A cutting device and method for charcoal processing

Abstract

The present application relates to charcoal processing technical field, specifically to a kind of cutting device and method for charcoal processing, including base, installation cylinder and cutting assembly, cutting assembly includes multiple rotating units, multiple puncture needle, diamond wire saw and knocking hammer, diamond wire saw is close to rotating charcoal body, and cutting is carried out to annular hole area;Charcoal body is stopped rotating when being cut to pre-set remaining thickness, diamond wire saw is separated from charcoal body inside;Knocking hammer is knocked to charcoal body, so that it is fractured and separated from cutting place;Thus first by puncture, the area of wire saw cutting region is reduced, the dust generated by friction is reduced, simultaneously, in the cutting end stage, by knocking, it is separated, further reduce the workload of wire saw cutting, finally by the cooperation of wire cutting, puncture and knocking, the generation of dust and debris is significantly reduced.

Description

Technical Field

[0001] This invention relates to the field of charcoal processing technology, and in particular to a cutting device and method for charcoal processing. Background Technology

[0002] Charcoal, widely used as fuel and raw material in industrial production and daily life, typically requires standardized processing through cutting to achieve its finished product specifications. The cutting quality and processing efficiency directly determine the market value of charcoal products and the economic benefits for production enterprises. Currently, charcoal briquettes are primarily cut using traditional rigid cutting methods. Circular saw blade cutting, with its advantages of high cutting speed and simple equipment structure, dominates large-scale industrial production. Guillotine shearing equipment, with its low investment cost and ease of operation, is widely used in small charcoal processing plants and family workshops. Band saw cutting is suitable for segmenting large-diameter, long charcoal briquettes. All three rigid cutting methods rely on the high-speed impact or strong extrusion of rigid blades to physically cut the charcoal briquettes. After years of technological iteration, a relatively mature standardized production system has been formed.

[0003] In the aforementioned existing technologies, rigid cutting methods cut charcoal by impact splitting, instantly tearing the wood fiber structure and generating a large amount of coarse debris and ultrafine dust. This not only causes serious waste of raw materials but also leads to severe dust pollution in the production workshop, endangering the health of workers. While the currently used diamond wire cutting can avoid the coarse debris generated by rigid impact, the wire saw forms a long arc surface in continuous contact with the charcoal rod, resulting in a large amount of grinding and intense contact friction. In addition, charcoal itself has a brittle and porous structure, which easily generates a large amount of ultrafine grinding dust during the grinding process, thus failing to fundamentally solve the dust pollution problem. Therefore, there is an urgent need for a cutting device and method that can significantly reduce the generation of dust and debris during charcoal cutting. Summary of the Invention

[0004] The purpose of this invention is to provide a cutting device and method for charcoal processing, which solves the problem that although the diamond wire cutting currently used in the prior art can avoid coarse chips generated by rigid impact, the wire saw forms a long arc surface in continuous contact with the charcoal rod, resulting in a large amount of grinding and intense contact friction; in addition, charcoal itself has a brittle and porous structure, which easily generates a large amount of ultrafine grinding dust during the grinding process.

[0005] To achieve the above objectives, the present invention provides a cutting device for charcoal processing, comprising a base, a mounting cylinder, and a cutting assembly, wherein the mounting cylinder is disposed above the base; The cutting assembly includes multiple rotating units, multiple piercing needles, a diamond wire saw, and a striking hammer. The multiple rotating units are sequentially arranged inside the mounting cylinder, and a charcoal body is placed inside the multiple rotating units. The multiple piercing needles are distributed around the outside of the charcoal body, and the diamond wire saw and the striking hammer are located on both sides of the piercing needles.

[0006] The rotating unit includes a rotating outer ring, a rotating drive mechanism, a supporting inner ring, and multiple clamping mechanisms. The rotating outer ring is rotatably connected to the mounting cylinder, which has a groove. The rotating drive mechanism is located inside the groove, and the supporting inner ring is located inside the rotating outer ring. The multiple clamping mechanisms are sequentially distributed on the supporting inner ring, and the charcoal body is placed inside the supporting inner ring.

[0007] The rotary drive mechanism includes a rotary drive component, a gear, and a gear ring. The rotary drive component is disposed on the inner sidewall of the groove. The output end of the rotary drive component is fixedly connected to the gear. The gear ring is sleeved on the outer sidewall of the rotary outer ring, and the gear ring meshes with the gear.

[0008] The clamping mechanism includes a clamping component and a clamping plate. The clamping component is disposed on the outside of the inner support ring. The output end of the clamping component passes through the inner support ring and is fixedly connected to the clamping plate. The inner support ring has a storage groove, and the clamping plate is adapted to the storage groove.

[0009] The cutting assembly further includes a top lateral movement component, a support, a cutting adjustment component, a piercing lifting component, and two piercing adjustment mechanisms. The top lateral movement component is disposed on the mounting cylinder and located above the charcoal body. The support is disposed at the output end of the top lateral movement component. The cutting adjustment component and the piercing lifting component are sequentially disposed on the support. The output end of the cutting adjustment component passes through the support and is fixedly connected to the diamond wire saw. The output end of the piercing lifting component passes through the support and is connected to the two piercing adjustment mechanisms.

[0010] The puncture adjustment mechanism includes an arc-shaped plate, a flipping drive component, multiple puncture drive components, and multiple puncture rotation components. The flipping drive component is disposed at the output end of the puncture lifting component and is fixedly connected to the arc-shaped plate. The multiple puncture drive components are sequentially disposed outside the arc-shaped plate. The output ends of the multiple puncture drive components are respectively fixedly connected to the corresponding puncture rotation components. The output ends of the multiple puncture rotation components are respectively provided with the corresponding puncture needles.

[0011] The cutting assembly further includes multiple dust adsorption tubes and a striking adjustment component. The multiple dust adsorption tubes are sequentially arranged on one side of the diamond wire saw. The striking adjustment component is arranged on the bracket, and the output end of the striking adjustment component passes through the bracket and is fixedly connected to the striking hammer.

[0012] The cutting assembly further includes a collection unit, which includes a collection traverse component, a debris collection box, and a finished product guide plate. The collection traverse component is disposed on one side of the base, and the output end of the collection traverse component is provided with the debris collection box and the finished product guide plate.

[0013] The cutting assembly further includes a control module and an operation panel, which are sequentially arranged on one side of the base.

[0014] The present invention also provides a cutting method for charcoal processing, using the above-described cutting device for charcoal processing, comprising the following steps: The charcoal body is placed inside the mounting cylinder and fixed. The puncture is performed on the cut part of the charcoal body to leave an annular hole in the charcoal body; The rotating unit is activated, causing the charcoal body to rotate; The diamond wire saw approaches the rotating charcoal body and cuts the annular hole area; The charcoal body stops rotating when it is cut to a preset remaining thickness, and the diamond wire saw disengages from the charcoal body. The hammer strikes the charcoal body, causing it to break apart at the cut point.

[0015] This invention discloses a cutting device and method for charcoal processing. The charcoal body is placed and fixed inside an installation cylinder. A piercing device pierces the charcoal body at the cutting point, leaving an annular hole. A rotating unit is activated, causing the charcoal body to rotate. A diamond wire saw approaches the rotating charcoal body and cuts the area around the annular hole. When the charcoal body is cut to a preset remaining thickness, rotation stops, and the diamond wire saw disengages from the charcoal body. A striking hammer strikes the charcoal body, causing it to break apart at the cutting point. This method first reduces the area of ​​the wire saw cutting by piercing, thus reducing dust generated by friction. Simultaneously, the striking action at the end of the cutting process further reduces the workload of the wire saw. Ultimately, the combination of wire cutting, piercing, and striking significantly reduces the generation of dust and debris. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below.

[0017] Figure 1 This is a schematic diagram of the structure of the charcoal processing cutting device of the present invention.

[0018] Figure 2 This is a cross-sectional view of the charcoal processing cutting device of the present invention.

[0019] Figure 3 This is the invention Figure 2 A sectional view along line AA.

[0020] Figure 4 This is the invention Figure 2 BB line section view.

[0021] Figure 5 This is the invention Figure 1 Enlarged view of the local structure at point C.

[0022] Figure 6 This is the invention Figure 4 Enlarged view of the local structure at point D.

[0023] Figure 7 This is a schematic diagram of the structure of the charcoal body and the mounting cylinder of the present invention.

[0024] Figure 8 This is a flowchart of the steps of the charcoal processing cutting method of the present invention.

[0025] 1-Base, 2-Mounting cylinder, 3-Piercing needle, 4-Diamond wire saw, 5-Striking hammer, 6-Charcoal body, 7-Rotating outer ring, 8-Supporting inner ring, 9-Groove, 10-Rotation drive component, 11-Gear, 12-Gear ring, 13-Clamping component, 14-Clamping plate, 15-Storage slot, 16-Top lateral movement component, 17-Bracket, 18-Cutting adjustment component, 19-Piercing lifting component, 20-Arc plate, 21-Tilting drive component, 22-Piercing drive component, 23-Piercing rotating component, 24-Dust adsorption tube, 25-Striking adjustment component, 26-Collection lateral movement component, 27-Debris collection box, 28-Finished product guide plate, 29-Control module, 30-Operation panel. Detailed Implementation

[0026] The embodiments of the present invention are described in detail below. Examples of the embodiments are shown in the accompanying drawings. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, but should not be construed as limiting the present invention.

[0027] Please see Figures 1 to 7The present invention provides a cutting device for charcoal processing, including a base 1, a mounting cylinder 2 and a cutting assembly, wherein the mounting cylinder 2 is disposed above the base 1; The cutting assembly includes multiple rotating units, multiple piercing needles 3, a diamond wire saw 4, and a striking hammer 5. The multiple rotating units are sequentially arranged inside the mounting cylinder 2. A charcoal body 6 is placed inside the multiple rotating units. The multiple piercing needles 3 are distributed around the outside of the charcoal body 6. The diamond wire saw 4 and the striking hammer 5 are located on both sides of the piercing needles 3.

[0028] In this embodiment, the base 1 provides a stable installation support foundation for the entire cutting device, adapting to the working environment of the charcoal processing workshop; the mounting cylinder 2 is a horizontal cylindrical structure, providing a sealed working space for the clamping, rotation, and cutting of the charcoal body 6, effectively preventing dust diffusion; multiple rotating units can synchronously drive the charcoal body 6 to rotate at a constant speed, realizing continuous circumferential cutting of the charcoal body 6; multiple piercing needles 3 can pre-pierce the cutting point of the charcoal body 6 to form annular holes, significantly reducing the cutting area of ​​the diamond wire saw 4; the diamond wire saw 4 is a high-strength diamond wire saw, maintaining a fixed position. The charcoal body 6 rotates and continuously contacts the annular hole area, completing circumferential grinding and cutting. The hammer 5 is made of wear-resistant rubber and can strike the charcoal body 6 when the preset remaining thickness is reached, causing it to break off naturally at the cut point. Through the synergistic cooperation of the above structures, a three-stage cutting process of "pre-piercing to reduce area + charcoal self-rotation wire saw grinding + hammering to finish separation" is adopted, which fundamentally solves the core defects of traditional rigid cutting and ordinary wire cutting, such as large dust and serious waste of raw materials. It can significantly reduce the generation of dust and debris during the cutting process, while greatly improving cutting efficiency and finished product quality.

[0029] Furthermore, the rotating unit includes a rotating outer ring 7, a rotating drive mechanism, a supporting inner ring 8, and multiple clamping mechanisms. The rotating outer ring 7 is rotatably connected to the mounting cylinder 2. The mounting cylinder 2 has a groove 9. The rotating drive mechanism is disposed inside the groove 9. The supporting inner ring 8 is disposed inside the rotating outer ring 7. The multiple clamping mechanisms are sequentially distributed on the supporting inner ring 8. The charcoal body 6 is placed inside the supporting inner ring 8.

[0030] In this embodiment, the outer rotating ring 7 is a ring-shaped metal structure that can rotate freely inside the mounting cylinder 2; the groove 9 provides installation space for the rotating drive mechanism; the inner supporting ring 8 is a ring-shaped support structure that provides an installation carrier for multiple clamping mechanisms; the multiple clamping mechanisms can firmly clamp the charcoal body 6 from the circumference, ensuring that the charcoal body 6 does not shake during the rotating cutting process and ensuring cutting accuracy.

[0031] Furthermore, the rotary drive mechanism includes a rotary drive component 10, a gear 11, and a gear ring 12. The rotary drive component 10 is disposed on the inner sidewall of the groove 9. The output end of the rotary drive component 10 is fixedly connected to the gear 11. The gear ring 12 is sleeved on the outer sidewall of the rotary outer ring 7, and the gear ring 12 meshes with the gear 11.

[0032] In this embodiment, the rotary drive component 10 is a high-torque reduction motor that can drive the gear 11 to rotate at a constant speed. The gear 11 meshes with the gear ring 12, which can transmit the rotational power to the rotating outer ring 7, causing the rotating outer ring 7, the supporting inner ring 8, and the charcoal body 6 to rotate synchronously. The gear and gear ring transmission method operates smoothly and has high torque, which can adapt to the rotary cutting requirements of charcoal bodies 6 with different diameters.

[0033] Furthermore, the clamping mechanism includes a clamping component 13 and a clamping plate 14. The clamping component 13 is disposed on the outside of the inner support ring 8. The output end of the clamping component 13 passes through the inner support ring 8 and is fixedly connected to the clamping plate 14. The inner support ring 8 has a storage groove 15, and the clamping plate 14 and the storage groove 15 are mutually adapted.

[0034] In this embodiment, the clamping component 13 is a self-locking electric cylinder that can drive the clamping plate 14 to perform radial extension and retraction movements to clamp and release the charcoal body 6; the clamping plate 14 is an arc-shaped rubber plate, which can increase the friction between the clamping plate and the charcoal body 6, ensuring a firm clamping while preventing damage to the surface of the charcoal body 6; the storage groove 15 provides storage space for the clamping plate 14, and when the clamping plate 14 is retracted, it can be completely embedded in the storage groove 15 without affecting the loading and unloading of the charcoal body 6.

[0035] Furthermore, the cutting assembly also includes a top lateral movement component 16, a support 17, a cutting adjustment component 18, a piercing lifting component 19, and two piercing adjustment mechanisms. The top lateral movement component 16 is disposed on the mounting cylinder 2 and located above the charcoal body 6. The support 17 is disposed at the output end of the top lateral movement component 16. The cutting adjustment component 18 and the piercing lifting component 19 are sequentially disposed on the support 17. The output end of the cutting adjustment component 18 passes through the support 17 and is fixedly connected to the diamond wire saw 4. The output end of the piercing lifting component 19 passes through the support 17 and is connected to the two piercing adjustment mechanisms.

[0036] In this embodiment, the top transverse component 16 is a high-precision servo linear guide rail, which can drive the bracket 17 to reciprocate along the axial direction of the charcoal body 6, adjust the cutting position, and realize multi-segment continuous cutting of the charcoal body 6; the bracket 17 is a gantry structure, providing installation support for the cutting adjustment component 18, the piercing lifting component 19, and the piercing adjustment mechanism; the cutting adjustment component 18 is a high-precision electric cylinder, which can drive the diamond wire saw 4 to perform vertical lifting motion to adjust the cutting depth; the piercing lifting component 19 is a high-precision electric cylinder, which can drive the two piercing adjustment mechanisms to perform vertical lifting motion to adjust the piercing height.

[0037] Furthermore, the puncture adjustment mechanism includes an arc-shaped plate 20, a flipping drive component 21, multiple puncture drive components 22, and multiple puncture rotation components 23. The flipping drive component 21 is disposed at the output end of the puncture lifting component 19, and the output end of the flipping drive component 21 is fixedly connected to the arc-shaped plate 20. The multiple puncture drive components 22 are sequentially disposed outside the arc-shaped plate 20, and the output ends of the multiple puncture drive components 22 are respectively fixedly connected to the corresponding puncture rotation components 23. The output ends of the multiple puncture rotation components 23 are respectively provided with the corresponding puncture needles 3.

[0038] In this embodiment, the flipping drive component 21 is a hydraulic swing cylinder, which can drive the arc plate 20 to flip 180°, realize the switching of the two puncture adjustment mechanisms, and perform puncture operations on both the upper and lower sides of the charcoal body 6 at the same time, quickly forming a complete annular hole; the puncture drive component 22 is an electric cylinder, which can drive the puncture rotating component 23 and the puncture needle 3 to perform radial extension and retraction movements, realizing the puncture action; the puncture rotating component 23 is a micro motor, which can drive the puncture needle 3 to rotate, reduce puncture resistance, and avoid cracking of the charcoal body 6 during the puncture process.

[0039] Furthermore, the cutting assembly also includes multiple dust adsorption tubes 24 and a striking adjustment component 25. The multiple dust adsorption tubes 24 are sequentially arranged on one side of the diamond wire saw 4, and the striking adjustment component 25 is arranged on the bracket 17. The output end of the striking adjustment component 25 passes through the bracket 17 and is fixedly connected to the striking hammer 5.

[0040] In this embodiment, multiple dust adsorption tubes 24 are connected to an external negative pressure dust removal system, which can adsorb a small amount of dust generated during the cutting process in real time, further purifying the working environment; the striking adjustment component 25 is an electric cylinder, which can drive the striking hammer 5 to make vertical lifting and lowering movements, adjust the striking force and position, and ensure that the charcoal body 6 can be accurately broken and separated from the cutting point.

[0041] Furthermore, the cutting assembly also includes a collection unit, which includes a collection traverse component 26, a debris collection box 27, and a finished product guide plate 28. The collection traverse component 26 is disposed on one side of the base 1, and the output end of the collection traverse component 26 is provided with the debris collection box 27 and the finished product guide plate 28.

[0042] In this embodiment, the collecting transverse component 26 is an electric cylinder that can drive the debris collecting box 27 and the finished product guide plate 28 to perform transverse reciprocating motion; the debris collecting box 27 is used to collect a small amount of debris generated during the cutting process to realize the recycling of raw materials; the finished product guide plate 28 is an inclined guide plate that can smoothly guide the cut charcoal product to the subsequent collection process.

[0043] Furthermore, the cutting assembly also includes a control module 29 and an operation panel 30, which are sequentially disposed on one side of the base 1.

[0044] In this embodiment, the control module 29 is a PLC controller, which can realize the automated control of the entire cutting device, accurately adjust the operating parameters of each component, and flexibly set the corresponding preset remaining thickness according to the diameter and material of the charcoal body 6; the operation panel 30 is a human-machine interface, through which the operator can set process parameters such as cutting length, cutting speed, puncture depth, and preset remaining thickness, and at the same time monitor the operating status of the device in real time.

[0045] When using the charcoal processing cutting device of this embodiment, the operator first inserts the charcoal body 6 to be cut into one end of the mounting cylinder 2, passing it sequentially through the interior of multiple supporting inner rings 8; multiple clamping components 13 are activated simultaneously, driving the corresponding clamping plates 14 to extend and firmly clamp the charcoal body 6 circumferentially; the cutting length, cutting speed, preset remaining thickness, and other process parameters are set through the operation panel 30, and the device is started; the top transverse component 16 is activated, driving the bracket 17 to move to the first preset cutting position; the piercing lifting component 19 is activated, driving the two piercing adjustment mechanisms to descend above the charcoal body 6; the flipping drive component 21 is activated, driving the arc plate 20 to flip. Multiple puncture needles 3 are aligned with the cut of the charcoal body 6; multiple puncture drive components 22 are activated simultaneously, driving the puncture needles 3 to extend, while the puncture rotation component 23 drives the puncture needles 3 to rotate, puncturing the upper half of the charcoal body 6; after puncture, the puncture drive component 22 drives the puncture needles 3 to retract, and the flip drive component 21 drives the arc plate 20 to rotate 180°, puncturing the lower half of the charcoal body 6, ultimately forming a complete annular hole at the cut of the charcoal body 6; after the puncture operation is completed, the puncture lifting component 19 drives the puncture adjustment mechanism to reset to the initial position; multiple rotation drive components 10 are activated simultaneously, driving the gear 11 to rotate, meshing with the gear ring 12. The combined drive mechanism causes the outer rotating ring 7, the inner supporting ring 8, and the charcoal body 6 to rotate synchronously at a constant speed. The cutting adjustment component 18 is activated, driving the diamond wire saw 4 downwards to the annular hole area. The diamond wire saw 4 maintains a fixed position and continuously contacts the annular hole area, completing circumferential grinding and cutting through the rotation of the charcoal body 6. During the cutting process, multiple dust adsorption tubes 24 adsorb a small amount of dust generated in real time. When the diamond wire saw 4 cuts the charcoal body 6 to the preset remaining thickness, the rotating drive component 10 stops operating, and the charcoal body 6 stops rotating. The cutting adjustment component 18 drives the diamond wire saw 4 upwards, disengaging it from the charcoal body 6. The striking adjustment component 25 is activated, driving the... The hammer 5 moves downwards, precisely striking the cut point of the charcoal body 6, causing it to naturally break apart. After separation, the collecting transverse component 26 is activated, driving the finished product guide plate 28 to move below the cut point, and the cut charcoal product is smoothly discharged along the guide plate 28. Simultaneously, the debris collection box 27 collects the small amount of debris that falls during the cutting process. Then, the top transverse component 16 drives the support 17 to move to the next preset cutting position, repeating the above piercing, cutting, and striking separation process to achieve multi-segment continuous cutting of the charcoal body 6. After all cutting operations are completed, all components automatically return to their initial state, and the operator can release the clamping mechanism and remove the remaining charcoal body 6.

[0046] Please see Figure 8 The present invention also provides a cutting method for charcoal processing, comprising the following steps: S1: Place the charcoal body 6 inside the mounting cylinder 2, and simultaneously activate multiple clamping mechanisms to firmly fix the charcoal body 6. S2: The puncture adjustment mechanism drives multiple puncture needles 3 to perform rotational puncture treatment on the cut part of the charcoal body 6, leaving a complete annular hole on the charcoal body 6. S3: Multiple rotating units are started simultaneously, driving the charcoal body 6 to rotate at a constant speed; S4: The cutting adjustment component 18 drives the diamond wire saw 4 to approach the rotating charcoal body 6. The diamond wire saw 4 maintains a fixed position and continues to contact the annular hole area. The circumferential grinding and cutting is completed by the rotation of the charcoal body 6. S5: When the charcoal body 6 is cut to the preset remaining thickness, the rotating unit stops rotating and the diamond wire saw 4 disengages from the charcoal body 6. S6: The striking adjustment component 25 drives the striking hammer 5 to strike the cut part of the charcoal body 6, causing it to break off naturally from the cut part.

[0047] The process involves placing the charcoal body 6 inside the mounting cylinder 2, with multiple clamping mechanisms simultaneously activated to securely fix the charcoal body 6. A piercing adjustment mechanism drives multiple piercing needles 3 to perform rotational piercing of the cut area of ​​the charcoal body 6, leaving a complete annular hole. Multiple rotating units are simultaneously activated, causing the charcoal body 6 to rotate at a constant speed. A cutting adjustment component 18 drives a diamond wire saw 4 to approach the rotating charcoal body 6, maintaining a fixed position and continuous contact with the annular hole area, completing circumferential grinding and cutting through the rotation of the charcoal body 6. When the charcoal body 6 is cut to a preset remaining thickness (one-tenth of the charcoal body's thickness), the rotating units stop rotating, and the diamond wire saw 4 disengages from the charcoal body 6. A striking adjustment component 25 drives a striking hammer 5 to strike the cut area of ​​the charcoal body 6, causing it to break off naturally at the cut point.

[0048] The above-disclosed embodiments are merely one or more preferred embodiments of this application and should not be construed as limiting the scope of this application. Those skilled in the art can understand that all or part of the processes for implementing the above embodiments and equivalent changes made in accordance with the claims of this application still fall within the scope of this application.

Claims

1. A cutting device for charcoal processing, comprising a base and a mounting cylinder, wherein the mounting cylinder is disposed above the base, characterized in that, It also includes cutting components; The cutting assembly includes multiple rotating units, multiple piercing needles, a diamond wire saw, and a striking hammer. The multiple rotating units are sequentially arranged inside the mounting cylinder, and a charcoal body is placed inside the multiple rotating units. The multiple piercing needles are distributed around the outside of the charcoal body, and the diamond wire saw and the striking hammer are located on both sides of the piercing needles.

2. The charcoal processing cutting device as described in claim 1, characterized in that, The rotating unit includes a rotating outer ring, a rotating drive mechanism, a supporting inner ring, and multiple clamping mechanisms. The rotating outer ring is rotatably connected to the mounting cylinder, which has a groove. The rotating drive mechanism is disposed inside the groove, and the supporting inner ring is disposed inside the rotating outer ring. The multiple clamping mechanisms are sequentially distributed on the supporting inner ring, and the charcoal body is placed inside the supporting inner ring.

3. The charcoal processing cutting device as described in claim 2, characterized in that, The rotary drive mechanism includes a rotary drive component, a gear, and a gear ring. The rotary drive component is disposed on the inner sidewall of the groove. The output end of the rotary drive component is fixedly connected to the gear. The gear ring is sleeved on the outer sidewall of the rotary outer ring, and the gear ring meshes with the gear.

4. The charcoal processing cutting device as described in claim 3, characterized in that, The clamping mechanism includes a clamping component and a clamping plate. The clamping component is disposed on the outside of the inner support ring. The output end of the clamping component passes through the inner support ring and is fixedly connected to the clamping plate. The inner support ring has a storage groove, and the clamping plate is adapted to the storage groove.

5. The charcoal processing cutting device as described in claim 4, characterized in that, The cutting assembly further includes a top lateral movement component, a support, a cutting adjustment component, a piercing lifting component, and two piercing adjustment mechanisms. The top lateral movement component is disposed on the mounting cylinder and located above the charcoal body. The support is disposed at the output end of the top lateral movement component. The cutting adjustment component and the piercing lifting component are sequentially disposed on the support. The output end of the cutting adjustment component passes through the support and is fixedly connected to the diamond wire saw. The output end of the piercing lifting component passes through the support and is connected to the two piercing adjustment mechanisms.

6. The charcoal processing cutting device as described in claim 5, characterized in that, The puncture adjustment mechanism includes an arc-shaped plate, a flipping drive component, multiple puncture drive components, and multiple puncture rotation components. The flipping drive component is disposed at the output end of the puncture lifting component and is fixedly connected to the arc-shaped plate. The multiple puncture drive components are sequentially disposed outside the arc-shaped plate, and the output ends of the multiple puncture drive components are respectively fixedly connected to the corresponding puncture rotation components. The output ends of the multiple puncture rotation components are respectively provided with the corresponding puncture needles.

7. The charcoal processing cutting device as described in claim 6, characterized in that, The cutting assembly also includes multiple dust adsorption tubes and a striking adjustment component. The multiple dust adsorption tubes are sequentially arranged on one side of the diamond wire saw. The striking adjustment component is arranged on the bracket, and the output end of the striking adjustment component passes through the bracket and is fixedly connected to the striking hammer.

8. The charcoal processing cutting device as described in claim 7, characterized in that, The cutting assembly also includes a collection unit, which includes a collection traverse component, a debris collection box, and a finished product guide plate. The collection traverse component is disposed on one side of the base, and the output end of the collection traverse component is provided with the debris collection box and the finished product guide plate.

9. The charcoal processing cutting device as described in claim 8, characterized in that, The cutting assembly also includes a control module and an operation panel, which are sequentially arranged on one side of the base.

10. A cutting method for charcoal processing, employing the charcoal processing cutting device as described in claim 9, characterized in that, Includes the following steps: The charcoal body is placed inside the mounting cylinder and fixed. The puncture is performed on the cut part of the charcoal body to leave an annular hole in the charcoal body; The rotating unit is activated, causing the charcoal body to rotate; The diamond wire saw approaches the rotating charcoal body and cuts the annular hole area; The charcoal body stops rotating when it is cut to a preset remaining thickness, and the diamond wire saw disengages from the charcoal body. The hammer strikes the charcoal body, causing it to break apart at the cut point.

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