Rotating disc firecracker lamp machine

Abstract

This invention discloses a turntable firecracker light machine, relating to the field of colored lantern processing technology. It includes a vibrating LED feeding mechanism, an LED gripping mechanism, an LED testing mechanism, an LED positive and negative electrode adjustment mechanism, an LED positive and negative electrode detection mechanism, an LED lead cutting and shaping mechanism, an LED auxiliary shaping mechanism, a flux attachment mechanism, a wire feeding mechanism, a wire twisting mechanism, a wire shaping mechanism, a wire end stripping mechanism, a soldering mechanism, an insulating sleeve heat shrinking mechanism, an insulating sleeve positioning mechanism, an insulating insulating strip installation mechanism, and an insulating sleeve wire attaching mechanism. It also includes an LED fixture turntable and a wire fixture turntable that match each mechanism. The annular edge of the LED fixture turntable is sequentially equipped with several LED clamps; the annular edge of the wire fixture turntable is sequentially equipped with several wire clamps. This invention not only optimizes the production process and improves production efficiency but also simplifies operation, enhances equipment flexibility and quality control capabilities, and has significant technological advancements and practical value.

Description

Technical Field

[0001] This invention relates to the field of lantern manufacturing technology, and more specifically, to a rotating firecracker lantern machine. Background Technology

[0002] In the field of decorative lantern production, the rotary firecracker lantern machine is a device used to create strings of lanterns resembling firecrackers. Traditional rotary firecracker lantern machines typically include multiple mechanisms, such as a vibrating LED feeding mechanism, an LED gripping mechanism, an LED testing mechanism, an LED polarity adjustment mechanism, an LED polarity detection mechanism, an LED lead cutting and shaping mechanism, an LED auxiliary shaping mechanism, a flux application mechanism, a wire feeding mechanism, a wire twisting mechanism, a wire shaping mechanism, a wire stripping mechanism, a soldering mechanism, an insulating sleeve heat shrinking mechanism, an insulating sleeve positioning mechanism, an insulating strip installation mechanism, and an insulating sleeve wire attaching mechanism. These mechanisms are usually arranged in a linear production line, processing the LEDs and wires sequentially. However, the traditional linear production line layout has some limitations. First, due to the sequential arrangement of the mechanisms, the production line is relatively long and occupies a large amount of space. Second, the linear layout limits production efficiency, especially when frequent switching between different processes is required, increasing production time. Furthermore, the traditional layout requires multiple adjustments and positioning when processing LEDs and wires, increasing operational complexity and the possibility of errors. Summary of the Invention

[0003] The present invention provides a rotating firecracker light machine that can alleviate the above-mentioned problems.

[0004] To alleviate the above problems, the technical solution adopted by the present invention is as follows:

[0005] This invention provides a turntable firecracker light machine, comprising a vibrating LED feeding mechanism, an LED gripping mechanism, an LED testing mechanism, an LED positive and negative electrode adjustment mechanism, an LED positive and negative electrode detection mechanism, an LED lead cutting and shaping mechanism, an LED auxiliary shaping mechanism, a flux application mechanism, a wire feeding mechanism, a wire twisting mechanism, a wire shaping mechanism, a wire end stripping mechanism, a soldering mechanism, an insulating sleeve heat shrinking mechanism, an insulating sleeve positioning mechanism, an insulating insulating strip installation mechanism, and an insulating sleeve wire mounting mechanism; the light machine also includes an LED fixture turntable and a wire fixture turntable; the annular edge of the LED fixture turntable... A number of LED bead clamps are sequentially arranged to match the operation of the LED bead gripping mechanism, LED bead testing mechanism, LED bead positive and negative electrode adjustment mechanism, LED bead positive and negative electrode detection mechanism, LED bead lead cutting and shaping mechanism, LED bead auxiliary shaping mechanism, flux attachment mechanism, and soldering mechanism; a number of wire clamps are sequentially arranged on the annular edge of the wire tooling turntable to match the operation of the insulating strip installation mechanism, insulating sleeve wire feeding mechanism, insulating sleeve positioning mechanism, insulating sleeve heat shrinking mechanism, wire twisting mechanism, wire feeding mechanism, wire shaping mechanism, wire end stripping mechanism, flux attachment mechanism, and soldering mechanism.

[0006] In a preferred embodiment of the present invention, the flux attachment mechanism and the soldering mechanism are disposed between the LED bead fixture turntable and the wire fixture turntable; the LED bead gripping mechanism, the LED bead testing mechanism, the LED bead positive and negative electrode adjustment mechanism, the LED bead positive and negative electrode detection mechanism, the LED bead lead cutting and shaping mechanism, and the LED bead auxiliary shaping mechanism are arranged in sequence around the LED bead fixture turntable in a counterclockwise direction, and the lower station of the LED bead auxiliary shaping mechanism is the station where the flux attachment mechanism is located; the insulating strip installation mechanism, the insulating sleeve wire-insulating mechanism, the insulating sleeve positioning mechanism, the insulating sleeve heat shrinking mechanism, the wire twisting mechanism, the wire feeding mechanism, the wire shaping mechanism, and the wire end stripping mechanism are arranged in sequence around the wire fixture turntable in a clockwise direction, the lower station of the wire end stripping mechanism is the station where the flux attachment mechanism is located, and the upper station of the insulating strip installation mechanism is the station where the soldering mechanism is located.

[0007] In a preferred embodiment of the present invention, when the LED bead is clamped in the LED bead clamp, its positive and negative leads extend outside the LED bead fixture turntable and are suspended in the air; when the wire is clamped in the wire clamp, its wire end extends outside the wire fixture turntable and is suspended in the air.

[0008] In a preferred embodiment of the present invention, the vibration-feeding lamp bead mechanism, the lamp bead gripping mechanism, the lamp bead testing mechanism, the lamp bead positive and negative electrode adjustment mechanism, the lamp bead positive and negative electrode detection mechanism, the lamp bead lead cutting and shaping mechanism, the lamp bead auxiliary shaping mechanism, the flux attachment mechanism, the wire feeding mechanism, the wire twisting mechanism, the wire shaping mechanism, the wire end stripping mechanism, the soldering mechanism, the insulating sleeve heat shrinking mechanism, the insulating sleeve positioning mechanism, the insulating insulating strip installation mechanism, and the insulating sleeve wire mounting mechanism are mounted on the same equipment platform; a drive mechanism for driving the lamp bead tooling turntable and the wire tooling turntable to rotate is provided below the equipment platform.

[0009] In a preferred embodiment of the present invention, the flux attachment mechanism includes a base disposed on the equipment platform, a flux container fixed to the base, a slide rail fixed to the base in a direction perpendicular to the equipment platform, a strip slider slidably engaged with the slide rail, a top seat fixed to the upper end of the slider, and two flux extraction components mounted on the top seat and capable of extracting flux from the flux container; the two flux extraction components are respectively used to attach flux to the LED pins and stripped wire ends; the lower end of the slider serves as a linear reciprocating motion drive input connection end.

[0010] In a preferred embodiment of the present invention, the flux barrel is connected to the base via a strip-shaped lug; one end of the lug is integrally connected to the flux barrel, and the other end is detachably connected to the top of the base via bolts, and the bolt connection hole of the lug is an oblong hole.

[0011] In a preferred embodiment of the present invention, the flux extraction assembly includes a support fixed to the top seat, a crossbeam horizontally fixed to the support, a lifting rod vertically fixed to the crossbeam and facing the opening of the flux container, and a flux lifting plate fixed to the lower end of the lifting rod; the horizontal installation position of the crossbeam is adjustable.

[0012] In a preferred embodiment of the present invention, the LED bead fixture turntable and the wire fixture turntable are arranged on the same plane; during operation, the wire fixture turntable rotates clockwise and the LED bead fixture turntable rotates counterclockwise.

[0013] In a preferred embodiment of the present invention, the equipment platform is further equipped with a vibration feeding lamp bead shaping mechanism and a lamp bead shaping gripping mechanism, wherein the lamp bead shaping gripping mechanism is located at a workstation between the insulating sleeve wire assembly mechanism and the insulating insulating strip installation mechanism.

[0014] Compared with the prior art, the beneficial effects of the present invention are:

[0015] 1) By integrating the processing steps for LED chips and wires onto two separate turntables, the length of the production line is significantly reduced, saving production space. The circular layout of the turntables allows each process to be compactly arranged within a small area, improving space utilization. The continuous rotation of the turntables enables seamless connection between processes, reducing process changeover time. Multiple processes can be performed simultaneously on the turntables for both LED chips and wires, significantly improving production efficiency. The clamping devices on the LED chip and wire tooling turntables can precisely match the working requirements of each mechanism, reducing the number of adjustments and positioning steps between processes, simplifying the operation process, and lowering the error rate.

[0016] 2) By optimizing the design of the flux attachment mechanism, efficient and precise flux attachment is achieved. The flux container is connected to the base via a waist-shaped bolt, facilitating adjustment of the flux container's position to accommodate different specifications of LED beads and wires. The design of the slide rail and slider enables the flux extraction component to perform stable linear reciprocating motion, ensuring uniform flux attachment to the LED bead leads and wire stripping areas. Two flux extraction components handle LED beads and wires respectively, improving production efficiency while reducing flux waste. The overall structure is simple, reliable, and easy to maintain, significantly improving welding quality and production stability.

[0017] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, embodiments of the present invention are described below in detail with reference to the accompanying drawings. Attached Figure Description

[0018] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of the present invention and should not be regarded as a limitation on the scope. For those skilled in the art, other related drawings can be obtained based on these drawings without creative effort.

[0019] Figure 1 This is a schematic diagram of the rotating firecracker light machine in Example 1;

[0020] Figure 2 yes Figure 1 A magnified view of a section at point A in the middle;

[0021] Figure 3 yes Figure 1 A magnified view of a section at point B in the middle;

[0022] Figure 4 This is a schematic diagram of the flux adhesion mechanism in Example 1;

[0023] Figure 5 This is a schematic diagram of the rotating firecracker light machine in Example 2;

[0024] In the diagram: 1. Vibration-driven LED feeding mechanism; 2. LED bead fixture turntable; 3. LED bead gripping mechanism; 4. LED bead testing mechanism; 5. LED bead positive and negative electrode adjustment mechanism; 6. LED bead positive and negative electrode detection mechanism; 7. LED bead lead cutting and shaping mechanism; 8. LED bead auxiliary shaping mechanism; 9. Flux application mechanism; 10. Wire feeding mechanism; 11. Wire fixture turntable; 12. Wire clamp; 13. Wire shaping mechanism; 14. Wire end stripping mechanism; 15. Soldering mechanism; 16. LED bead clamp; 17. Insulating sleeve positioning mechanism; 18. Insulating insulating strip installation mechanism; 19. Insulating sleeve wire-insulating mechanism; 20. Equipment platform; 21. Insulating sleeve heat shrinking mechanism; 22. Wire twisting mechanism; 23. Base; 24. Slide rail; 25. Slider; 26. Top seat; 27. Ear plate; 28. Support; 29. ​​Crossbeam; 30. Lifting rod; 31. Flux lifting plate; 32. Flux bucket; 33. Vibration-feeding LED bead shaping mechanism; 34. LED bead shaping and gripping mechanism. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are some embodiments of the present invention, but not all embodiments. Example

[0026] Please refer to Figure 1 , Figure 2 and Figure 3The turntable firecracker light machine of the present invention includes a vibrating lamp bead feeding mechanism 1, a lamp bead gripping mechanism 3, a lamp bead testing mechanism 4, a lamp bead positive and negative electrode adjustment mechanism 5, a lamp bead positive and negative electrode detection mechanism 6, a lamp bead lead cutting and shaping mechanism 7, a lamp bead auxiliary shaping mechanism 8, a flux attachment mechanism 9, a wire feeding mechanism 10, a wire twisting mechanism 22, a wire shaping mechanism 13, a wire end stripping mechanism 14, a soldering mechanism 15, an insulating sleeve heat shrinking mechanism 21, an insulating sleeve positioning mechanism 17, an insulating isolation strip installation mechanism 18, an insulating sleeve wire mounting mechanism 19, a lamp bead tooling turntable 2, and a wire tooling turntable 11.

[0027] The LED bead fixture turntable 2 and the wire fixture turntable 11 are used to carry LED beads and wires, respectively, and several clamping devices (LED bead clamps 16 and wire clamps 12) are set on the annular edge of the turntable. The LED bead clamps 16 of the LED bead fixture turntable 2 are sequentially matched to the working requirements of the LED bead gripping mechanism 3, the LED bead testing mechanism 4, the LED bead positive and negative electrode adjustment mechanism 5, the LED bead positive and negative electrode detection mechanism 6, the LED bead lead cutting and shaping mechanism 7, the LED bead auxiliary shaping mechanism 8, the flux application mechanism 9, and the soldering mechanism 15. The wire clamps 12 of the wire fixture turntable 11 are sequentially matched to the working requirements of the insulating strip installation mechanism 18, the insulating sleeve wire feeding mechanism 19, the insulating sleeve positioning mechanism 17, the insulating sleeve heat shrinking mechanism 21, the wire twisting mechanism 22, the wire feeding mechanism 10, the wire shaping mechanism 13, the wire end stripping mechanism 14, the flux application mechanism 9, and the soldering mechanism 15.

[0028] The flux attachment mechanism 9 and the soldering mechanism 15 are located between the LED bead fixture turntable 2 and the wire fixture turntable 11. The LED bead fixture turntable 2 and the wire fixture turntable 11 are coplanar. During operation, the LED bead fixture turntable 2 rotates counterclockwise and the wire fixture turntable 11 rotates clockwise. This rotation direction design enables the LED beads and wires to achieve precise docking at the soldering mechanism 15.

[0029] In this embodiment, the vibration-feeding lamp bead mechanism 1, the lamp bead gripping mechanism 3, the lamp bead testing mechanism 4, the lamp bead positive and negative electrode adjustment mechanism 5, the lamp bead positive and negative electrode detection mechanism 6, the lamp bead lead cutting and shaping mechanism 7, the lamp bead auxiliary shaping mechanism 8, the flux attachment mechanism 9, the wire feeding mechanism 10, the wire twisting mechanism 22, the wire shaping mechanism 13, the wire end stripping mechanism 14, the soldering mechanism 15, the insulating sleeve heat shrinking mechanism 21, the insulating sleeve positioning mechanism 17, the insulating insulating strip installation mechanism 18, and the insulating sleeve wire mounting mechanism 19 are all installed on the same equipment platform 20. This integrated design simplifies the equipment structure and improves the stability and reliability of the equipment.

[0030] In this embodiment, the rotation of the LED bead fixture turntable 2 and the wire fixture turntable 11 is driven by a drive mechanism located below the equipment platform 20, ensuring that the turntables can rotate smoothly in the set direction and speed; the rotation directions of the LED bead fixture turntable 2 and the wire fixture turntable 11 are opposite, so that the LED beads and wires can be precisely connected at the soldering mechanism 15.

[0031] In this embodiment, the LED bead gripping mechanism 3 is used to grip the LED beads from the vibrating LED bead feeding mechanism 1 and place them in the LED bead clamp 16 of the LED bead fixture turntable 2. When the LED bead clamp 16 is in the LED bead clamp 16, its positive and negative leads extend outside the LED bead fixture turntable 2 and are suspended in the air, which facilitates the processing of the leads by each mechanism. The LED bead testing mechanism 4 is used to perform electrical performance tests on the LED beads to ensure that the LED beads are of qualified quality. The LED bead positive and negative pole adjustment mechanism 5 is used to adjust the positive and negative pole direction of the LED bead leads to ensure that they meet the subsequent welding requirements. The LED bead positive and negative pole detection mechanism 6 is used to detect whether the positive and negative poles of the LED bead leads are correct. The LED bead lead cutting and shaping mechanism 7 is used to cut and shape the LED bead leads to make their length and shape meet the requirements. The LED bead auxiliary shaping mechanism 8 is used to further fine-tune the LED bead leads to ensure that they are precisely matched with the welding position of the wire.

[0032] In this embodiment, as Figure 4 As shown, the flux attachment mechanism 9 includes a base 23, a flux container 32, a slide rail 24, a slider 25, a top seat 26, and a flux extraction assembly. The flux container 32 is connected to the base 23 via a strip-shaped lug 27. One end of the lug 27 is integrally connected to the flux container 32, and the other end is detachably connected to the top of the base 23 via bolts. The bolt holes of the lug 27 are oblong holes to facilitate adjustment of the position of the flux container 32. The flux extraction assembly includes a support 28, a crossbeam 29, a lifting rod 30, and a flux lifting plate 31. The crossbeam 29 is horizontally fixed to the support 28, and the lifting rod 30 is vertically fixed to the crossbeam 29 and faces the opening of the flux container 32. The flux lifting plate 31 is fixed to the lower end of the lifting rod 30. The horizontal installation position of the crossbeam 29 is adjustable to accommodate different specifications of LED beads and wires. During operation, the slider 25 slides up and down along the slide rail 24, driving the top seat 26 and the flux extraction assembly to move. The flux extraction plate 31 extracts flux from the flux container 32 and attaches it to the LED lead and the stripped wire.

[0033] In this embodiment, the soldering mechanism 15 is used to solder the LED bead pins to the wire. The wire feeding mechanism 10 is used to feed the wire to the wire tooling turntable 11, where it is clamped by the wire clamp 12. When the wire clamp 12 is in place, the wire end extends outside the wire tooling turntable 11 and is suspended in the air, facilitating stripping, flux application, and soldering operations. The wire shaping mechanism 13 is used to shape the wire to ensure that its shape meets the requirements. The wire end stripping mechanism 14 is used to strip the insulation layer from the wire end, exposing the metal conductor. The insulating strip installation mechanism 18 is used to install insulating strips between the wire ends. The insulating sleeve mounting mechanism 19 is used to mount the insulating sleeve onto the wire. The insulating sleeve positioning mechanism 17 is used to adjust the position of the insulating sleeve to ensure that it accurately covers the soldering area. The insulating sleeve heat shrinking mechanism 21 is used to heat shrink the insulating sleeve to make it fit tightly against the wire. The twisting mechanism 22 is used to twist two sections of wire containing LED beads and close to the LED beads into a twisted shape, so as to form a string of lights in the shape of firecrackers. Example

[0034] like Figure 5 As shown, unlike Embodiment 1, this embodiment also installs a vibration-feeding LED bead shaping mechanism 33 and an LED bead shaping gripping mechanism 34 on the equipment platform 20. The LED bead shaping gripping mechanism 34 is located at the station between the insulating sleeve wire assembly 19 and the insulating insulating strip installation mechanism 18. After the vibration-feeding LED bead shaping mechanism 33 delivers a certain LED bead shaping kit to the gripping station, the LED bead shaping gripping mechanism 34 grips the LED bead shaping kit from the gripping station of the vibration-feeding LED bead shaping mechanism 33 and fits it onto the soldered LED bead.

[0035] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A rotating firecracker light machine, comprising a vibrating lamp bead feeding mechanism (1), a lamp bead gripping mechanism (3), a lamp bead testing mechanism (4), a lamp bead positive and negative pole adjustment mechanism (5), a lamp bead positive and negative pole detection mechanism (6), a lamp bead lead cutting and shaping mechanism (7), a lamp bead auxiliary shaping mechanism (8), a flux attachment mechanism (9), a wire feeding mechanism (10), a wire twisting mechanism (22), a wire shaping mechanism (13), a wire end stripping mechanism (14), a soldering mechanism (15), an insulating sleeve heat shrinking mechanism (21), an insulating sleeve positioning mechanism (17), an insulating insulating strip installation mechanism (18), and an insulating sleeve wire mounting mechanism (19), characterized in that, It also includes a lamp bead fixture turntable (2) and a wire fixture turntable (11); the annular edge of the lamp bead fixture turntable (2) is provided with a number of lamp bead clamps (16) that can match the operation of the lamp bead gripping mechanism (3), the lamp bead testing mechanism (4), the lamp bead positive and negative electrode adjustment mechanism (5), the lamp bead positive and negative electrode detection mechanism (6), the lamp bead cutting and shaping mechanism (7), the lamp bead auxiliary shaping mechanism (8), the flux attachment mechanism (9) and the soldering mechanism (15); the annular edge of the wire fixture turntable (11) is provided with a number of wire clamps (12) that can match the operation of the insulating strip installation mechanism (18), the insulating sleeve wire assembly mechanism (19), the insulating sleeve positioning mechanism (17), the insulating sleeve heat shrinking mechanism (21), the wire twisting mechanism (22), the wire feeding mechanism (10), the wire shaping mechanism (13), the wire end stripping mechanism (14), the flux attachment mechanism (9) and the soldering mechanism (15). The vibration feeding mechanism (1), the lamp bead gripping mechanism (3), the lamp bead testing mechanism (4), the lamp bead positive and negative pole adjustment mechanism (5), the lamp bead positive and negative pole detection mechanism (6), the lamp bead cutting and shaping mechanism (7), the lamp bead auxiliary shaping mechanism (8), the flux attachment mechanism (9), the wire feeding mechanism (10), the wire twisting mechanism (22), the wire shaping mechanism (13), the wire end stripping mechanism (14), the soldering mechanism (15), the insulating sleeve heat shrinking mechanism (21), the insulating sleeve positioning mechanism (17), the insulating isolation strip installation mechanism (18), and the insulating sleeve wire mounting mechanism (19) are installed on the same equipment platform (20); a drive mechanism for driving the lamp bead tooling turntable (2) and the wire tooling turntable (11) to rotate is provided below the equipment platform (20); The flux attachment mechanism (9) includes a base (23) disposed on the equipment platform (20), a flux container (32) fixed to the base (23), a slide rail (24) fixed to the base (23) in a direction perpendicular to the equipment platform (20), a strip slider (25) slidably engaged with the slide rail (24), a top seat (26) fixed to the upper end of the slider (25), and two flux extraction components installed on the top seat (26) and capable of extracting flux from the flux container (32); the two flux extraction components are respectively used to attach flux to the LED bead pin and the stripped wire end; the lower end of the slider (25) serves as a linear reciprocating motion drive input connection end; The flux container (32) is connected to the base (23) via a strip-shaped ear plate (27); one end of the ear plate (27) is integrally connected to the flux container (32), and the other end is detachably connected to the top of the base (23) via bolts, and the bolt connection hole of the ear plate (27) is a waist-shaped hole.

2. The rotating firecracker light machine according to claim 1, characterized in that, The flux attachment mechanism (9) and the soldering mechanism (15) are located between the LED bead fixture turntable (2) and the wire fixture turntable (11); the LED bead gripping mechanism (3), the LED bead testing mechanism (4), the LED bead positive and negative electrode adjustment mechanism (5), the LED bead positive and negative electrode detection mechanism (6), the LED bead lead cutting and shaping mechanism (7), and the LED bead auxiliary shaping mechanism (8) are arranged in a counterclockwise direction around the LED bead fixture turntable (2), and the lower station of the LED bead auxiliary shaping mechanism (8) is the station where the flux attachment mechanism (9) is located; the insulation isolation The adhesive strip installation mechanism (18), the insulating sleeve wire assembly mechanism (19), the insulating sleeve positioning mechanism (17), the insulating sleeve heat shrinking mechanism (21), the wire twisting mechanism (22), the wire feeding mechanism (10), the wire shaping mechanism (13), and the wire end stripping mechanism (14) are arranged in a clockwise direction around the wire tooling turntable (11). The lower station of the wire end stripping mechanism (14) is the station where the flux attachment mechanism (9) is located, and the upper station of the insulating insulating adhesive strip installation mechanism (18) is the station where the soldering mechanism (15) is located.

3. The rotating firecracker light machine according to claim 1, characterized in that, When the LED bead is clamped in the LED bead clamp (16), its positive and negative leads extend outside the LED bead fixture turntable (2) and are suspended in the air; when the wire is clamped in the wire clamp (12), its wire end extends outside the wire fixture turntable (11) and is suspended in the air.

4. The rotating firecracker light machine according to claim 1, characterized in that, The flux extraction assembly includes a support (28) fixed to the top seat (26), a crossbeam (29) horizontally fixed to the support (28), a lifting rod (30) vertically fixed to the crossbeam (29) and facing the opening of the flux container (32), and a flux lifting plate (31) fixed to the lower end of the lifting rod (30); the horizontal installation position of the crossbeam (29) is adjustable.

5. The rotating firecracker light machine according to claim 1, characterized in that, The lamp bead fixture turntable (2) and the wire fixture turntable (11) are arranged on the same plane; during operation, the wire fixture turntable (11) rotates clockwise and the lamp bead fixture turntable (2) rotates counterclockwise.

6. The rotating firecracker light machine according to claim 1, characterized in that, The equipment platform (20) is also equipped with a vibration feeding lamp bead shaping mechanism (33) and a lamp bead shaping gripping mechanism (34), which is located at the work station between the insulating sleeve wire mechanism (19) and the insulating isolation strip installation mechanism (18).

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