of the second fixing plate 761. The sealing plate 762 is attached to the bottom surface of the fixed push frame 744. A guide cylinder 763 is connected through the sealing plate 762 and the second fixing plate 761. A lifting frame 764 is sleeved and fixed to the outer wall of the bottom end of the guide cylinder 763. A second guide rod 766 is connected to the top surface of one side of the lifting frame 764. A spring 767 is sleeved on the outer wall of the second guide rod 766. The bottom end of the spring 767 is connected to the top surface of the second fixing plate 761. A roller 765 is provided on the top surface of the lifting frame 764. Two rollers 765 are mirrored about the vertical center line of the lifting frame 764. The rollers 765 roll and adhere to the bottom surface of the sliding top groove 746. The sealing plate 762 is attached to the bottom surface of the fixed pusher 744 to ensure the sealing of the pouring hopper 743 and the guide tube 763 when they are connected, preventing copper liquid leakage. The roller 765 rolls and adheres to the bottom surface of the sliding top groove 746. The shape change of the sliding top groove 746 drives the lifting frame 764 to rise and fall, which in turn drives the guide tube 763 to extend and retract. The movement is smooth and without jamming. The second guide rod 766 cooperates with the spring 767 to provide elastic restoring force for the extension and retraction of the guide tube 763. At the same time, it plays a guiding role to prevent the guide tube 763 from deviating when it rises and falls, and to ensure precise connection with the pouring pipe 610.

[0042] In this embodiment, the filter collection assembly 750 includes a fixing block 751 fixed to the side wall of the third slide rail 730. A liquid separator 752 is disposed inside the fixing block 751. The liquid separator 752, the fixing block 751, and the top surface of the third slide rail 730 are all located on the same horizontal line. The liquid separator 752 is fixed inside the fixing block 751, and the liquid separator 752, the fixing block 751, and the top surface of the third slide rail 730 are on the same horizontal line, which facilitates the docking and translation of the casting hopper 743 and ensures the sealing of the casting hopper 743 during translation to prevent copper liquid from overflowing. By docking the liquid separator 752 with the casting hopper 743, the impurities precipitated at the bottom can be quickly separated into the liquid separator 752, improving the impurity separation efficiency, thereby improving the casting efficiency and casting molding accuracy.

[0043] In this embodiment, a filter screen 7521 is fixed inside the liquid separator 752; the filter screen 7521 fixed inside the liquid separator 752 can intercept precipitated impurities in the copper liquid, reduce the impurity content of the copper liquid, so as to separate the copper liquid into the liquid separator 752 for reuse.

[0044] In this embodiment, the filtration and collection assembly 750 further includes a volume adjustment component 753, which is connected through the inside of the liquid distribution cylinder 752. One side of the volume adjustment component 753 is elastically attached to the bottom surface of the horizontal section of the sliding top trough 746. The sliding top trough 746 separates from the volume adjustment component 753 by translation, so that one side of the volume adjustment component 753 can be elastically raised to increase the internal volume of the liquid distribution cylinder 752. The volume adjustment component 753 is connected through the inside of the liquid separator 752 and is linked with the sliding top tank 746. When the sliding top tank 746 moves and separates, the volume adjustment component 753 elastically rises to increase the volume of the liquid separator 752, so that the liquid level of the filtered copper liquid drops to the bottom of the filter screen 7521, realizing the complete separation of copper liquid from impurities, and facilitating the recycling of residual copper liquid in the pouring hopper 743 when the pouring hopper 743 returns to the top of the liquid separator 752.

[0045] In this embodiment, the volume adjustment component 753 includes a first guide rod 7531 and a single clutch 7535. The first guide rod 7531 is connected through to the bottom surface of the liquid separator 752. A piston plate 7532 is connected to the top end of the first guide rod 7531, and a lifting plate 7533 is connected to the bottom end of the first guide rod 7531. First toothed plates 7534 are fixed on both sides of the top surface of the lifting plate 7533. The top ends of the first toothed plates 7534 are inserted into the interior of the fixing block 751. The single clutch 7535 is rotatably connected to the bottom surface of the fixing block 751. The single clutch 7535 is related to the fixing block 751. Two mirror images are arranged on the vertical centerline of block 751. One end of single clutch 7535 is fixed with a first gear 7536. One side of the first gear 7536 is meshed with the first toothed plate 7534. The other end of single clutch 7535 is inserted with a second gear 7537. One side of the second gear 7537 is meshed with the second toothed plate 7538. One side of the second toothed plate 7538 is fixed with an elastic telescopic rod 7539. The top end of the elastic telescopic rod 7539 is inserted into the fixed block 751. The side of the second toothed plate 7538 near the sliding groove 746 is provided with a slope structure. The sliding groove 746 pushes the second toothed plate 7538 along the inclined structure, so that the second toothed plate 7538 descends and elastically fits the bottom surface of the sliding groove 746, and the second gear 7537 rotates freely in the single clutch 7535. The sliding top groove 746 separates from the second toothed plate 7538 by translation. The elastic telescopic rod 7539 pulls the second toothed plate 7538 up, so that the first gear 7536, the single clutch 7535 and the second gear 7537 rotate, and the first toothed plate 7534 pushes the lifting plate 7533 down, and then the first guide rod 7531 pulls the piston plate 7532 down, so as to increase the internal volume of the liquid separator 752. When the sliding top trough 746 pushes the inclined surface of the second toothed plate 7538 downward, the second gear 7537 idles within the single clutch 7535, and the piston plate 7532 remains in its original position. After the sliding top trough 746 separates, the elastic telescopic rod 7539 pulls the second toothed plate 7538 upward, and through gear meshing, drives the piston plate 7532 downward, precisely increasing the volume of the liquid separator 752. The unidirectional transmission characteristic of the single clutch 7535 ensures the unidirectional controllability of the volume adjustment action, avoids reverse action caused by copper liquid pressure, and improves the stability of volume adjustment. After the piston plate 7532 descends and increases the volume, the copper liquid and impurities are stored in layers, with impurities remaining above the filter screen 7521. The filtered copper liquid can be recycled separately, reducing copper liquid waste.

[0046] In this embodiment, the hot-melting assembly 900 includes a support frame 910 fixed to the top surface of the insulation box 800. A furnace 920 is fixed to the top surface of the support frame 910. A liquid distribution furnace 930 is connected through one side of the furnace 920. Multiple liquid outlet pipes 940 are connected through both sides of the liquid distribution furnace 930. After the furnace 920 melts the copper liquid, it is introduced into the liquid distribution furnace 930. The liquid distribution furnace 930 achieves uniform distribution of the copper liquid through the multiple liquid outlet pipes 940, which is adapted to the synchronous reception of the multi-component injection mechanism 700. The liquid distribution furnace 930 and the liquid outlet pipes 940 have built-in heating wires, which can maintain the molten state of the copper liquid, prevent the copper liquid from cooling down and solidifying, and ensure smooth copper liquid transportation.

[0047] In this embodiment, the hot-melting assembly 900 further includes an exhaust fan 960 disposed inside the support frame 910. A hot air pipe 950 is connected through one side of the exhaust fan 960 to the interior of the furnace 920, and an air outlet pipe 970 is connected through the bottom surface of the exhaust fan 960. The air outlet pipe 970 is connected through the interior of the insulation box 800, and the bottom end of the air outlet pipe 970 is connected through the pouring pipe 610 in the first state. The exhaust fan 960 draws hot air from the furnace 920 and introduces it into the mold inside the insulation box 800 through the air outlet pipe 970. The residual heat is used to preheat the mold, realizing energy recovery and utilization, reducing energy consumption, and effectively avoiding casting defects of the copper wall plate caused by the sudden cooling of the copper liquid due to the low temperature of the mold when pouring molten metal into the mold, thereby improving the casting quality.

[0048] Specifically, according to Figures 1-12As shown, copper material is poured into the furnace 920 and heated to melt it into copper solution. The copper solution is then introduced into the separatory furnace 930. The wall panel mold 600 is positioned on the electric slide plate 200. The main controller controls the first electric slider 710 and the second electric slider 720, so that the first electric slider 710 slides on the first slide rail 400 and the second electric slider 720 slides on the second slide rail 500. The injection mechanism 700 of each component is set on the top of each injection pipe 610, and the position data of the first electric slider 710 and the second electric slider 720 are marked and recorded. The electric sliding plate 200 is activated, pushing the wall panel mold 600 into the heat preservation box 800. The first fixed plate 300 pushes the first slide rail 400 and the second slide rail 500 to slide on the top surface of the heat preservation box 800. At the same time, the first electric slider 710 and the second electric slider 720 are activated to gather and concentrate the dispensing mechanism 700 until the first fixed plate 300 is fitted and sealed with the opening of the heat preservation box 800. At this time, the mold has entered the heat preservation box through the electric sliding plate 200. Subsequently, the exhaust fan 960 is activated to extract the hot air from the furnace 920 and introduce it into the wall panel mold 600 through the air outlet pipe 970 and the pouring pipe 610. The hot air heats the inside of the wall panel mold 600, realizing the preheating of the wall panel mold 600. This avoids the situation where the copper liquid cools down suddenly when it enters the wall panel mold 600 during subsequent pouring of high-temperature copper liquid, resulting in uneven distribution. While the wall panel mold 600 is preheated, the molten copper introduced into the liquid distribution furnace 930 is discharged through multiple liquid outlet pipes 940 to the pouring hoppers 743 of each component pouring mechanism. The liquid distribution furnace 930 and the liquid outlet pipes 940 are equipped with heating wires to keep the molten copper in a molten state. The inner wall of the pouring hopper 743 is a quartz stone heat insulation structure. After the molten copper enters the pouring hopper 743, the pouring mechanism 700 is in the third state. The bottom of the pouring hopper 743 is connected to the inside of the liquid distribution cylinder 752, so that some copper solution and precipitated impurities enter the inside of the liquid distribution cylinder 752. The precipitate is filtered on the filter screen 7521, while some copper solution is filtered between the filter screen 7521 and the top surface of the piston plate 7532. By leaving the precipitated impurities in the copper solution inside the liquid distribution cylinder 752, the impurity content of the copper solution inside the pouring hopper 743 is reduced, and the quality of the subsequent molten copper poured from the pouring hopper 743 into the wall panel mold 600 is improved. Then, the electric slide plate 200 is activated and slides back onto the slide block 100. The preheated wall panel mold 600 extends out from inside the insulation box 800. At the same time, the first electric slider 710 and the second electric slider 720 are activated. According to the pre-marked position data, while the first slide rail 400 and the second slide rail 500 move, each component injection mechanism 700 moves on the first slide rail 400 and the second slide rail 500 until the electric slide plate 200 moves back to the slide block 100. At this time, each component injection mechanism 700 has been adjusted to the top of each casting pipe 610. Then, the third electric slider 741 of each component dispensing mechanism 700 is activated. The third electric slider 741 slides on the third slide rail 730 and pushes the fixed frame 742 and the fixed push frame 744 to translate, so that the pouring hopper 743 remains horizontal and slides against the top surface of the fixed block 751 to the top surface of the sealing plate 762. The transparent plate 745 moves with the fixed push frame 744 and adheres to the fixed block 751, so that the opening on the top surface of the dispensing cylinder 752 begins to close. The fixed push frame 744 drives the sliding top trough 746 to translate. The sliding top trough 746 pushes the roller 765 down through the inclined end, so that the lifting frame 764 drives the guide cylinder 763 and the second guide rod 766 to descend. The second guide rod 766 compresses the spring 767. The pouring hopper 743 translates so that the bottom surface remains adhered to and sealed on the sealing plate 762. Then the sliding top... The tank 746 moves horizontally and separates from the second toothed plate 7538. The elastic telescopic rod 7539 pulls the second toothed plate 7538 upward. The second toothed plate 7538 drives the second gear 7537 to rotate. The second gear 7537 drives the single clutch 7535 and the first gear 7536 to rotate synchronously. The first gear 7536 drives the first toothed plate 7534 downward. The lifting plate 7533 drives the piston plate 7532 to descend through the first guide rod 7531 to increase the internal volume of the liquid separator 752. This lowers the liquid level of the copper liquid inside the liquid separator 752 to below the filter screen 7521, filtering out impurities in the copper liquid onto the filter screen 7521. The filtered copper liquid is then separated from the impurities. The copper liquid and impurities are further separated inside the liquid separator 752, making it easier to reuse the filtered copper liquid. As the sliding top groove 746 moves horizontally, the roller 765 rolls and fits against the horizontal section. The guide cylinder 763 connects with the pouring pipe 610. At this time, the top surface of the guide cylinder 763 is flush with the top surface of the sealing plate 762. The pouring hopper 743 continues to move and connects with the guide cylinder 763, introducing the molten copper into the wall panel mold 600. The wall panel mold 600 is preheated so that the molten copper can flow quickly after entering and fill the interior of the wall panel mold 600, ensuring the forming accuracy of the large sculpture copper wall panel. Finally, after the molten copper inside the casting hopper 743 is introduced into the wall plate mold 600, the third electric slider 741 is activated to slide and reset. The spring 767 pushes the second guide rod 766 upward, causing the guide cylinder 763 to rise and separate from the casting pipe 610. The sliding top groove 746 moves horizontally, pushing the inclined surface of the second toothed plate 7538 to the bottom surface of the sliding top groove 746. The second toothed plate 7538 descends and engages with the second gear 7537, extending the elastic telescopic rod 7539. However, at this time, the second gear 7537 and the single clutch 7535 rotate freely, thus keeping the piston plate 7532 in the descending position until the casting hopper 743 moves horizontally back to the top of the distributor cylinder 752. At this time, because the liquid level inside the distributor cylinder 752 decreases, the molten copper remaining inside the casting hopper 743 can continue to drip into the distributor cylinder 752 for collection. Impurities are separated by the filter screen 7521, so that the molten copper can be recycled and reused, reducing the waste of molten copper.

[0049] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. All electrical components mentioned herein are electrically connected to the main controller and 220V AC mains power, and the main controller is a common existing technology such as a computer that performs control functions. Content not described in detail in this specification is prior art known to those skilled in the art.

[0050] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this application.

Claims

1. A casting equipment for casting large-scale bronze sculpture panels, characterized in that: The system includes a slide block and a wall panel mold. A heat preservation box is fixed to one side of the slide block, and the heat preservation box has an opening near the side of the slide block. A hot-melting component for melting copper liquid is installed on the top surface of the heat preservation box. Multiple liquid outlets are provided on one side of the hot-melting component. An electric sliding plate is slidably connected to the top surface of the slide block. The wall panel mold is fitted to the top surface of the electric sliding plate. Multiple pouring pipes are connected through the top surface of the wall panel mold. A first fixing plate is fixed to the top surface of the electric sliding plate. A first slide rail and a second slide rail are fixed to one side of the first fixing plate. Two second slide rails are mirrored about the vertical center line of the first slide rails. Both the first and second slide rails are slidably connected to the top surface of the heat preservation box. Multiple injection mechanisms are horizontally connected across the top surface of the first slide rail and the two top surfaces of the second slide rails. The injection mechanisms are slidably connected to the first and second slide rails. The wall panel mold can be moved horizontally by the electric sliding plate and has two states. In the first state, the electric slide plate and wall panel mold are set inside the heat preservation box, the first fixing plate is attached to the opening side wall of the heat preservation box, the first slide rail and the second slide rail are inserted into the top surface of the heat preservation box, and the multi-component injection mechanism is brought together by sliding on the first slide rail and the second slide rail, so that the multi-component injection mechanism is respectively set at the bottom of multiple liquid outlets of the hot melt assembly. In the second state, the electric slide plate and wall panel mold are set on the top of the slide block, the first fixed plate pulls the first slide rail and the second slide rail to extend out of the top surface of the heat preservation box, and the multi-component injection mechanism is dispersed by sliding on the first slide rail and the second slide rail, so that the multi-component injection mechanism is respectively set on the top of multiple casting pipes.

2. The casting equipment for casting large-scale bronze sculpture panels according to claim 1, characterized in that: The dispensing mechanism includes a first electric slider and a second electric slider. The first electric slider is slidably connected to the top surface of the first slide rail, and the second electric slider is slidably connected to the top surface of the second slide rail. A dispensing component is fixed to the side wall of the first electric slider. The bottom end of the dispensing component is an elastic telescopic structure. A third slide rail is fixed to the side wall of the second electric slider. A filter assembly is fixed between one side of the dispensing component and one side of the third slide rail. A pouring assembly is slidably connected to the top surface of the third slide rail. The pouring assembly has two states by sliding on the third slide rail. In the third state, the casting component is moved to the top of the filter collection component, and the casting component and the filter collection component are connected internally. The bottom of the injection component is elastically contracted. In the fourth state, the casting component is moved horizontally to the top of the guiding component, and the casting component and the guiding component are internally connected. The bottom end of the guiding component is pushed outward by the casting component so that the bottom end of the guiding component descends and connects with the casting pipe.

3. The casting equipment for casting large-scale bronze sculpture panels according to claim 2, characterized in that: The casting assembly includes a third electric slider slidably connected to the top surface of the third slide rail. A fixed frame is connected to the top surface of the third electric slider. A casting hopper is fixed to one side of the fixed frame. A fixed pusher is fixed to the side wall of the third electric slider. The bottom end of the casting hopper is inserted into the inside of the fixed pusher. The bottom surface of the casting hopper is flush with the top surface of the fixed pusher. A transparent plate is fixed to one side of the bottom of the fixed pusher. Both sides of the fixed pusher are fixed with sliding top grooves for pushing the casting assembly outward. The sliding top grooves are provided with inclined sections and horizontal sections. In the third state, the pouring hopper and the filter collection assembly are connected in a continuous manner, the transparent plate is attached to the top surface of the third slide rail, and the elastic telescopic structure of the injection guide assembly slides against the inclined section of the slide top groove. In the fourth state, the pouring hopper and the inside of the pouring assembly are connected, the transparent plate is attached to and sealed on the top surface of the filter collection assembly, and one side of the elastic telescopic structure of the pouring assembly is slidably attached to the horizontal section of the sliding top groove.

4. The casting equipment for casting large-scale bronze sculpture panels according to claim 3, characterized in that: The injection guide assembly includes a second fixed plate fixed to the side wall of the first electric slider. A sealing plate is elastically inserted into the top surface of the second fixed plate and adheres to the bottom surface of the fixed push frame. A guide cylinder is connected through the sealing plate and the second fixed plate. A lifting frame is fixedly sleeved on the outer wall of the bottom end of the guide cylinder. A second guide rod is connected to the top surface of one side of the lifting frame. A spring is sleeved on the outer wall of the second guide rod. The bottom end of the spring is connected to the top surface of the second fixed plate. Rollers are provided on the top surface of the lifting frame. Two rollers are mirrored about the vertical center line of the lifting frame. The rollers roll and adhere to the bottom surface of the sliding top groove.

5. The casting equipment for casting large-scale bronze sculpture panels according to claim 3, characterized in that: The filtration assembly includes a fixing block fixed to the side wall of the third slide rail, and a liquid separator is installed through the fixing block. The liquid separator, the fixing block, and the top surface of the third slide rail are all located on the same horizontal line.

6. The casting equipment for casting large-scale bronze sculpture panels according to claim 5, characterized in that: A filter screen is fixed inside the separator.

7. The casting equipment for casting large-scale bronze sculpture panels according to claim 6, characterized in that: The filtration assembly also includes a volume adjustment component, which is connected through the inside of the separatory cylinder. One side of the volume adjustment component is elastically attached to the bottom surface of the horizontal section of the sliding top trough. The sliding top trough separates from the volume adjustment component by translation, so that one side of the volume adjustment component can elastically rise to increase the internal volume of the separatory cylinder.

8. The casting equipment for casting large-scale bronze sculpture panels according to claim 7, characterized in that: The volume adjustment component includes a first guide rod and a single clutch. The first guide rod is connected through to the bottom surface of the liquid separator. A piston plate is connected to the top of the first guide rod, and a lifting plate is connected to the bottom of the first guide rod. First toothed plates are fixed on the top surfaces of both sides of the lifting plate. The top of the first toothed plates is inserted into the interior of the fixed block. The single clutch is rotatably connected to the bottom surface of the fixed block. There are two single clutches mirror images of each other about the vertical center line of the fixed block. A first gear is fixed to one end of the single clutch. One side of the first gear meshes with the first toothed plate. A second gear is inserted into the other end of the single clutch. One side of the second gear meshes with the second toothed plate. An elastic telescopic rod is fixed to one side of the second toothed plate. The top of the elastic telescopic rod is inserted into the interior of the fixed block. An inclined structure is provided on the side of the second toothed plate near the sliding top groove. The sliding top groove pushes the second toothed plate along the inclined structure, so that the second toothed plate descends and elastically fits against the bottom surface of the sliding top groove, and the second gear rotates freely in the single clutch; The sliding top trough separates from the second toothed plate by translation. The elastic telescopic rod pulls the second toothed plate up, so that the first gear, the single clutch and the second gear rotate, and the first toothed plate pushes the lifting plate down. Then the first guide rod pulls the piston plate down to increase the internal volume of the liquid separator.

9. The casting equipment for casting large-scale bronze sculpture panels according to claim 1, characterized in that: The hot-melting assembly includes a support frame fixed to the top of the insulation box, a furnace fixed to the top of the support frame, a liquid separator connected through one side of the furnace, and multiple liquid outlet pipes connected through both sides of the liquid separator.

10. The casting equipment for casting large-scale bronze sculpture panels according to claim 9, characterized in that: The hot melt assembly also includes an exhaust fan installed inside the support frame. A hot gas pipe is connected through one side of the exhaust fan to the inside of the furnace. An air outlet pipe is connected through the bottom of the exhaust fan and is connected through the inside of the insulation box. The bottom end of the air outlet pipe is connected through the casting pipe in the first state.

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