TWI881675B - Blasting system with rotatory blasting mechanism - Google Patents

Abstract

A blasting system with a rotatory blasting mechanism includes a uncoiler, a first obliquely-holding mechanism, a blasting machine assembly, a second obliquely-holding mechanism, a guiding mechanism, and a winder. The uncoiler is used to wind a plate thereon. The first obliquely-holding mechanism is arranged at a downstream position of the uncoiler, and used to bend the plate in an oblique manner. The blasting machine assembly is arranged at a downstream position of the first obliquely-holding mechanism for continuously blasting the plate. The blasting machine assembly is a rotatory structure and is able to adjust an oblique angle. The blasting machine assembly includes a plurality of blasting machines. Each blasting machine includes a chamber and at least two centrifugal impellers. Each centrifugal impeller has a sand-outputting surface that is corresponded with the plate in an oblique manner. The second obliquely-holding mechanism is arranged at a downstream position of the blasting machine assembly, and can receive the plate which is outputted from the blasting machine assembly. The guiding mechanism is arranged at a downstream position of the second obliquely-holding mechanism, and used to guide the plate in a horizontal manner. The winder can roll back the plate. Therefore, it can solve the problem of blowing sands, without a complex sand-removing mechanism, and simplify the operating of removing sands to reduce the cost. Further, the oblique angle of the plate and blasting angle can be adjusted according to requirements, to provide a better sand-removing effect.

Description

Spray system with rotating spray mechanism

The present invention relates to a blasting system with a rotary blasting mechanism, and more particularly to a blasting system capable of continuously blasting a plate to improve the fatigue strength of the plate and the hardness of the workpiece surface, thereby increasing the service life.

For the surface treatment of metal workpieces, the applicant proposed a blasting machine that can provide the advantages of combining sandblasting and shot peening. Its impeller equipment can spray blasting particles at high speed. The particle size of the blasting particles can be between the sand material of sandblasting and the steel shot of shot peening. It can not only provide a cleaning effect and improve the surface roughness, but also further improve the fatigue strength of the workpiece and the hardness of the workpiece surface, thereby enhancing the service life. It has been approved as TW I709460 "blasting machine and its impeller equipment".

However, when the blasting machine is performing blasting of the particles onto the surface of the plate, since the plate is transported in a horizontal state, the blasting particles are easily adsorbed onto the surface of the plate, which will cause the plate to absorb sand. Therefore, a complex sand removal mechanism and sand removal operation must be set up, resulting in an increase in cost.

The technical problem to be solved by the present invention is to provide a spray system with a rotary spray mechanism to address the shortcomings of the prior art, which can effectively solve the problem of sand absorption, does not require the installation of a complex sand removal mechanism, and can simplify the sand removal operation to achieve the effect of reducing costs. In addition, the plate can adjust the inclination angle according to demand to achieve a better sand removal effect.

In order to solve the above technical problems, the present invention provides a spraying system with a rotary spraying mechanism, comprising: an unwinder, which can be used to place a plate, and the plate is transported along a conveying path; a first oblique clamping mechanism, which is arranged on the conveying path, and the first oblique clamping mechanism is located at a downstream position of the unwinder, and the first oblique clamping mechanism can bend the plate into an inclined state; a spraying machine assembly, which is arranged on the conveying path, and the spraying machine assembly is located at a downstream position of the first oblique clamping mechanism, and the spraying machine assembly is a rotary structure, and the tilt angle can be adjusted. The spraying machine assembly includes a plurality of spraying machines, and each of the spraying machines has a chamber and at least two centrifugal impellers, and the at least Two centrifugal impellers are respectively arranged on opposite sides of the chamber, and the spray machine assembly can continuously spray the plate. The at least two centrifugal impellers each have a sand outlet surface, and the sand outlet surface is inclined corresponding to the plate; a second oblique clamping mechanism is arranged on the conveying path, and the second oblique clamping mechanism is located at a downstream position of the spray machine assembly, and the second oblique clamping mechanism can receive the plate output by the spray machine assembly; a guiding mechanism is arranged on the conveying path, and the guiding mechanism is located at a downstream position of the second oblique clamping mechanism, and the plate can be guided by the guiding mechanism to be horizontal; and a winding machine is located at a downstream position of the guiding mechanism and can be used to wind up the plate.

The beneficial effect of the present invention is that the blasting system with a rotary blasting mechanism provided by the present invention can convey the plate at an angle, and the sand discharge surface of the centrifugal impeller is inclined corresponding to the plate. When the blasting machine sprays the blasting particles to hit the surface of the plate, the blasting particles can automatically fall by gravity, and the blasting particles will not be adsorbed on the surface of the plate, and will not cause the problem of the plate absorbing sand. Therefore, the sand removal mechanism and sand removal operation can be simplified, and the cost can be reduced. Furthermore, the blasting machine assembly of the present invention is a rotary structure, and the blasting machine assembly can adjust the blasting angle, so that the plate can be adjusted to the corresponding tilt angle to achieve a better sand removal effect.

To further understand the features and technical contents of the present invention, please refer to the following detailed description and drawings of the present invention. However, the drawings provided are only used for reference and description and are not used to limit the present invention.

The following is an explanation of the relevant implementation methods disclosed by the present invention through specific concrete embodiments. Those skilled in the art can understand the advantages and effects of the present invention from the contents disclosed in this specification. The present invention can be implemented or applied through other different specific embodiments, and the details in this specification can also be modified and changed in various ways based on different viewpoints and applications without departing from the concept of the present invention. In addition, the drawings of the present invention are only simple schematic illustrations and are not depicted according to actual sizes. Please note in advance. The following implementation methods will further explain the relevant technical contents of the present invention in detail, but the disclosed contents are not intended to limit the scope of protection of the present invention. In addition, the term "or" used in this article may include any one or more combinations of the related listed items depending on the actual situation.

[Example]

Please refer to FIG. 1 . The present invention provides a spraying system with a rotary spraying mechanism, including an unwinder 1, a first diagonal clamping mechanism 3, a spraying machine assembly 4, a second diagonal clamping mechanism 5, a guiding mechanism 6 and a winder 7, and may also include a tension release mechanism 2.

The uncoiler 1 can be arranged in a horizontal direction, and can be used to place the plate 100, so that the plate 100 is transported along a conveying path A, and the plate 100 can sequentially pass through the tension release mechanism 2, the first oblique clamping mechanism 3, the spraying machine assembly 4, the second oblique clamping mechanism 5 and the guiding mechanism 6. The winder 7 can be arranged in a horizontal direction, and the winder 7 can be used to wind up the plate 100, so that the plate 100 after the spraying treatment can be stored on the winder 7.

The tension release mechanism 2 is arranged on the conveying path A, and is located downstream of the uncoiler 1. The tension release mechanism 2 can be used to release the sheet 100 so that the sheet 100 can be bent to a predetermined angle. The structure of the tension release mechanism 2 is not limited. In this embodiment, the tension release mechanism 2 at least includes a support seat 21 and a lower guide roller 22 (as shown in FIG. 2 ). The lower guide roller 22 is rotatably arranged on the support seat 21. The sheet 100 is placed on the lower guide roller 22. The sheet 100 can be guided by the lower guide roller 22 to sag to a predetermined height. The tension release mechanism 2 can make the plate 100 sag, for example, to a height of 5m to 8m. The tension release mechanism 2 can make the plate 100 sag to a height of 5m, 6m, 7m or 8m, etc., so that the plate 100 can achieve the effect of stress (tension) relaxation, so that the plate 100 can enter the first diagonal clamping mechanism 3 for the turning operation.

The first oblique clamping mechanism 3 is arranged on the conveying path A, and is located downstream of the tension release mechanism 2 (as shown in FIG. 2 ). The first oblique clamping mechanism 3 is also located downstream of the uncoiler 1. The first oblique clamping mechanism 3 can bend the plate 100 into an inclined state. The first oblique clamping mechanism 3 is a rotary structure, and can flexibly adjust the angle of the plate 100. The first oblique clamping mechanism 3 can bend the plate 100 into an inclined state, so that the plate 100 forms an angle θ with the horizontal plane (as shown in FIG. 2 ). The angle θ is 5 degrees to 85 degrees, and the angle θ can be 5 degrees, 15 degrees, 25 degrees, 35 degrees, 45 degrees, 55 degrees, 65 degrees, 75 degrees or 85 degrees, etc. The inclination angle of the plate 100 is not limited.

The structure of the first oblique clamping mechanism 3 is not limited. In this embodiment, the first oblique clamping mechanism 3 at least includes a first outer frame 31, two first clamping rollers 32 and a first fixed seat 33 (as shown in Figures 2 and 3). The two first clamping rollers 32 are rotatably arranged on the first outer frame 31. The two first clamping rollers 32 are parallel to each other and the two first clamping rollers 32 are tilted. The first outer frame 31 is rotatably arranged on the first fixed seat 33, so that the first outer frame 31 can rotate on the first fixed seat 33, and can drive the two first clamping rollers 32 to rotate and adjust the tilt angle. After the first outer frame 31 is rotated and adjusted on the first fixed seat 33, it can also be properly fixed. The two first clamping rollers 32 can be tilted at a predetermined angle according to the needs of the plate 100. The plate 100 passes between the two first clamping rollers 32 to bend the plate 100 into a tilted state, so that the plate 100 can be tilted at a tilt of 5 to 85 degrees.

The spraying machine assembly 4 is arranged on the conveying path A, and is located downstream of the first oblique clamping mechanism 3. The spraying machine assembly 4 can spray the plate 100 in a graded and continuous manner, which can not only provide a cleaning effect and improve the surface roughness, but also further improve the fatigue strength and surface hardness of the plate 100, thereby enhancing the service life. The spraying machine assembly 4 is a rotary structure, and the spraying angle can be flexibly adjusted.

The blasting machine assembly 4 includes a plurality of blasting machines 41, each of which has a chamber 411, at least two centrifugal impellers 412 and at least one support frame 421 (as shown in FIGS. 4 to 6). The two centrifugal impellers 412 are respectively disposed on opposite sides of the chamber 411, and the centrifugal impellers 412 are tilted corresponding to the plate 100. The centrifugal impellers 412 have a sanding surface 412a, and the sanding surface 412a is tilted corresponding to the plate 100, that is, the sanding surface 412a of the centrifugal impeller 412 is parallel to the surface of the plate 100, so as to have a better blasting effect. Preferably, the centrifugal impeller 412 is rotatably disposed on the chamber 411, that is, the centrifugal impeller 412 can be supported on the chamber 411 by a shaft mechanism 428 (as shown in FIG. 4 ), so that the centrifugal impeller 412 can rotate relative to the chamber 411, and the sandblasting angle of the centrifugal impeller 412 can be adjusted.

The two centrifugal impellers 412 are arranged at intervals, and the two centrifugal impellers 412 are respectively located at the two sides of the plate 100. In this embodiment, two centrifugal impellers 412 are respectively arranged at the two sides of the plate 100, that is, each jetting machine 41 is provided with four centrifugal impellers 412 in total, and the four centrifugal impellers 412 are arranged at the two sides of the plate 100 in pairs, and the centrifugal impellers 412 at the two sides of the plate 100 are arranged staggered. The impinging particles can be sprayed and hit the surface of the plate 100 through the centrifugal impellers 412. The centrifugal impellers 412 are arranged on both sides of the plate 100 to symmetrically spray the upper and lower surfaces of the plate 100 to offset the upper stress and lower stress formed by the spraying, keep the plate 100 flat, and avoid local unevenness caused by different tensions on the surface. The impinging particles of this embodiment can be, for example, ceramic sand, glass beads, nylon sand, quartz sand, diamond sand, iron sand, metal balls, etc., without limitation.

At least one supporting mechanism 420 (as shown in FIG. 6 ) may be provided in the chamber 411, and the lower end of the plate 100 is placed on the supporting mechanism 420, and the supporting mechanism 420 can be used to guide the plate 100 to move smoothly. In this embodiment, the supporting mechanism 420 includes a plurality of supporting rollers 420a, which are rotatably disposed in the chamber 411, and the supporting rollers 420a are arranged in a row, and the lower end of the plate 100 is placed on the supporting rollers 420a, and the plate 100 can be guided to move forward smoothly. Preferably, the outer edges of the supporting rollers 420a form a V-shaped groove, which can provide a stable positioning of the lower end of the plate 100.

In this embodiment, the blasting machine 41 may further include a particle processing device 413, a collection device 414 and a lifting device 415 (as shown in FIG. 1 ). The collection device 414 is connected between the chamber 411 and the lifting device 415, and the lifting device 415 is connected between the collection device 414, the particle processing device 413 and a discharge portion 416, and the discharge portion 416 is connected to the centrifugal impeller 412. Through the collection device 414 and the lifting device 415, the blasting particles can be recycled and reused, which is helpful for environmental protection. The particle processing device 413 processes the recovered blasting particles and filters other mixed dust or particles, and then supplies the blasting particles to the centrifugal impellers 412 through the discharge portion 416, thereby forming a circulation method to utilize the blasting particles. For details of the blasting machine, please refer to TW I709460 "Spraying machine and its impeller device".

In this embodiment, the blasting machine 41 may further include an outer shell 417 (as shown in FIG. 6 ), the chamber 411 is disposed in a support frame 421, and the support frame 421 is rotatably disposed in the outer shell 417, so that the chamber 411 is rotatably disposed in the outer shell 417, so that the tilt angle of the chamber 411 can be adjusted accordingly according to the needs of the plate 100. The support frame 421 can be supported and disposed in the outer shell 417 by a plurality of support rollers 422, so that the blasting machine assembly 4 can flexibly adjust the blasting angle. Preferably, the blasting machine 41 may have two support frames 421 to stably support the chamber 411.

In this embodiment, the discharge portion 416 is connected to one end of an output pipe 423 (as shown in FIG. 4 ), the impeller 412 is connected to one end of an input pipe 424, the other end of the input pipe 424 is connected to a connecting pipe 425, the connecting pipe 425 has an opening 4251, the diameter of the opening 4251 is larger than the diameter of the other end of the output pipe 423, the other end of the output pipe 423 is arranged in the opening 4251, and there is a gap between the other end of the output pipe 423 and the opening 4251, so that when the chamber 411 and the impeller 412 are rotated and adjusted in the outer shell 417, the discharge portion 416 and the impeller 412 can still be smoothly connected, and will not cause pulling or breaking between the output pipe 423 and the input pipe 424. A gate 427 may be disposed at the opening 4251 of the connecting pipe 425 . The gate 427 is connected to a cylinder 426 . The cylinder 426 can be used to push the gate 427 , so that the gate 427 can control the opening 4251 of the connecting pipe 425 to be opened or closed.

In this embodiment, at least one partition curtain 418 (as shown in FIG. 5 ) is disposed at each of the two ends (inlet end and outlet end) of each chamber 411 . The partition curtains 418 are located between two adjacent blasting machines 41 to prevent the blasting products of the two adjacent blasting machines 41 from mixing.

In this embodiment, a suction port 417a (as shown in FIG. 6 ) is provided at the middle of the top and at both sides of the outer shell 417. The suction ports 417a can be connected to a suction device (not shown) to evacuate the interior of the outer shell 417, thereby achieving a dust collection effect, so that the spraying machine 41 can maintain a better cleanliness. In this embodiment, high-pressure gas blowing and brushing can be used to remove dust at the same time, and then suction is performed.

In this embodiment, a detection area 419 (as shown in FIG. 1 and FIG. 5 ) may be provided at one end (exit end) of each of the spraying machines 41. At least one image capturing device 8 may be provided in the detection area 419. The image capturing device 8 may be, for example, a camera lens. The image capturing device 8 may be used to capture the surface image of the plate 100, that is, the image after passing through the spraying machine 41. Preferably, at least two image capturing devices 8 may be provided in each of the detection areas 419, which may be used to capture the images of the upper surface and the lower surface of the plate 100, respectively. Specifically, the surface image of the plate 100 can be captured as a photo, which includes the entire width of the plate 100 and reaches a predetermined length, which is sufficient to determine the processing status of the surface of the plate 100 after the blasting machine 41. This predetermined length can be adjusted according to the size of the plate 100. Alternatively, the surface image of the plate 100 can also include multiple photos, and according to the width of the plate 100, multiple ranges of the same unit area are obtained between the two side edges, such as multiple rectangles or multiple circles, and sampled for representative inspection. However, the present invention is not limited to this.

The image capture devices 8 are electrically connected to an image recognition control module 9 (as shown in FIG. 1 ). The image recognition control module 9 can be used to receive the image signal of the image capture device 8 and compare it with a reference surface image of the same blasting program preset in the database, thereby controlling the sand output of the blasting machine 41. In this embodiment, the image capture device 8 can be electrically connected to the image recognition control module 9 in a wired or wireless manner. The image recognition control module 9 includes but is not limited to an artificial intelligence Internet of Things (AIOT). For example, it can also be a computer. The image recognition control module 9 has a receiving unit, a memory device, a central processing unit, and an output unit. The above-mentioned database may be located in a computer memory device, such as a hard disk, wherein the reference surface image is stored in the database and has been manually screened to be sufficient to represent the surface treatment that has passed the above-mentioned stage, that is, the surface image of the qualified result of the blasting machine 41.

The processing indicators of the surface image of the above-mentioned blasting of the present invention may include the functions of sand blasting and shot peening. For example, the surface of the object is cleaned, the surface roughness is improved, the properties of the workpiece are strengthened, the corrosion at the crack tip is reduced, and the microstructure of countless circular pits is generated on the surface of the plate 100. Therefore, representative indicators include, for example, the roughness of the surface of the plate 100 and the total area of rust spots. Generally speaking, after the workpiece is processed, the roughness of its surface needs to reach a predetermined flatness and remove the oxide scale. In this embodiment, an image capture device 8 and an image recognition control module 9 are set downstream of the blasting machine 41, which can more accurately control the sand blasting amount and blasting intensity to achieve a more environmentally friendly effect.

The second diagonal clamping mechanism 5 is disposed on the conveying path A, and is located downstream of the spraying machine assembly 4. The second diagonal clamping mechanism 5 is a rotary structure, and can adjust the tilt angle corresponding to the plate 100. The second diagonal clamping mechanism 5 can be used to receive the plate 100 output by the spraying machine assembly 4, so that the plate 100 can pass through the second diagonal clamping mechanism 5 and the guiding mechanism 6 and then be conveyed to the winding machine 7. The structure of the second oblique clamping mechanism 5 is not limited. In this embodiment, the structure of the second oblique clamping mechanism 5 is the same as that of the first oblique clamping mechanism 3. The second oblique clamping mechanism 5 at least includes a second outer frame 51, two second clamping rollers 52 and a second fixed seat 53 (as shown in FIG. 3). The two second clamping rollers 52 are rotatably arranged on the second outer frame 51. The two second clamping rollers 52 are parallel to each other and the two second clamping rollers 52 are inclined. The second outer frame 51 is rotatably arranged on the second fixed seat 53, so that the second outer frame 51 can rotate on the second fixed seat 53, and can drive the two second clamping rollers 52 to rotate and adjust the inclination angle. The two second clamping rollers 52 can be tilted at a predetermined angle according to the needs of the plate 100. The plate 100 passes between the two second clamping rollers 52 to stably maintain the tilted state of the plate 100 between the first oblique clamping mechanism 3 and the second oblique clamping mechanism 5, and can be adjusted accordingly to the required tilting angle.

The guiding mechanism 6 is arranged on the conveying path A, and is located downstream of the second diagonal clamping mechanism 5. The winder 7 is located downstream of the guiding mechanism 6. The guiding mechanism 6 can be used to receive the plate 100 output by the second diagonal clamping mechanism 5, so that the plate 100 can be corrected by the guiding mechanism 6 to be horizontal. The structure of the guiding mechanism 6 is not limited. In this embodiment, the guiding mechanism 6 at least includes a bracket 61 and two guiding rollers 62 (as shown in FIG. 1 ). The two guiding rollers 62 are rotatably disposed on the bracket 61. The two guiding rollers 62 are horizontally disposed and parallel to each other. The plate 100 passes between the two guiding rollers 62 to guide the plate 100 to restore the horizontal conveying state, and then the plate 100 that has been subjected to the spraying treatment can be rolled up and placed on the winder 7.

[Beneficial Effects of Embodiments]

The beneficial effect of the present invention is that the blasting system with a rotary blasting mechanism provided by the present invention can convey the plate at an angle, and the sand discharge surface of the centrifugal impeller is inclined corresponding to the plate. When the blasting machine sprays the blasting particles to hit the surface of the plate, the blasting particles can automatically fall by gravity, and the blasting particles will not be adsorbed on the surface of the plate, and will not cause the problem of the plate absorbing sand. Therefore, the sand removal mechanism and sand removal operation can be simplified, and the cost can be reduced. Furthermore, the blasting machine assembly of the present invention is a rotary structure, and the blasting machine assembly can adjust the blasting angle, so that the plate can be adjusted to the corresponding tilt angle to achieve a better sand removal effect.

The contents disclosed above are only preferred feasible embodiments of the present invention and are not intended to limit the scope of the patent application of the present invention. Therefore, all equivalent technical changes made using the contents of the specification and drawings of the present invention are included in the scope of the patent application of the present invention.

1: Unwinder 2: Tension release mechanism 21: Support seat 22: Lower guide roller 3: First oblique clamping mechanism 31: First outer frame 32: First clamping roller 33: First fixed seat 4: Spraying machine assembly 41: Spraying machine 411: Chamber 412: Centrifugal impeller 412a: Sand discharge surface 413: Particle handling equipment 414: Collection equipment 415: Lifting equipment 416: Discharge section 417: Outer shell 417a: Exhaust port 418: Curtain 419: Inspection area 420: Support mechanism 420a: Support roller 421: Support frame 422: Support roller 423: Output pipe 424: Input pipe 425: Pipe connection 4251: Opening 426: Cylinder 427: Gate 428: Rotating shaft mechanism 5: Second oblique clamping mechanism 51: Second outer frame 52: Second clamping roller 53: Second fixed seat 6: Guiding mechanism 61: Bracket 62: Guiding roller 7: Winding machine 8: Image capture device 9: Image recognition control module A: Conveying path θ: Clamping angle 100: Plate

FIG. 1 is a schematic plan view of a spray system with a rotary spray mechanism according to an embodiment of the present invention.

FIG. 2 is a three-dimensional schematic diagram of the tension release mechanism and the first oblique clamping mechanism according to an embodiment of the present invention.

FIG. 3 is a schematic plan view of the first and second oblique clamping mechanisms of the embodiment of the present invention.

FIG. 4 is a side view schematic diagram of the jetting machine of the present invention (I).

FIG. 5 is a schematic top view of the jetting machine of the present invention.

FIG. 6 is a side view schematic diagram of the jetting machine of the present invention (II).

1: Uncoiler

2: Tension release mechanism

21: Seat

22: Lower guide roller

3: The first oblique clamping mechanism

31: First outer frame

32: First clamping roller

33: First fixed seat

4: Spray machine combination

41: Spraying machine

411: Chamber

412: Centrifugal impeller

413: Particle processing equipment

414: Collection equipment

415: Lifting equipment

416: Discharging Department

417: Shell

417a: Exhaust port

418: Curtain

419: Testing area

421:Support frame

422: Support roller

5: Second oblique clamping mechanism

51: Second outer frame

52: Second clamping roller

53: Second fixed seat

6: Guidance mechanism

61: Bracket

62: Guide roller

7: Winding machine

8: Image capture device

9: Image recognition control module

A:Transportation path

100: Plate

Claims (9)

A spray system with a rotary spray mechanism, comprising: an unwinder, capable of placing a plate, the plate being transported along a conveying path; a first diagonal clamping mechanism, disposed on the conveying path, the first diagonal clamping mechanism being located downstream of the unwinder, the first diagonal clamping mechanism being capable of bending the plate into an inclined shape; A spraying machine assembly is arranged on the conveying path. The spraying machine assembly is located downstream of the first oblique clamping mechanism. The spraying machine assembly is a rotary structure capable of adjusting the tilt angle. The spraying machine assembly includes a plurality of spraying machines. Each of the spraying machines has a chamber and at least two centrifugal impellers. The at least two centrifugal impellers are respectively arranged on opposite sides of the chamber. The spraying machine assembly can continuously spray the plate. Each of the at least two centrifugal impellers has a sanding surface. The sanding surface is tilted corresponding to the plate; A second oblique clamping mechanism is arranged on the conveying path, the second oblique clamping mechanism is located downstream of the spraying machine assembly, and the second oblique clamping mechanism can receive the plate output by the spraying machine assembly; A guiding mechanism is arranged on the conveying path, the guiding mechanism is located downstream of the second oblique clamping mechanism, and the plate can be guided to a horizontal state by the guiding mechanism; and A winding machine is located downstream of the guiding mechanism and can be used to wind up the plate; The blasting machine includes an outer shell, the chamber is arranged in a support frame, the support frame is rotatably arranged in the outer shell, so that the chamber is rotatably arranged in the outer shell, and the support frame is supported by a plurality of supporting rollers and arranged in the outer shell. A blasting system with a rotary blasting mechanism as described in claim 1, wherein the blasting machine further includes a particle processing device, a collecting device and a lifting device, the collecting device is connected between the chamber and the lifting device, the lifting device is connected between the collecting device, the particle processing device and a discharge portion, the discharge portion is connected to one end of an output pipe, the centrifugal impeller is connected to one end of an input pipe, the other end of the input pipe is connected to a connecting pipe, the connecting pipe has an opening, the diameter of the opening is larger than the diameter of the other end of the output pipe, the other end of the output pipe is arranged in the opening, and there is a gap between the other end of the output pipe and the opening. A spray system with a rotary spray mechanism as described in claim 1, wherein the first oblique clamping mechanism is a rotary structure, the first oblique clamping mechanism at least includes a first outer frame, two first clamping rollers and a first fixed seat, the two first clamping rollers are rotatably arranged on the first outer frame, the two first clamping rollers are parallel to each other, and the two first clamping rollers are inclined, and the first outer frame is rotatably arranged on the first fixed seat. A spray system with a rotary spray mechanism as described in claim 1, wherein the second oblique clamping mechanism is a rotary structure, and the second oblique clamping mechanism at least includes a second outer frame, two second clamping rollers and a second fixed seat, the two second clamping rollers are rotatably arranged on the second outer frame, the two second clamping rollers are parallel to each other, and the two second clamping rollers are inclined, and the second outer frame is rotatably arranged on the second fixed seat. As described in claim 1, the blasting system with a rotary blasting mechanism, wherein the centrifugal impeller is supported on the chamber by a rotating shaft mechanism, so that the centrifugal impeller is rotatably arranged on the chamber, and the sandblasting angle of the centrifugal impeller can be adjusted. A jetting system with a rotary jetting mechanism as described in claim 1, wherein the guiding mechanism comprises at least a bracket and two guiding rollers, the two guiding rollers are rotatably disposed on the bracket, the two guiding rollers are horizontally disposed and parallel to each other, and the plate passes between the two guiding rollers to guide the plate to restore the horizontal conveying state. As described in claim 1, the spray system with a rotating spray mechanism, wherein the first oblique clamping mechanism can fold the plate into an inclined state so that the plate forms an angle with the horizontal plane, and the angle of the angle is 5 degrees to 85 degrees. As described in claim 1, the spray system with a rotating spray mechanism is provided in the chamber, and the lower end of the plate is placed on the supporting mechanism. A spray system with a rotary spray mechanism as described in claim 8, wherein the supporting mechanism includes a plurality of supporting rollers, the plurality of supporting rollers are rotatably disposed in the chamber, the plurality of supporting rollers are arranged in a row, and the lower end of the plate is placed on the plurality of supporting rollers.

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