Traffic cone forming device for efficient production

Abstract

The present invention discloses a highly efficient road cone forming device, comprising a conveying mechanism, an injection mechanism, a mold opening mechanism, and a demolding mechanism. The injection mechanism comprises an injection head, a mold cover plate, and a blocking mechanism. An injection cavity is provided on the mold cover plate at a position corresponding to the mold. After the mold cover plate is attached to the mold, the injection cavity guides the material to each injection hole. The blocking mechanism comprises a driving member and a blocking member. The blocking member is retractably connected to the mold cover plate, and the mold cover plate has an injection channel connected to the injection cavity. The blocking member opens and closes the injection channel. The blocking member can penetrate the mold cover plate and, by telescopically pushing down the molded object in the injection cavity onto the mold. The demolding mechanism comprises a clamping member, an actuator, and an angle adjustment mechanism. The clamping member is used to clamp the molded object on the mold, and the angle adjustment mechanism adjusts the angle of the actuator to offset the molded object from the mold. The present invention can improve production efficiency, reduce the influence of human factors, and facilitate the handling of waste materials.

Description

Technical Field

[0001] The invention relates to a road cone forming device, in particular to a road cone forming device for high-efficiency production. Background Art

[0002] In the production of road safety equipment, traffic cones are typically injection molded using a mold and core. In existing processes, demolding requires first lifting the core to open the mold, and then manually removing the product for collection.

[0003] In the prior art, a road cone machine's lifting and demoulding mechanism (CN214926706U) discloses a technical solution. After the mold is opened, the molded product (including the slug and the finished product) must be manually removed and collected. Because this manual collection process is required, the next step cannot be performed until the product is collected. Consequently, production efficiency is severely impacted by the manual collection process, and any need for workers to temporarily leave their workstations can lead to production stagnation. Summary of the Invention

[0004] In view of the shortcomings of the prior art, the present invention aims to provide a road cone forming device with high efficiency, which can improve production efficiency, reduce the influence of human factors, and facilitate the processing of waste materials.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solution: a road cone forming device for efficient production, comprising a conveying mechanism for conveying a mold, an injection mechanism for injecting material into the mold, a mold opening mechanism for opening the mold, and a demolding mechanism for demolding a molded object from the mold.

[0006] The injection mechanism includes an injection head, a mold cover plate, and a blocking mechanism; an injection cavity is provided on the mold cover plate at a position corresponding to the mold, and a plurality of injection holes are provided on the mold at positions corresponding to the injection cavity. After the mold cover plate is attached to the mold, the injection cavity and the injection holes cooperate to guide the material to each injection hole;

[0007] The blocking mechanism includes a driving member and a blocking member, wherein the driving member drives the blocking member to move axially; the blocking member is retractably connected to the mold cover plate, and the mold cover plate has an injection channel connected to the injection cavity, and the blocking member is used to open and close the injection channel;

[0008] The injection head is used to inject material into the injection channel on the mold cover, and the blocking member can penetrate the mold cover and push the molded object in the injection cavity onto the mold through telescopic ejection;

[0009] The demoulding mechanism includes a clamping component, an actuator 1 for driving the clamping component to move toward or away from the mold, and an angle adjustment mechanism for driving the actuator to switch the angle; the clamping component is used to clamp the molded object on the mold, and the angle adjustment mechanism adjusts the angle of the actuator 1 to stagger the molded object and the mold;

[0010] The conveying mechanism also drives the mold to be conveyed to a position corresponding to the clamping component.

[0011] As a further improvement of the present invention, a material guide cavity is provided on the mold at a position corresponding to the mold cover plate, and the injection cavity and the material guide cavity cooperate to form a space for guiding the material into the injection hole; when the blocking member pushes down the molded object in the injection cavity, the molded object falls into the material guide cavity and is at least partially exposed from the material guide cavity for cooperation with the clamping member to clamp it.

[0012] As a further improvement of the present invention, a detachable docking joint is provided on the mold cover plate, and the injection channel is located in the docking joint; the blocking member opens and closes the injection channel in the docking joint by axial movement.

[0013] As a further improvement of the present invention, the docking head is provided with a docking port, which is concave and communicates with the injection channel. The shape of the docking port matches the shape of the injection head and is used for the injection head to be inserted into the docking port.

[0014] As a further improvement of the present invention, the angle adjustment mechanism includes a bracket, an actuator 2 rotatably connected to the bracket, and a connecting shaft rotatably connected to the bracket; the connecting shaft is fixedly connected to the actuator 1, and the connecting shaft is driven to rotate by the actuator 2, thereby driving the actuator 1 to rotate.

[0015] As a further improvement of the present invention, an adjusting member for cooperating with actuator 2 is provided on the connecting shaft. The adjusting member is fixedly connected to the connecting shaft, and a strip hole is provided at the position connected to actuator 2. The position of actuator 2 corresponding to the strip hole is slidably connected to the strip hole, and can be positioned on the adjusting member by a fastener; the actuator 2 adjusts the swing angle of actuator 1 by adjusting the connection position with the strip hole.

[0016] As a further improvement of the present invention, the strip hole is arc-shaped, and the inner concave surface of the arc corresponds to the second actuator; the arc shape of the strip hole matches the trajectory of the end of the strip hole corresponding to the second actuator when the second actuator rotates.

[0017] As a further improvement of the present invention, a rotating shaft is provided at one end of the actuator 2 corresponding to the strip hole. The rotating shaft is rotatably connected to the actuator 2 and is also fixedly connected to the strip hole through a fastener. The actuator 2 is positioned in the strip hole through the rotating shaft.

[0018] As a further improvement of the present invention, the adjusting member and the connecting shaft are clamped by a clamping structure, and can be loosened to allow relative rotation between the adjusting member and the connecting shaft.

[0019] As a further improvement of the present invention, the number of the demolding mechanisms is at least two; the mold includes a first mold assembly and a second mold assembly, and the first mold assembly and the second mold assembly, when combined, have a cavity for molding a road cone or a semi-finished product thereof; the mold opening mechanism is used to lift the first mold assembly, separate the first mold assembly from the second mold assembly, and move the first mold assembly toward the corresponding demolding mechanism; the demolding mechanism uses a clamping component to clamp the molded object on the first mold assembly for demolding, and another demolding mechanism uses a clamping component to clamp the molded object in the second mold assembly for demolding; the second mold assembly is moved closer to or away from the corresponding demolding mechanism position by a conveying mechanism; the mold cover is used to cooperate with the first mold assembly, and the molded object pushed down by the blocking member is located on the first mold.

[0020] The beneficial effect of the present invention is that the blocking mechanism automatically pushes down the residual material (material head), avoiding the tedious operation of manually handling the material head. At the same time, the automated action of the demoulding mechanism replaces the traditional manual collection, solving the problem of production stagnation caused by manual reliance in the existing technology, and significantly improving production efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0022] Figure 2 This is a schematic structural diagram of the injection mechanism of the present invention in an installed state;

[0023] Figure 3 It is a schematic structural diagram of the injection mechanism of the present invention;

[0024] Figure 4 Schematic diagram of the cross-sectional structure of the injection mechanism of the present invention;

[0025] Figure 5 Schematic diagram of the blocking mechanism structure of the present invention

[0026] Figure 6 for Figure 3 A magnified view of part A in FIG;

[0027] Figure 7 for Figure 4 A magnified view of part B in FIG;

[0028] Figure 8 Schematic diagram of the demoulding mechanism of the present invention;

[0029] Figure 9 This is a schematic diagram of the demoulding mechanism of the present invention from another perspective;

[0030] Figure 10 for Figure 8 Enlarged view of part C in FIG;

[0031] Figure 11 for Figure 9 Enlarged view of part D in FIG;

[0032] Figure 12 This is a schematic structural diagram of the first mold assembly of the present invention.

[0033] Figure numbers: 1. Conveying mechanism; 2. Injection mechanism; 21. Injection head; 22. Mold cover; 221. Injection cavity; 222. Butt joint; 23. Blocking mechanism; 231. Driving member; 232. Blocking member; 24. Injection channel; 3. Mold opening mechanism; 4. Demolding mechanism; 41. Clamping member; 42. Actuator 1; 43. Angle adjustment mechanism; 431. Bracket; 432. Actuator 2; 433. Connecting shaft; 434. Rotating shaft; 44. Adjusting member; 441. Strip hole; 45. Hoop structure; 5. Mold; 51. First mold assembly; 52. Second mold assembly. DETAILED DESCRIPTION

[0034] The present invention will be further described below with reference to the embodiments shown in the accompanying drawings.

[0035] Reference Figure 1-12 As shown,

[0036] A road cone forming device with high efficiency production includes a conveying mechanism 1 for conveying a mold 5, an injection mechanism 2 for injecting material into the mold 5, a mold opening mechanism 3 for opening the mold 5, and a demoulding mechanism 4 for demoulding the molded object of the mold 5.

[0037] The injection mechanism 2 includes an injection head 21, a mold cover plate 22, and a blocking mechanism 23. An injection cavity 221 is provided on the mold cover plate 22 at a position corresponding to the mold 5, and a plurality of injection holes are provided on the mold 5 at positions corresponding to the injection cavity 221. After the mold cover plate 22 is attached to the mold 5, the injection cavity 221 cooperates with the injection holes to guide the material to each injection hole.

[0038] The blocking mechanism 23 includes a driving member 231 and a blocking member 232. The driving member 231 drives the blocking member 232 to move axially. The blocking member 232 is retractably connected to the mold cover plate 22. The mold cover plate 22 has an injection channel 24 connected to the injection cavity 221. The blocking member 232 is used to open and close the injection channel 24.

[0039] The injection head 21 is used to inject material into the injection channel 24 on the mold cover 22. The blocking member 232 can penetrate the mold cover 22 and push the molded object in the injection cavity 221 onto the mold 5 through telescopic ejection.

[0040] The demolding mechanism 4 includes a gripping member 41, an actuator 42 for driving the gripping member 41 toward or away from the mold 5, and an angle adjustment mechanism 43 for driving the actuator to switch angles. The gripping member 41 is used to grip the molded object on the mold 5, and the angle adjustment mechanism 43 adjusts the angle of the actuator 42 to offset the position of the molded object from the mold 5.

[0041] The conveying mechanism 1 also drives the mold 5 to be conveyed to a position corresponding to the clamping component 41 .

[0042] The conveyor mechanism 1 moves the mold 5 to the injection station. The mold cover 22 fits against the mold 5, and the injection cavity 221 aligns with the injection hole to form a material channel. The injection head 21 injects material into the injection cavity 221 through the injection channel 24. The material enters the mold 5 cavity through the injection hole and is formed. A driver 231 (such as a cylinder or motor) drives the blocking member 232 axially. The blocking member 232 first closes the injection channel 24 to cut off the material supply. After molding is complete and the mold 5 is opened, the blocking member 232 continues to move axially and extend, pushing any molded material (such as slug) remaining in the injection cavity 221 onto the surface of the mold 5. At this time, the conveying mechanism 1 conveys the mold 5 to the demolding station, and the actuator 42 drives the clamping component 41 to move to the position on the surface of the mold 5, and clamps the molded object (such as the slug) through the clamping component. After clamping, the actuator 42 drives the clamping component 41 to retract, and at the same time, the angle adjustment mechanism 43 drives the actuator 42 to rotate the angle, so that the molded object and the mold 5 are offset, and the clamping component is released. At this time, the molded object falls to the collection. This structure automatically pushes off the residual material through the blocking mechanism 23, avoiding the tedious operation of manually handling the slug. At the same time, the automated action of the demolding mechanism 4 replaces the traditional manual collection, solving the problem of production stagnation caused by manual reliance in the existing technology and significantly improving production efficiency. The cooperation between the injection cavity 221 and the injection hole guides the material to be evenly distributed, ensuring the molding quality.

[0043] The above mainly introduces the demoulding and material collection of the material head. By adding a demoulding mechanism 4, more molded objects can also be demoulded and collected. For example, the number of demoulding mechanisms 4 is at least two; the mold 5 includes a first mold component 51 and a second mold component 52. The first mold component 51 and the second mold component 52 have a cavity for molding a road cone or a semi-finished product thereof after being combined. The mold opening mechanism 3 is used to lift the first mold component 51, separate the first mold component 51 from the second mold component 52, and move the first mold component 51 toward the corresponding demoulding mechanism 4. The demoulding mechanism 4 clamps the molded object on the first mold component 51 through the clamping part 41 for demoulding, and another demoulding mechanism 4 clamps the molded object in the second mold component 52 through the clamping part 41 for demoulding; the second mold component 52 is close to or away from the corresponding demoulding mechanism 4 position through the conveying mechanism 1. The mold cover plate 22 is used to cooperate with the first mold component 51, and the molded object pushed down by the blocking member 232 is located on the first mold component 51.

[0044] The mold opening mechanism 3 (e.g., a lifting cylinder) lifts the first mold assembly 51, separating it from the second mold assembly 52. ​​The molded object is now located on the first mold assembly 51 and within the mold cavity of the second mold assembly 52, respectively. The two demolding mechanisms 4 operate simultaneously or sequentially: the demolding mechanism 4 corresponding to the first mold assembly 51 moves with the mold opening mechanism 3 to the target position. Actuator 1 42 drives the gripping component 41 to the corresponding position, where it grabs the molded object (stub) that has fallen off the first mold assembly 51. Simultaneously, the conveying mechanism 1 moves the second mold assembly 52 to the workstation of another demolding mechanism 4. Actuator 1 42 of this demolding mechanism 4 drives the gripping component 41 to the corresponding position, where it grabs the molded object (road cone product or semi-finished product) within the second mold assembly 52. The double demoulding mechanism 4 design realizes the synchronous / sequential demoulding of the two mold 5 components, avoiding the waiting time of single-station demoulding and greatly shortening the production cycle; the cooperation of the conveying mechanism 1, the mold opening mechanism 3 and the demoulding mechanism 4 completely replaces manual operation, further improving the degree of production automation and efficiency, solving the production stagnation problem caused by manual collection in the existing technology, and adapting to the needs of long-term continuous production.

[0045] As an embodiment that can facilitate the clamping component 41 to clamp, a material guide cavity is provided on the mold 5 at a position corresponding to the mold cover 22, and the injection cavity 221 and the material guide cavity cooperate to form a space for guiding the material into the injection hole; when the blocking member 232 pushes down the molded object in the injection cavity 221, the molded object falls into the material guide cavity and is at least partially exposed in the material guide cavity for cooperating with the clamping component 41 to clamp,

[0046] When mold cover 22 is attached to mold 5, injection cavity 221 and guide cavity mate to form a complete material channel, through which material flows into the injection hole. The molded object (e.g., a slug) pushed down by blocking member 232 falls into the guide cavity. Due to the structural design of the guide cavity, the molded object is partially exposed, facilitating precise positioning and gripping by gripping member 41. The guide cavity not only guides the material but also provides positioning space for the molded object, preventing it from shifting and causing gripping failure due to falling, further improving demolding efficiency and stability. The design of the molded object exposed in the guide cavity makes gripping more reliable, reduces the need for manual intervention, and maintains the advantages of automated production.

[0047] To facilitate replacement and maintenance, a detachable docking joint 222 is provided on the mold cover 22, and the injection channel 24 is located in the docking joint 222; the blocking member 232 opens and closes the injection channel 24 in the docking joint 222 by axial movement.

[0048] The docking joint 222 is mounted on the mold cover plate 22 in a detachable manner such as threads or snaps, and the injection channel 24 passes through the docking joint 222. When it is necessary to replace the injection head 21 or repair the injection channel 24, the docking joint 222 can be directly removed without replacing the mold cover plate 22 as a whole. The blocking member 232 is passed through the docking joint 222 and is driven by the driving member 231 to move axially to open or close the injection channel 24. The detachable design of the docking joint 222 facilitates maintenance and replacement of wearing parts, reducing equipment maintenance costs; at the same time, docking joints 222 of different specifications can be adapted to different models of injection heads 21, thereby improving the versatility of the device and adapting to diversified production needs.

[0049] In order to facilitate the docking with the injection head 21, a docking port is provided on the docking head 222. The docking port is concave and connected to the injection channel 24. The shape of the docking port is adapted to the shape of the injection head 21 for insertion and docking of the injection head 21.

[0050] As an implementation method of the angle adjustment mechanism 43, the angle adjustment mechanism 43 includes a bracket 431, an actuator 2 432 rotatably connected to the bracket 431, and a connecting shaft 433 rotatably connected to the bracket 431; the connecting shaft 433 is fixedly connected to the actuator 1 42, and the connecting shaft 433 is driven to rotate by the actuator 2 432 to drive the actuator 1 42 to rotate.

[0051] Bracket 431 is fixed to the external equipment frame. Actuator 2 432 (such as a hydraulic cylinder or rotary motor) is hinged on bracket 431 at one end, and its other end is linked to connecting shaft 433 via a connecting rod or gear. Connecting shaft 433 is fixedly connected to actuator 1 42. When actuator 2 432 is actuated, it drives connecting shaft 433 to rotate on bracket 431, thereby rotating actuator 1 42 around the axis of connecting shaft 433. Through the angle adjustment mechanism 43, actuator 1 42 can drive the gripping component 41 to switch between different angles, achieving an offset between the molded object and the mold 5, facilitating gripping and demolding. This structure achieves angle adjustment through mechanical transmission, resulting in precise and stable operation, adapting to the different demolding angle requirements of the mold 5, and improving the flexibility and applicability of the demolding mechanism 4.

[0052] More specifically, an adjusting member 44 for cooperating with actuator 2 432 is provided on the connecting shaft 433. The adjusting member 44 is fixedly connected to the connecting shaft 433, and a bar hole 441 is provided at the position connected to actuator 2 432. The position of actuator 2 432 corresponding to the bar hole 441 is slidably connected to the bar hole 441, and can be positioned on the adjusting member 44 by fasteners; the actuator 2 432 adjusts the swing angle of actuator 1 42 by adjusting the connection position with the bar hole 441.

[0053] The adjusting member 44 is fixed to the connecting shaft 433 by a key or bolt, and a strip hole 441 is provided on its surface. A connecting pin is provided at the output end of the actuator 2 432, which is passed through the strip hole 441 and fixed by a fastener such as a nut. When it is necessary to adjust the swing angle of the actuator 1 42, the fastener is loosened, and the position of the connecting pin in the strip hole 441 is moved (such as sliding along the length of the strip hole 441), thereby changing the connection point between the actuator 2 432 and the adjusting member 44, thereby adjusting the rotation amplitude of the connecting shaft 433 and thus changing the swing angle of the actuator 1 42. After the adjustment is completed, the fastener is tightened to fix the position. This design allows for flexible adjustment of the demoulding angle according to actual production needs, adapts to the demoulding requirements of road cones of different specifications, and improves the versatility of the device; the matching structure of the strip hole 441 and the connecting pin is simple, easy to adjust, and reliable in positioning.

[0054] To facilitate the adaptation of the length of actuator two 432, the bar hole 441 is arc-shaped, and the concave inner surface of the arc corresponds to actuator two 432; the arc of the bar hole 441 matches the trajectory of the movement of one end of the bar hole 441 corresponding to actuator two 432 when actuator two 432 rotates. The center of the arc-shaped bar hole 441 coincides with the axis of the connecting shaft 433. When actuator two 432 rotates, the connecting pin at its output end moves along the trajectory of the arc-shaped bar hole 441. Because the shape of the arc-shaped bar hole 441 matches the movement trajectory of the connecting pin, the connecting pin has little resistance when sliding in the bar hole 441 and moves smoothly, avoiding the problems of jamming or stress concentration that may be caused by the straight bar hole 441. This structure makes the rotation of actuator two 432 smoother and the angle adjustment process more precise when changing the swing angle of actuator one 42.

[0055] In a preferred embodiment, a rotating shaft 434 is provided at one end of the second actuator 432 corresponding to the strip hole 441. This rotating shaft 434 is rotatably connected to the second actuator 432 and is also fixedly connected to the strip hole 441 via a fastener. The second actuator 432 is positioned in the strip hole 441 via the rotating shaft 434. One end of the rotating shaft 434 is hinged to the output end of the second actuator 432, while the other end passes through the arcuate strip hole 441 and is secured to the adjusting member 44 via a fastener such as a bolt or pin. When the second actuator 432 is actuated, the rotating shaft 434 remains fixed in the strip hole 441 but is able to rotate, simultaneously driving the second actuator 432 to swing about its hinge point. The rotational connection between the rotating shaft 434 and the second actuator 432 allows for relative rotation between the two. This structure achieves stable positioning of the actuator 2 432 on the adjustment member 44 through the cooperation of the rotating shaft 434 and the fastener, ensuring that the position is fixed after the demoulding angle is adjusted, avoiding angle deviation due to factors such as vibration, and ensuring the consistency and reliability of the demoulding action.

[0056] To further enhance the angular adjustment flexibility of actuator 1 42, the adjusting member 44 is clamped against the connecting shaft 433 by a clamping mechanism 45. This clamping mechanism can be loosened to allow relative rotation between the two shafts. Clamping mechanism 45 is mounted on the connecting shaft 433. When tightened with bolts, it clamps the adjusting member 44, securing it to the connecting shaft 433. When the bolts are loosened, the clamping mechanism releases its clamping force, allowing the adjusting member 44 to rotate about the connecting shaft 433. To adjust the circumferential position of the adjusting member 44 on the connecting shaft 433 (for example, to change the initial angle of the strip-shaped hole 441), the clamping mechanism is loosened, the adjusting member 44 is rotated to the desired position, and then re-tightened. This design allows for fine-tuning of the angle of the adjusting member 44 relative to the connecting shaft 433, facilitating alignment with the mounting position of actuator 2 432. This improves the installation flexibility and adaptability of the angle adjustment mechanism 43, ensures precise fit between components, and further optimizes the accuracy of the demolding operation.

[0057] The above are merely preferred embodiments of the present invention. The scope of protection of the present invention is not limited to the above embodiments. All technical solutions based on the principles of the present invention are within the scope of protection of the present invention. It should be noted that improvements and modifications that do not depart from the principles of the present invention are within the scope of protection of the present invention.

Claims

1. A road cone forming device for efficient production, comprising a conveying mechanism for conveying a mold, an injection mechanism for injecting material into the mold, a mold opening mechanism for opening the mold, and a demoulding mechanism for demoulding a molded object from the mold, characterized in that: The injection mechanism includes an injection head, a mold cover plate, and a blocking mechanism; an injection cavity is provided on the mold cover plate at a position corresponding to the mold, and a plurality of injection holes are provided on the mold at positions corresponding to the injection cavity. After the mold cover plate is attached to the mold, the injection cavity and the injection holes cooperate to guide the material to each injection hole; The blocking mechanism includes a driving member and a blocking member, wherein the driving member drives the blocking member to move axially; the blocking member is retractably connected to the mold cover plate, and the mold cover plate has an injection channel connected to the injection cavity, and the blocking member is used to open and close the injection channel; The injection head is used to inject material into the injection channel on the mold cover, and the blocking member can penetrate the mold cover and push the molded object in the injection cavity onto the mold through telescopic ejection; The demoulding mechanism includes a clamping component, an actuator 1 for driving the clamping component to move toward or away from the mold, and an angle adjustment mechanism for driving the actuator to switch the angle; the clamping component is used to clamp the molded object on the mold, and the angle adjustment mechanism adjusts the angle of the actuator 1 to stagger the molded object and the mold; The conveying mechanism also drives the mold to be conveyed to a position corresponding to the clamping component.

2. The road cone forming device for efficient production according to claim 1, characterized in that: A material guide cavity is provided on the mold at a position corresponding to the mold cover plate, and the injection cavity and the material guide cavity cooperate to form a space for guiding the material into the injection hole; when the blocking member pushes the molded object in the injection cavity, the molded object falls into the material guide cavity and is at least partially exposed from the material guide cavity for cooperation with the clamping member to clamp it.

3. The road cone forming device for efficient production according to claim 1, characterized in that: The mold cover plate is provided with a detachable butt joint, and the injection channel is located in the butt joint; the blocking member opens and closes the injection channel in the butt joint by axial movement.

4. The road cone forming device for efficient production according to claim 3, characterized in that: The docking head is provided with a docking port, which is concave and communicated with the injection channel. The shape of the docking port is adapted to the shape of the injection head and is used for the injection head to be inserted into the docking port.

5. The high-efficiency road cone forming device according to claim 1, 2, 3 or 4, characterized in that: The angle adjustment mechanism includes a bracket, an actuator 2 rotatably connected to the bracket, and a connecting shaft rotatably connected to the bracket; the connecting shaft is fixedly connected to the actuator 1, and the connecting shaft is driven to rotate by the actuator 2 to drive the actuator 1 to rotate.

6. The road cone forming device for efficient production according to claim 5, characterized in that: The connecting shaft is provided with an adjusting member for cooperating with the actuator 2. The adjusting member is fixedly connected to the connecting shaft, and a strip hole is provided at the position connected to the actuator 2. The position of the actuator 2 corresponding to the strip hole is slidably connected to the strip hole and can be positioned on the adjusting member by a fastener; the actuator 2 adjusts the swing angle of the actuator 1 by adjusting the connection position with the strip hole.

7. The road cone forming device for efficient production according to claim 6, characterized in that: The strip-shaped hole is arc-shaped, and the inner concave surface of the arc corresponds to the second actuator; the arc shape of the strip-shaped hole matches the trajectory of the end of the second actuator corresponding to the strip-shaped hole when the second actuator rotates.

8. The road cone forming device for efficient production according to claim 6, characterized in that: One end of the second actuator corresponding to the strip hole is provided with a rotating shaft, the rotating shaft is rotatably connected to the second actuator and is also fixedly connected to the strip hole through a fastener, and the second actuator is positioned in the strip hole through the rotating shaft.

9. The road cone forming device for efficient production according to claim 7, characterized in that: The adjusting member and the connecting shaft are clamped by a clamping structure, and can be loosened to allow relative rotation between the adjusting member and the connecting shaft.

10. The road cone forming device for efficient production according to claim 1, characterized in that: The number of the demolding mechanisms is at least two; the mold includes a first mold assembly and a second mold assembly, and the first mold assembly and the second mold assembly, when combined, have a cavity for molding a road cone or a semi-finished product thereof; the mold opening mechanism is used to lift the first mold assembly, separate the first mold assembly from the second mold assembly, and move the first mold assembly toward the corresponding demolding mechanism; the demolding mechanism clamps the molded object on the first mold assembly through a clamping component for demolding, and the other demolding mechanism clamps the molded object in the second mold assembly through a clamping component for demolding; the second mold assembly approaches or moves away from the corresponding demolding mechanism position through a conveying mechanism; the mold cover is used to cooperate with the first mold assembly, and the molded object pushed down by the blocking member is located on the first mold assembly.

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