A cast pouring device convenient to move

Abstract

This utility model provides a movable casting pouring device, including a support frame. Support rods are provided at both ends of the lower surface of the support frame. First strip-shaped grooves are formed on the upper surfaces of the left and right horizontal plates of the support frame. A synchronous motor is installed within each of the first strip-shaped grooves. The output end of the synchronous motor is connected to a first screw. A first moving block is spirally sleeved on the first screw. A U-shaped moving plate is mounted on the support frame and connected to the first moving block. A moving seat is sleeved on the horizontal plate of the U-shaped moving plate. A moving component for driving the moving seat is provided on the U-shaped moving plate. A first telescopic cylinder is embedded in the moving seat, and a U-shaped lifting block is provided at the end of the telescopic rod of the first telescopic cylinder. This utility model can improve the automation level of the pouring process and achieve precise control of the pouring angle and flow rate.

Description

Technical Field

[0001] This utility model relates to the field of metal casting equipment technology, and in particular to a casting pouring device that is easy to move. Background Technology

[0002] Casting is a crucial process in modern manufacturing for producing metal parts. The pouring process, as a key step in injecting molten metal into the mold, directly impacts the yield and performance of the castings. In traditional small and medium-sized foundries or on-site construction environments, pouring operations are largely manual. Operators typically use simple ladles, which are hoisted by overhead cranes or manually transported to the mold for pouring. This method has significant drawbacks: firstly, manual operation is labor-intensive and carries the risk of splashing hot molten metal, posing significant safety hazards; secondly, the flow rate, speed, and angle of pouring are difficult to control precisely, easily leading to casting defects such as incomplete pouring, cold shuts, and air entrapment, affecting product quality; thirdly, for situations requiring continuous pouring of multiple molds, traditional methods are inefficient, inconvenient to move, and fail to meet the requirements of modern production for cycle time and consistency. To address these issues, some pouring auxiliary equipment has emerged in existing technologies, such as semi-automatic pouring devices with traveling trolleys. While these devices have reduced the labor intensity of workers to some extent, they still have many shortcomings: First, their movement is mostly limited to straight tracks or fixed paths, resulting in poor flexibility and difficulty in adapting to complex or narrow work site layouts; second, the angle adjustment of the pouring ladle usually relies on simple mechanical mechanisms or manual operation, with low automation and an inability to achieve precise and stable control of the pouring process; third, the overall functional integration is not high, and there are still deficiencies in the coordinated control of movement positioning, lifting adjustment, and tilting pouring, and the convenience and accuracy of operation need to be improved. At the same time, the opening and closing control of the pouring port of existing devices is mostly manual, which is not only inconvenient to operate but also poses a risk of molten metal splashing. Summary of the Invention

[0003] In view of this, the purpose of this utility model is to provide a mobile casting casting device that can improve the automation of the casting process and achieve precise control of the casting angle and flow rate.

[0004] This utility model is achieved using the following method: a movable casting device includes a support frame. Support rods are provided at both ends of the lower surface of the support frame. First strip-shaped grooves are formed on the upper surfaces of the left and right horizontal plates of the support frame. A synchronous motor is installed within each of the first strip-shaped grooves. A first screw is connected to the output end of the synchronous motor. A first moving block is spirally sleeved on the first screw. A U-shaped moving plate is mounted on the support frame and connected to the first moving block. A moving seat is sleeved on the horizontal plate of the U-shaped moving plate. A device for driving the device is provided on the U-shaped moving plate. The movable component that moves the movable seat includes a first telescopic cylinder embedded in the movable seat. A U-shaped lifting block is provided at the end of the telescopic rod of the first telescopic cylinder. A casting chamber is rotatably connected to the two vertical plates of the U-shaped lifting block via a rotating shaft. A rotating component for driving the casting chamber to rotate is provided on the side of the U-shaped lifting block. A casting hopper is connected to the casting chamber. Support blocks are provided on both the left and right sides of the casting hopper. A second telescopic cylinder is hinged to the support blocks. An openable and closeable plate for opening and closing the casting hopper is hinged to the casting hopper. The end of the telescopic rod of the second telescopic cylinder is hinged to the openable and closeable plate.

[0005] Furthermore, the moving component includes a first motor, and a second strip groove is provided on the lower surface of the cross plate of the U-shaped moving plate. The first motor is disposed in the second strip groove, and the output end of the first motor is connected to a second screw. A second moving block is spirally sleeved on the second screw, and the second moving block is connected to the moving base.

[0006] Furthermore, multiple heating pipes are evenly spaced inside the wall of the casting chamber.

[0007] Furthermore, the rotating component includes a placement box, the placement box is provided on the side of the U-shaped lifting block, a second motor is provided on the side of the placement box, a first gear is provided on the output shaft of the second motor, and the first gear is provided in the placement box, a second gear is provided in the placement box to mesh with the first gear, and the second gear is connected to the rotating shaft.

[0008] The beneficial effects of this utility model are as follows: This utility model achieves precise positioning through the coordinated control of the support frame and the multi-level moving mechanism. Combined with the adjustable angle pouring chamber and the automatic opening and closing structure, it solves the problems of limited movement, dangerous operation and insufficient temperature control of traditional pouring devices. It has the advantages of improving safety, improving pouring quality and efficiency. Attached Figure Description

[0009] Figure 1 This is a schematic diagram of the structure of this utility model.

[0010] Figure 2This is a structural schematic diagram of the casting chamber.

[0011] Figure 3 This is a schematic diagram of the internal structure of the casting chamber. Detailed Implementation

[0012] The present invention will be further described below with reference to the accompanying drawings.

[0013] Please see Figures 1 to 3 As shown, this utility model provides an embodiment: a movable casting pouring device, including a support frame 1. Support rods 11 are provided at both ends of the lower surface of the support frame 1. First strip-shaped grooves 12 are provided on the upper surfaces of the left and right horizontal plates of the support frame 1. A synchronous motor (not shown) is installed in the first strip-shaped groove 12. The output end of the synchronous motor is connected to a first screw 13. A first moving block (not shown) is spirally sleeved on the first screw 13. A U-shaped moving plate 2 is mounted on the support frame 1. The U-shaped moving plate 2 is connected to the first moving block. A moving seat 3 is sleeved on the horizontal plate of the U-shaped moving plate 2. A mechanism for driving the moving seat is provided on the U-shaped moving plate 2. 3. A movable component 4, wherein a first telescopic cylinder 31 is embedded in the movable base 3, and a U-shaped lifting block 32 is provided at the end of the telescopic rod of the first telescopic cylinder 31. A pouring chamber 33 is rotatably connected to the two vertical plates of the U-shaped lifting block 32 via a rotating shaft 30. A rotating component 5 for driving the pouring chamber 33 to rotate is provided on the side of the U-shaped lifting block 32. A pouring hopper 6 is connected to the pouring chamber 33. Support blocks 61 are provided on both the left and right sides of the pouring hopper 6. A second telescopic cylinder 62 is hinged to the support block 61. An openable plate 63 for opening and closing the pouring hopper 6 is hinged to the pouring hopper 6. The end of the telescopic rod of the second telescopic cylinder 62 is hinged to the openable plate 63.

[0014] The supporting frame refers to the main structure that supports the entire device. It can be implemented using a welded steel frame or an aluminum alloy frame. Its function is to provide an installation foundation for other components and ensure overall rigidity.

[0015] Among them, the synchronous motor refers to the drive device that can precisely control the speed and direction of rotation. Specifically, it can be implemented by using a closed-loop control servo motor. Its function is to drive the first screw to rotate and drive the first moving block to move linearly, thereby realizing the lateral position adjustment of the U-shaped moving plate.

[0016] The first moving block refers to the sliding component that forms a helical pair with the first screw. Specifically, it can be implemented by a metal slider with internal threads. Its function is to convert the rotational motion of the screw into linear motion to transmit power.

[0017] The movable seat refers to the load-bearing structure that slides along the horizontal plate of the U-shaped movable plate. Specifically, it can be implemented using a base with linear guide rails. Its function is to achieve longitudinal position adjustment through the driving of the movable parts, thereby accurately positioning the pouring point.

[0018] The first telescopic cylinder is an actuator that outputs linear reciprocating motion. It can be implemented using a hydraulic cylinder or a pneumatic cylinder. Its function is to adjust the vertical height of the casting chamber by raising and lowering the U-shaped lifting block through the telescopic rod to adapt to different casting molds.

[0019] Among them, the rotating shaft refers to the mechanical connecting part that allows rotational movement. Specifically, it can be implemented by a steel shaft with bearings. Its function is to provide rotational freedom for the casting chamber so as to achieve tilting angle control.

[0020] Among them, the rotating component refers to the power mechanism that drives the rotating shaft to rotate. Specifically, it can be implemented by a gear transmission or belt transmission system. Its function is to adjust the flow rate of molten metal by precisely controlling the inclination angle of the casting chamber.

[0021] The second telescopic cylinder is an actuator hinged between the support block and the openable plate. Specifically, it can be implemented using a short-stroke cylinder. Its function is to push the openable plate to rotate around the hinge point through the telescopic rod, thereby realizing the automatic opening and closing of the pouring port.

[0022] The core innovation of this application lies in the collaborative design of a multi-dimensional moving mechanism and automated control components to construct a pouring system that can be adjusted in four directions: horizontally, vertically, and angularly. This solution utilizes a synchronous motor to drive horizontal movement, moving parts to drive vertical movement, telescopic cylinders to control vertical lifting, and rotating parts to adjust the tilting angle, thus achieving omnidirectional spatial positioning capability. Simultaneously, an openable plate automatically controls the start and stop of pouring, realizing precise integrated control of the pouring path, flow rate, and posture.

[0023] The working process and principle of this application are as follows: A support frame is fixed to the ground by support rods, providing stable support for the entire device. A synchronous motor is installed in the first strip groove on the left and right horizontal plates of the support frame, and the synchronous motor drives the first screw to rotate. A first movable block is spirally sleeved on the first screw, and moves within the first strip groove as the first screw rotates. A U-shaped movable plate is connected to the first movable block to realize movement along the length of the support frame. A movable seat is sleeved on the horizontal plate of the U-shaped movable plate, and the movable seat is driven to move laterally on the U-shaped movable plate by a movable component. A first telescopic cylinder is embedded in the movable seat, and the end of its telescopic rod is connected to a U-shaped lifting block. The two vertical plates of the U-shaped lifting block are rotatably connected to the pouring chamber through a rotating shaft, and the rotating component drives the pouring chamber to rotate around the rotating shaft. A pouring hopper is connected to the pouring chamber, and a second telescopic cylinder is hinged to the support blocks on the left and right sides of the pouring hopper. An openable and closable plate is hinged to the pouring hopper, and the end of the telescopic rod of the second telescopic cylinder is hinged to the openable and closable plate to control the opening and closing of the pouring hopper.

[0024] This structural design enables three-dimensional spatial movement and precise positioning of the pouring device. A synchronous motor drives longitudinal movement, a moving component drives lateral movement, and a first telescopic cylinder enables vertical lifting. The pouring chamber's tilt angle is adjusted via a rotating component, and the opening and closing of the hinged plate is controlled by a second telescopic cylinder. The coordinated operation of these mechanisms allows the pouring device to be accurately moved to the target position and precise pouring achieved.

[0025] Reasons for selecting key technical features: The guide structure, which combines a U-shaped moving plate with a strip-shaped groove, simplifies the mechanical construction while ensuring movement accuracy. The tilting device, driven by a telescopic cylinder, replaces the manual gear mechanism, improving the precision of angle adjustment and the degree of automation. A rigid connection structure and synchronous motor drive ensure the stability of the device's movement and prevent positioning misalignment caused by vibration.

[0026] As a preferred embodiment, the solution of this application is specifically implemented as follows:

[0027] The support frame is constructed from welded square tubing, with support rods welded to the left and right ends of its lower surface. A first strip-shaped groove is machined into the upper surface of the left and right horizontal plates of the support frame, and a synchronous motor is installed within the groove. The output shaft of the synchronous motor is connected to a first screw via a coupling. A first movable block, threadedly fitted onto the first screw, is mounted on it. A U-shaped movable plate, bent from steel plate, is connected to the first movable block via bolts. A through hole is formed on the horizontal plate of the U-shaped movable plate, and a movable seat is fitted within the through hole.

[0028] The moving component includes a first motor, a second screw, and a second moving block. The first motor is installed in a second strip-shaped groove on the lower surface of the U-shaped moving plate, and its output shaft is connected to the second screw. The second moving block is threaded into the second screw and fixedly connected to the moving base. A mounting hole is provided on the moving base, and a first telescopic cylinder is embedded and fixed within the mounting hole.

[0029] The first telescopic cylinder's telescopic rod is connected to a U-shaped lifting block at its end. Shaft holes are formed in the two vertical plates of the U-shaped lifting block, allowing it to be rotatably connected to the pouring chamber via a rotating shaft. A housing is mounted on the side of the U-shaped lifting block, housing a second motor. A first gear is mounted on the output shaft of the second motor, meshing with a second gear inside the housing. The second gear is fixedly connected to the rotating shaft, driving the pouring chamber to rotate.

[0030] The casting chamber is made of high-temperature resistant alloy material, with multiple heating pipes installed on its inner wall. A casting hopper is connected to the casting chamber, and support blocks are welded to the left and right sides of the casting hopper. A second telescopic cylinder is hinged to the support blocks via pins. An openable / closeable plate is connected to the casting hopper via hinges, and the end of the telescopic rod of the second telescopic cylinder is hinged to the openable / closeable plate.

[0031] Through the above-described scheme, this application achieves flexible movement and precise positioning of the casting device in complex sites. The dual-axis collaborative drive structure allows the device to move arbitrarily in the horizontal plane, adapting to operational needs in non-linear layouts or confined spaces. A telescopic cylinder-driven tilting device replaces the manual gear mechanism, improving the accuracy and automation of ladle angle adjustment. A rigid connection structure and synchronous motor drive ensure the stability of the device's movement, avoiding positioning deviations caused by mechanical vibration. These improvements significantly enhance the efficiency and accuracy of casting operations, reduce manual intervention, and lower safety risks. Simultaneously, the device's flexibility allows it to adapt to various complex workshop layouts, improving site utilization. For multi-mold continuous casting scenarios, the device can quickly and accurately position itself, shortening the cycle time and improving production efficiency.

[0032] Please continue reading. Figure 1 As shown, in one embodiment of the present invention, the moving part 4 includes a first motor (not shown), and a second strip groove (not shown) is provided on the lower surface of the cross plate of the U-shaped moving plate 2. The first motor is disposed in the second strip groove, and the output end of the first motor is connected to a second screw (not shown). A second moving block is spirally sleeved on the second screw, and the second moving block is connected to the moving base 3.

[0033] The second groove is formed on the lower surface of the cross plate of the U-shaped movable plate to accommodate the installation of the second screw. The first motor is fixed in the second groove, and its output shaft is coaxially connected to the second screw. The second movable block is threaded onto the second screw and rigidly connected to the movable seat. When the first motor drives the second screw to rotate, the second movable block moves linearly along the extension direction of the second groove, thereby driving the movable seat to move synchronously.

[0034] Specifically, the first motor transmits rotational torque to the second screw via its output shaft. The thread lead of the second screw and the internal thread of the second moving block form a helical pair, converting rotational motion into linear motion. Under the limiting action of the second groove, the second moving block moves along a preset path, thereby precisely adjusting the horizontal position of the moving seat. This structure achieves automated control of the moving seat through the cooperation of the motor and the screw, avoiding errors caused by manual adjustment and improving the smoothness of the movement process. For example, when using a trapezoidal thread screw with a lead of 5mm, the moving seat can be displaced by 5mm per revolution of the motor. Combined with the stepping control of the motor, millimeter-level positioning accuracy can be achieved. Thus, during lateral movement, the moving seat can be adjusted to the target position according to the casting requirements, ensuring the alignment accuracy between the pouring hopper and the mold opening, and reducing casting defects caused by molten metal spillage or misalignment.

[0035] As a preferred embodiment, the solution of this application is specifically implemented as follows:

[0036] The moving part includes a first motor. A second strip groove is provided on the lower surface of the cross plate of the U-shaped moving plate. The first motor is installed in the second strip groove. The output end of the first motor is connected to a second screw. A second moving block is spirally sleeved on the second screw. The second moving block is connected to the moving base.

[0037] Specifically, a rectangular second groove is machined into the lower surface of the cross plate of the U-shaped moving plate. The first motor is installed in the second groove, and its output shaft is coaxially connected to the second screw. The two ends of the second screw are supported by bearings at the two ends of the second groove. The interior of the second moving block has threaded holes that match the second screw, allowing it to move along the second screw. The upper surface of the second moving block is fixedly connected to the lower surface of the moving base.

[0038] When the first motor starts, its output shaft drives the second screw to rotate. Since the second moving block is threadedly connected to the second screw, the rotational motion of the second screw is converted into the linear motion of the second moving block. This, in turn, drives the connected moving seat to move along the horizontal direction of the U-shaped moving plate. By controlling the forward and reverse rotation and the speed of the first motor, the direction and speed of the moving seat can be precisely controlled.

[0039] Through the above technical solution, this application achieves precise positioning and smooth movement of the movable seat on the U-shaped moving plate. This improves the operational accuracy and stability of the pouring device, which is beneficial for ensuring pouring quality. Simultaneously, the motor-driven screw transmission mechanism has a self-locking function, which can maintain the position of the movable seat when the machine is stopped, enhancing the safety of the device. Furthermore, the structure is compact, effectively utilizing the space of the U-shaped moving plate and improving the overall integration of the device.

[0040] Please continue reading. Figure 1 and Figure 3 As shown, in one embodiment of this utility model, multiple heating pipes 34 are arranged at equal intervals inside the wall of the casting chamber 33.

[0041] The heating tubes are arranged parallel to the axial direction of the casting chamber, with their longitudinal axes perpendicularly intersecting the central axis of the chamber. The heating tubes utilize resistance heating elements, with a power density controlled at 8-12 W / cm². 2 Within this range, the tube surface is covered with a silicon nitride ceramic layer to prevent corrosion from molten metal. The spacing between adjacent heating tubes is set to 2.5-3 times the tube diameter, forming staggered heating zones.

[0042] Specifically, when the casting chamber holds molten metal, the heating pipes are energized to generate heat, which is then conducted through the metal material of the chamber wall. The equidistantly distributed heating pipes create a continuous thermal field, maintaining the temperature of the chamber's inner wall 15-20°C above the liquidus temperature of the molten metal. The silicon nitride ceramic layer, while isolating the current, evenly transfers heat to the molten metal, preventing localized overheating and component segregation. This arrangement ensures the molten metal maintains a constant temperature during transport, avoiding viscosity increases due to heat loss and ensuring the flow properties of the molten metal meet the molding requirements during casting.

[0043] As a preferred embodiment, the solution of this application is implemented as follows: Multiple heating tubes are evenly spaced inside the casting chamber wall. The heating tubes are resistance wire heating elements, embedded in the chamber wall in a U-shaped bend. The heating tubes are evenly distributed along the circumference of the chamber, with a spacing of 10 cm. The heating tubes are connected to a temperature controller, allowing adjustment of the heating temperature as needed. The heating tubes have a power of 1000 watts, capable of heating the molten metal inside the casting chamber to 1200 degrees Celsius.

[0044] Through the above technical solution, this application achieves uniform heating of the molten metal within the casting chamber. The heating pipes effectively prevent the temperature of the molten metal from dropping during casting, avoiding casting defects such as incomplete pouring and cold shuts caused by insufficient molten metal temperature. Simultaneously, the heating temperature can be precisely adjusted via a temperature controller, ensuring the optimal pouring temperature for different types of molten metal and improving casting quality. Furthermore, the arrangement of the heating pipes enhances the structural strength of the casting chamber and extends the service life of the equipment.

[0045] Please continue reading. Figure 1 and Figure 3 As shown, in one embodiment of the present invention, the rotating component 5 includes a placement box 51, the U-shaped lifting block 32 is provided with the placement box 51 on its side, the placement box 51 is provided with a second motor 52 on its side, the output shaft of the second motor 52 is provided with a first gear 53, and the first gear 53 is provided inside the placement box 51. The placement box 51 is provided with a second gear 54 that meshes with the first gear 53, and the second gear 54 is connected to the rotating shaft 30.

[0046] The housing is fixed to the side of the U-shaped lifting block, forming a closed space to accommodate the transmission components. The second motor is horizontally mounted on the outside of the housing, with its output shaft extending horizontally into the housing. The first gear is directly fitted onto the end of the output shaft. The second gear meshes perpendicularly with the first gear, its axis coaxial with the rotating shaft, and they rotate synchronously via a key connection. The gear module ranges from 2 to 4, with a gear ratio of 1:3 to balance torque and speed. A bearing seat is provided at the bottom of the housing to support the second gear shaft and reduce friction.

[0047] Specifically, when the angle of the pouring chamber needs to be adjusted, the second motor starts, driving the first gear to rotate. The first gear then drives the second gear to rotate in the opposite direction. The second gear transmits power to the pouring chamber through a shaft, causing it to rotate around the shaft axis. A housing protects the gear set, preventing external impurities from interfering with meshing accuracy. During gear transmission, the small number of teeth on the first gear enables high-speed input, while the large number of teeth on the second gear reduces the rotational speed and amplifies the torque, ensuring the shaft drives the pouring chamber to rotate at a stable speed. The gear meshing clearance is controlled within the range of 0.05-0.1mm, and transmission backlash is eliminated by adjusting the preload of the bearing housing. This structure allows for precise angle positioning of the pouring chamber in 0.5° adjustment units, with no slippage loss during transmission, maintaining synchronous power transmission.

[0048] As a preferred embodiment, the solution of this application is specifically implemented as follows:

[0049] The rotating component includes a placement box. The placement box is located on the side of the U-shaped lifting block. A second motor is mounted on the side of the placement box. A first gear is mounted on the output shaft of the second motor, and the first gear is located inside the placement box. A second gear, meshing with the first gear, is located inside the placement box. The second gear is connected to a rotating shaft.

[0050] Furthermore, the housing can be made of metal to provide sufficient strength and rigidity. The second motor can be a servo motor for precise angle control. The first and second gears can be standard module spur gears, made of wear-resistant alloy steel to ensure long-term reliability. The shaft can be made of high-strength alloy steel and heat-treated to improve its wear resistance and strength.

[0051] Specifically, the output shaft of the second motor can be fixed to the first gear via a key connection. The second gear can also be connected to the rotating shaft via a key connection. A bearing housing can be installed inside the housing to support the rotating shaft. Rolling bearings can be used in the bearing housing to reduce friction and improve rotational smoothness.

[0052] Therefore, when the angle of the casting chamber needs to be adjusted, the control system sends a command to drive the second motor to rotate. The second motor drives the first gear to rotate, and the first gear meshes with the second gear, thereby driving the shaft to rotate. The rotation of the shaft ultimately achieves the angle adjustment of the casting chamber.

[0053] Through the above technical solution, this application achieves precise automated control of the casting chamber angle. Due to the use of a gear transmission mechanism, this solution offers greater output torque and higher transmission accuracy compared to direct drive. The housing design effectively protects the transmission mechanism, preventing interference from the external environment. The combination of the motor and gear transmission makes angle adjustment smoother and more controllable, contributing to improved stability and accuracy of the casting process. Furthermore, the compact structure design facilitates integration into the entire casting device, enhancing the overall performance and reliability of the equipment.

[0054] The motor, telescopic cylinder, and synchronous motor in this utility model are all existing technologies, which are already clearly understood by those skilled in the art, and will not be described in detail here.

[0055] The above description is only a preferred embodiment of the present utility model. All equivalent changes and modifications made within the scope of the patent application of the present utility model shall be covered by the present utility model.

Claims

1. A portable casting equipment, characterized in that: The system includes a support frame, with support rods at both ends of its lower surface. A first strip-shaped groove is formed on the upper surface of each of the left and right horizontal plates of the support frame. A synchronous motor is installed within each of the first strip-shaped grooves, and the output end of the synchronous motor is connected to a first screw. A first moving block is screwed onto the first screw. A U-shaped moving plate is mounted on the support frame and connected to the first moving block. A moving seat is fitted onto the horizontal plate of the U-shaped moving plate, and a moving component for driving the moving seat is provided on the U-shaped moving plate. A first telescopic cylinder is embedded in the moving base. A U-shaped lifting block is provided at the end of the telescopic rod of the first telescopic cylinder. A casting chamber is rotatably connected to the two vertical plates of the U-shaped lifting block via a rotating shaft. A rotating component for driving the casting chamber to rotate is provided on the side of the U-shaped lifting block. A casting hopper is connected to the casting chamber. Support blocks are provided on both the left and right sides of the casting hopper. A second telescopic cylinder is hinged to the support blocks. An openable and closeable plate for opening and closing the casting hopper is hinged to the casting hopper. The end of the telescopic rod of the second telescopic cylinder is hinged to the openable and closeable plate.

2. The easily movable casting pouring device according to claim 1, characterized in that: The moving component includes a first motor. A second strip groove is provided on the lower surface of the cross plate of the U-shaped moving plate. The first motor is disposed in the second strip groove. The output end of the first motor is connected to a second screw. A second moving block is spirally sleeved on the second screw. The second moving block is connected to the moving base.

3. The easily movable casting pouring device according to claim 1, characterized in that: Multiple heating pipes are installed at equal intervals inside the wall of the casting chamber.

4. The easily movable casting pouring device according to claim 1, characterized in that: The rotating component includes a placement box, the placement box is provided on the side of the U-shaped lifting block, a second motor is provided on the side of the placement box, a first gear is provided on the output shaft of the second motor, and the first gear is provided in the placement box. A second gear that meshes with the first gear is provided in the placement box, and the second gear is connected to the rotating shaft.

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