A gas distribution device for reducing titanium corrosion

Abstract

The application relates to the field of titanium peripheral production devices, and discloses a cloth gas device for reducing titanium rust, which comprises a packaging box, a power mechanism connected to one side of the packaging box, a functional cavity arranged in the packaging box, a discharge mechanism arranged in the functional cavity, an intermediate shaft connected to the middle of the discharge mechanism, a transmission connection between the intermediate shaft and the power mechanism, an auxiliary mechanism arranged in the packaging box, an adding mechanism, an auxiliary mechanism arranged in the packaging box and connected to the adding mechanism, a discharge mechanism arranged in the packaging box, and a ventilation mechanism arranged in the packaging box and used for gas circulation. The cloth gas device can make the reducing gas quickly and stably mix with raw materials for reaction, so that the reaction is more rapid and complete, the purity of the finished product is improved, and the use of raw materials is reduced.

Description

Technical Field

[0001] This invention relates to the field of titanium peripheral production equipment, and more particularly to a gas distribution device for reducing titanium corrosion. Background Technology

[0002] Titanium is a silvery-white transition metal characterized by its light weight, high strength, metallic luster, and resistance to corrosion by moist chlorine gas. In nature, it is generally mixed with iron and other metals. During production, it requires reduction using reducing gases and pickling processes. After reduction, the residue still contains a certain amount of titanium, which can be used to make red ore, thus achieving resource reuse.

[0003] Current secondary processes generally use reducing gases for reduction before proceeding with subsequent operations. However, the existing reduction methods involve relatively traditional piping layouts and equipment setups. As a result, the reducing gas cannot react quickly enough during the process, leading to a slower reaction rate and increased energy loss. Summary of the Invention

[0004] To address the technical problem of poor reaction, this invention provides a gas distribution device for reducing titanium corrosion.

[0005] This invention is achieved using the following technical solution: a gas distribution device for reducing titanium corrosion, comprising:

[0006] The packaging box has a power mechanism connected to one side;

[0007] The functional cavity is located inside the packaging box, and a discharge mechanism is installed inside it.

[0008] It is connected by an intermediate shaft, which is connected to the power mechanism for transmission.

[0009] The auxiliary mechanism is located inside the packaging box;

[0010] An auxiliary mechanism is added; it is located inside the packaging box and is connected to an auxiliary mechanism located inside the packaging box.

[0011] The emission mechanism is housed within the enclosure.

[0012] A ventilation mechanism, located inside the enclosure, is used for gas circulation.

[0013] As a further improvement to the above solution, the power mechanism includes:

[0014] A cooling chamber is set inside a packaging box, and a motor is fixedly connected inside the chamber. The output end of the motor is connected to a gearbox.

[0015] The drive ring is connected to the output end of the gearbox;

[0016] The drive columns are provided in multiples and are helically distributed and fixed on one side of the intermediate shaft;

[0017] A limiting plate is fixedly connected to the cavity wall of the functional cavity. A spring is connected to one side of the limiting plate, and a partition plate rotatably connected to the other end of the spring is fixedly connected to the intermediate shaft. The partition plate is slidably connected to the cavity wall of the functional cavity.

[0018] As a further improvement to the above scheme, the emission mechanism includes:

[0019] A sliding tube, which is rotatably sleeved with the intermediate shaft, and the sliding tube is slidably sleeved with the packaging box;

[0020] A vent tube passes through a sliding tube, and its other end is connected to a dispersing tube located in the functional chamber. A combustion tube is connected to the outside of the dispersing tube.

[0021] The support ring has two parts, one of which is rotatably sleeved with the intermediate shaft, and the other is fixedly connected to the sliding tube;

[0022] The transmission unit is symmetrically arranged in two sets, with multiple units in each set. One set is fixedly connected to the intermediate shaft, and the other set is fixedly connected to a rotating sleeve that is rotatably connected to the sliding tube.

[0023] An actuator tube has a gear fixedly connected to its outer wall that meshes with a support ring, and both ends of the actuator tube are respectively connected to two sets of transmission units;

[0024] A connecting pipe, which is connected to the transmission unit;

[0025] The diffuser ring is provided in multiple ways, and a connecting tube is connected between two diffuser rings. Both the diffuser ring and the connecting tube are provided with multiple air dissipation holes, and one end of the connecting tube is connected to the diffuser rings located on both sides.

[0026] As a further improvement to the above solution, the transmission unit includes:

[0027] A limiting sleeve, the bottom of which is fixedly connected to an installation tube, the installation tube being fixedly connected to a rotating sleeve or an intermediate shaft;

[0028] Spring 2 has one end fixedly connected to the mounting tube, and the other end fixedly connected to a movable tube that slides in contact with the limiting sleeve.

[0029] A rotating ring is fixedly connected to a moving tube, and a rotating tube is rotatably connected to one side of the rotating ring via a ball hinge. A limiting ring that is rotatably connected to the actuator tube is slidably sleeved on the outer wall of the rotating tube.

[0030] An insert sleeve, which is connected to one end of the connecting tube.

[0031] As a further improvement to the above solution, a partition ring is fixedly connected to the middle of the intermediate shaft, a conductive tube is fixedly connected to the partition ring, a high-temperature tube connected to the auxiliary mechanism is connected to one side of the partition plate, and multiple conductive holes for conduction are provided on the intermediate shaft.

[0032] As a further improvement to the above solution, a filter chamber one is provided on one side of the packaging box, and an air inlet pipe is connected to one side of the filter chamber one. A filter chamber two is provided on one side of the packaging box, and an air outlet pipe is connected to one side of the filter chamber two. Filter material is provided in both filter chamber one and filter chamber two. The two ends of the intermediate shaft are located in filter chamber one and filter chamber two, respectively.

[0033] As a further improvement to the above solution, a plurality of stabilizing sleeves are fixedly connected to one side of the packaging box, a spring three is fixedly connected inside the stabilizing sleeve, and a moving rod fixedly connected to the other end of the spring three is fixedly connected to the stabilizing sleeve. A ball bearing that contacts the actuator tube is rolledly embedded at the top of the moving rod. A pressure control tube is connected to one side of the stabilizing sleeve, and a flow control valve is connected to the pressure control tube.

[0034] As a further improvement to the above solution, both the feeding mechanism and the discharging mechanism include:

[0035] A partition sleeve, in which a movable tube is slidably fitted in the middle, and an outer ring located inside the partition sleeve is fixedly connected to the outer wall of the movable tube.

[0036] The telescopic rod is fixedly connected to the encapsulation box, and its output end is fixedly connected to the outer ring.

[0037] An add tube is added, which mates with the moving tube and the outer ring, and a conductive sleeve is fixedly connected to one side of the add tube;

[0038] The top of the packaging box is provided with a circulation chamber. A raw material chamber is located inside the packaging box on one side of the circulation chamber. A processing chamber, a filtering chamber, and a discharge chamber are located inside the packaging box on one side of the raw material chamber. A feed pump is fixedly connected inside the circulation chamber. The input end of the feed pump is connected to a flexible hose connected to a moving pipe in the feeding mechanism. The input end of the feed pump is connected to a feed pipe located inside the raw material chamber. The feeding mechanism is fixedly connected to the wall of the raw material chamber. A high-temperature pipe extends into the processing chamber. An exchange pipe is fixedly connected to one side of the filtering chamber. The main body of the exchange pipe is located inside the raw material chamber, and the other end of the exchange pipe extends into the filtering chamber. A tail pipe connected to the discharge chamber is connected to one side of the filtering chamber.

[0039] The bottom of the packaging box is provided with a collection chamber, and the discharge mechanism is connected to the wall of the collection chamber.

[0040] As a further improvement to the above solution, the auxiliary mechanism includes an auxiliary cavity located inside the packaging box, a cooler connected to one side of the packaging box, and expansion sleeves connected to the four corners of the functional cavity.

[0041] As a further improvement to the above solution, the drive ring adopts a petal-shaped structure, the support ring adopts an irregular shape, and the outer wall of the support ring is fixedly connected with a gear-like tooth arc.

[0042] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0043] 1. Through the operation of multiple pipelines and actuators, reducing gases can be quickly and stably mixed and reacted with raw materials during production, making the reaction faster and more complete, improving the purity of the finished product, and reducing the use of raw materials.

[0044] 2. By using multiple devices, the entire device is kept in a relatively sealed state, reducing the emission of polluting gases. At the same time, energy can be recovered to a certain extent, reducing resource consumption and achieving green and environmentally friendly production. Attached Figure Description

[0045] Figure 1 This is a schematic front sectional view of the present invention;

[0046] Figure 2 This is a schematic diagram of the left cross-section of the present invention;

[0047] Figure 3 This is a partial front sectional view of the present invention;

[0048] Figure 4 for Figure 3 Enlarged structural diagram at point A;

[0049] Figure 5 This is a schematic diagram of the front sectional view of the emission control mechanism;

[0050] Figure 6 This is a schematic diagram of the main sectional view of the enclosure;

[0051] Figure 7 This is a partial left-side sectional view of the present invention;

[0052] Figure 8 This is a top view of the drive ring.

[0053] Explanation of key symbols:

[0054] 1. Packaging box; 2. Collection chamber; 3. Vent pipe; 4. High-temperature pipe; 5. Inlet pipe; 7. Feed pipe; 8. Functional chamber; 9. Discharge mechanism; 10. Collection chamber; 11. Divider plate; 12. Spring 1; 13. Limiting plate; 14. Motor; 15. Cooling chamber; 16. Gearbox; 17. Cooler; 18. Drive ring; 19. Drive column; 20. Intermediate shaft; 21. Filter chamber 2; 22. Processing chamber; 23. High-temperature pipe; 24. Outlet pipe 2; 25. Tailpipe; 26. Filter chamber; 27. Discharge chamber; 29. ​​Sliding pipe; 30. Exchange pipe; 31. Addition mechanism; 32. Hose; 33. Feed pump; 34. Circulation chamber 35. Rotating ring; 36. Support ring; 37. Actuating tube; 38. Collection chamber; 40. Transmission unit; 41. Conducting tube; 42. Combustion tube; 43. Emitting tube; 44. Emitting ring; 45. Emitting ring; 46. Connecting tube; 47. Rotating tube; 49. Embedded sleeve; 50. Limiting ring; 51. Moving tube; 52. Spring II; 53. Limiting sleeve; 54. Mounting tube; 55. Conducting hole; 56. Rotating sleeve; 57. Moving tube; 58. Outer ring; 59. Separating sleeve; 60. Adding tube; 61. Conducting sleeve; 62. Telescopic rod; 63. Stabilizing sleeve; 64. Spring III; 65. Moving rod; 66. Ball bearing; 67. Gear arc. Detailed Implementation

[0055] The present invention will now be further described in conjunction with the accompanying drawings and specific embodiments. It should be noted that, without conflict, the various embodiments or technical features described below can be arbitrarily combined to form new embodiments.

[0056] Example

[0057] Please combine Figures 1-8 ,

[0058] A gas distribution device for reducing titanium corrosion includes: a sealing box 1 with a power mechanism connected to one side, the sealing box 1 being sealed as necessary, and the power mechanism providing power support; a functional cavity 8 located inside the sealing box 1, with an emission mechanism inside, also located inside the sealing box 1, and an intermediate shaft 20 connected in the middle, the intermediate shaft 20 being drivenly connected to the power mechanism; the functional cavity 8 ensuring space for the emission mechanism to operate, the emission mechanism guiding and distributing the reducing gas; an auxiliary mechanism located inside the sealing box 1, performing auxiliary work; an adding mechanism 31 located inside the sealing box 1, connected to the auxiliary mechanism located inside the sealing box 1; an emission mechanism 9 located inside the sealing box 1, capable of discharging material, allowing the reduced raw material to be discharged; and a ventilation mechanism located inside the sealing box 1 for gas circulation.

[0059] The power mechanism includes: a cooling chamber 15, which is housed within the enclosure 1, and a motor 14 is fixedly connected inside it. The output end of the motor 14 is connected to a gearbox 16. The cooling chamber 15 is filled with coolant to cool the motor 14. A drive ring 18 is connected to the output end of the gearbox 16 and rotates under the drive of the gearbox 16. Multiple drive columns 19 are provided and spirally distributed and fixed on one side of the intermediate shaft 20. Driven by the drive ring 18, the drive columns 19 cause the intermediate shaft 20 to rotate and move to one side. One drive column 19 is missing, allowing the intermediate shaft 20 to return to its original position. A limiting plate 13 is fixedly connected to the cavity wall of the functional cavity 8. A spring 12 is connected to one side of the limiting plate 13, and a partition plate 11 that is rotatably connected to the intermediate shaft 20 is fixedly connected to the other end of the spring 12. The partition plate 11 is slidably connected to the cavity wall of the functional cavity 8. The limiting plate 13 provides limitation. At the same time, as the intermediate shaft 20 moves, it drives the partition plate 11 to move, further allowing the spring 12 to accumulate elastic potential energy. When it rotates one revolution, the intermediate shaft 20 moves instantaneously in another direction at a designated position.

[0060] The emission mechanism includes: a sliding tube 29, which is rotatably sleeved with the intermediate shaft 20 and slidably sleeved with the encapsulation box 1. The sliding tube 29 can slide, allowing the intermediate shaft 20 to slide and rotate relative to the encapsulation box 1; a vent pipe 3, which passes through the sliding tube 29 and has its other end connected to a dispersing pipe 42 located in the functional cavity 8. A combustion pipe 43 is connected to the outside of the dispersing pipe 42. The vent pipe 3 connects to external combustible gas and auxiliary gas, which then enter the combustion pipe 43 through the dispersing pipe 42 for electric combustion. The electric combustion device is an existing structure, thereby realizing the heating of raw materials and subsequent reactions; two support rings 36, one of which is rotatably sleeved with the intermediate shaft 20 and the other is fixedly connected to the sliding tube 29. The support rings 36 provide intermediate support, guide the movement trajectory, and ensure the periodic self-rotation of the actuator 37; and two sets of transmission units 40 are symmetrically arranged. Multiple transmission units 40 are configured, one set of which is fixedly connected to the intermediate shaft 20, and another set is fixedly connected to a rotating sleeve 56 that is rotatably connected to the sliding tube 29. The transmission unit 40 transmits torque and gas. The actuator 37 has a gear fixedly connected to its outer wall that meshes with the support ring 36. Both ends of the actuator 37 are connected to the two sets of transmission units 40 respectively. The actuator 37 is filled with raw materials and serves as the main reaction site. The connecting pipe 46 is connected to the transmission unit 40 and transmits the gas in the transmission unit 40. Multiple radiating rings 45 are configured, and a connecting pipe 44 is connected between two radiating rings 45. Multiple gas dissipation holes are provided on both the radiating rings 45 and the connecting pipe 44. One end of the connecting pipe 46 is connected to the radiating rings 45 located on both sides. The gas dissipation holes on the radiating rings 45 and the connecting pipe allow the gas to be released. At the same time, in conjunction with the movement of the actuator 37, the gas comes into contact with the raw materials to achieve better reaction.

[0061] The transmission unit 40 includes: a limiting sleeve 53, with a mounting tube 54 fixedly connected to its bottom. The mounting tube 54 is fixedly connected to the rotating sleeve 56 or the intermediate shaft 20. The limiting sleeve 53 provides limitation, and the mounting tube 54 provides connection and fixation. A second spring 52 has one end fixedly connected to the mounting tube 54 and the other end fixedly connected to a movable tube 51 that slides against the limiting sleeve 53. The second spring 52 can cause the movable tube 51 to return to its original position, thus stabilizing the rotating ring 35. The rotating ring 35 is fixedly connected to the movable tube 51, and one side of it is rotated via a ball joint. A rotating tube 47 is movably connected, and a limiting ring 50 that is slidably sleeved on the outer wall of the rotating tube 47 and rotatably connected to the actuator tube 37 is provided. With the supply of gas from the outside, the gas passes through the mounting box 54, the limiting sleeve 53, the moving tube 51, the sleeve rotating ring 35 and the rotating ring 47 into the insert sleeve 49, and then further passes through the connecting tube 46 into the actuator tube 37 for supply. The insert sleeve 49 is connected to one end of the connecting tube 46. The rotating sleeve 47, in conjunction with the limiting ring, can rotate relative to the sleeve rotating ring 35 and move relative to the actuator tube 37.

[0062] A partition ring is fixedly connected to the middle of the intermediate shaft 20, and a guide tube 41 is fixedly connected to the partition ring. A high-temperature tube 23 connected to the auxiliary mechanism is connected to one side of the partition plate 11. Multiple guide holes 55 for conduction are provided on the intermediate shaft 20.

[0063] A filter chamber 4 is provided on one side of the packaging box 1. An air inlet pipe 5 is connected to one side of the filter chamber 4. A filter chamber 21 is provided on one side of the packaging box 1. An air outlet pipe 24 is connected to one side of the filter chamber 2. Filter materials are provided in both filter chamber 4 and filter chamber 21. The two ends of the intermediate shaft 20 are located in filter chamber 4 and filter chamber 21, respectively. The reducing gas is connected to the filter chamber 4 through the air inlet pipe 5, and then filtered before entering the intermediate shaft 20. After the gas has reacted, it enters filter chamber 21 through the air outlet pipe 24 and is then filtered before being discharged.

[0064] Multiple stabilizing sleeves 63 are fixedly connected to one side of the packaging box 1. A spring 64 is fixedly connected inside the stabilizing sleeve 63, and a moving rod 65 fixedly connected to the other end of the spring 64 is fixedly connected to the stabilizing sleeve 63. A ball bearing 66 that contacts the actuator tube 37 is rolledly embedded at the top of the moving rod 65. A pressure control tube is connected to one side of the stabilizing sleeve 63, and a flow control valve is connected to the pressure control tube. The moving rod 65 is moved by the action of the spring 64, and the ball bearing 66 ensures support and relative movement at the same time.

[0065] Both the feeding mechanism 31 and the discharging mechanism 9 include: a partition sleeve 59, in which a movable tube 57 is slidably sleeved, and an outer ring 58 located inside the partition sleeve 59 is fixedly connected to the outer wall of the movable tube 57. The partition sleeve 59 separates the movable tube 57 and the outer ring 58 to ensure movement; a telescopic rod 62, which is fixedly connected to the packaging box 1, and whose output end is fixedly connected to the outer ring 58. The output end of the telescopic rod 62 drives the outer ring 58 to move; and an adding tube 60, which cooperates with the movable tube 57 and the outer ring 58, and whose side is fixed. A conductive sleeve 61 is fixedly connected to 37. The moving tube 57 and the outer ring 58 are respectively sleeved on the inner and outer rings of the adding tube 60 to achieve conductivity. The top of the packaging box 1 is provided with a circulation chamber 34. A raw material chamber 29 located inside the packaging box 1 is provided on one side of the circulation chamber 34. A processing chamber 22, a filtering chamber 26, and a discharge chamber 27 located inside the packaging box 1 are provided on one side of the raw material chamber 29. A feed pump 33 is fixedly connected inside the circulation chamber 34. The input end of the feed pump 33 is connected to the moving part of the feeding mechanism 31. The hose 32 connected to pipe 57 is connected to the inlet pipe 7 located in the raw material chamber 29 at the input end of the feed pump 33. The feed mechanism is fixedly connected to the wall of the raw material chamber 29. The high-temperature pipe 23 extends into the processing chamber 22. An exchange pipe 30 is fixedly connected to one side of the filter chamber 29. The main body of the exchange pipe 30 is located in the raw material chamber 29, and the other end of the exchange pipe 30 extends into the filter chamber 26. A tail pipe 25 connected to the discharge chamber 27 is connected to one side of the filter chamber 26. Through the operation of the feed pump 33, the internal raw material is processed... After passing through hose 32, the material is fed through moving pipe 57. At the same time, hot air passing through combustion pipe 43 enters processing chamber 22 through high temperature pipe 23 for preliminary treatment. Then, it enters raw material chamber 29 through exchange pipe 30 to heat the raw material and realize energy recovery. Finally, it is discharged after being treated by filter chamber 26 and discharge chamber 27. The bottom of the packaging box 1 is provided with a collection chamber 10 to collect the finished product for convenient subsequent work. The discharge mechanism 9 is connected to the cavity wall of the collection chamber.

[0066] The auxiliary mechanism includes an auxiliary cavity 2 located inside the packaging box 1. A cooler 17 is connected to one side of the packaging box 1. Expansion sleeves 38 are connected to the four corners of the functional cavity 8. The auxiliary cavity 2 contains selected devices as needed. The cooler 17 cools the coolant, which is an existing mechanism. The expansion sleeves 38 deform at high temperature and then discharge the internal gas, so that the air pressure in the functional cavity 8 is stable. The drive ring 18 adopts a petal-shaped structure, and the support ring 36 adopts an irregular shape. The outer wall of the support ring 36 is fixedly connected with a gear-like tooth arc 67.

[0067] Working principle: During operation, the telescopic rod 62 first moves the outer ring 58 and the moving pipe 57, allowing them to enter the inner and outer sides of the adding pipe 60, thus achieving connection. Then, through the exchange pipe 33, raw materials are drawn from the feed pump 29, passing through the top moving pipe 57 into the adding pipe 60, and further into the execution pipe 37. The bottom moving pipe 57 draws the finished product from the execution pipe 37 into the collection chamber 10 by gravity, achieving collection. Then, the collection chamber 62 is controlled to retract the outer ring 58 and the moving pipe 57, closing the valve and realizing feeding and discharging. At this time, the motor 14 operates to allow the material to fall through... This causes the drive ring 18 to periodically contact the drive column 19, thereby causing the entire intermediate shaft 20 to move to one side. After running for more than half a revolution, due to the missing drive column 19, the intermediate shaft 20, under the action of the spring 12 and the partition plate 11, instantly moves to the other side. Then, the drive column 19 contacts the drive ring 18 again, forming periodic movement and shaking. At the same time, with the rotation of the intermediate shaft 20, the mounting tube 54, which is fixedly connected to the intermediate shaft 20, rotates. Furthermore, through the drive of the limiting sleeve 53, the moving tube 51, the sleeve rotating ring 35, and the rotating tube 47, the actuator tube 37 rotates along with the intermediate shaft 20. When the discharge chamber 27 rotates relative to the support ring 36, the cooler 67 engages with the gear. Simultaneously, the actuator 37 rotates and self-rotates. Under the tension of the spring 52, the actuator 37 tends to move towards the support ring 36. Combined with the trajectory shape of the support rings 36 on both sides, this causes the two ends of the actuator 37 to swing relative to each other, thus disturbing the raw material within. Furthermore, during the tilting motion of the discharge chamber 27, its displacement undergoes a slight change, i.e., it shifts relative to the rotating tube 47, adapting to the complex motion of tilting and rotating, thereby causing the internal raw material to... The dispersing ring 44 and the support ring 36 move and disturb each other, realizing the relatively complex movement between the internal raw materials and pipes, ensuring rapid contact with a larger area of ​​raw materials. At the same time, through the external supply, the external gas passes through the air inlet pipe 5, high temperature pipe 4, intermediate shaft 20, guide hole 55, guide hole 54, moving pipe 51, moving pipe 35, moving pipe 47, and connecting pipe 46 to reach the dispersing ring 44 and dispersing ring 36. After passing through the other side of the dispersing ring 44 and dispersing ring 36, it passes through the connecting pipe 46 and is discharged from one end of the intermediate shaft 20 on the other side. After being processed by the filter chamber 21, it is discharged from the outlet pipe 24.

[0068] The above embodiments are merely preferred embodiments of the present invention and should not be construed as limiting the scope of protection of the present invention. Any non-substantial changes and substitutions made by those skilled in the art based on the present invention shall fall within the scope of protection claimed by the present invention.

Claims

1. A gas distribution apparatus for reducing titanium tarnish, characterized by, Include: The packaging box is connected with a power mechanism on one side; The functional cavity is arranged in the packaging box, and a discharge mechanism is arranged in the functional cavity, wherein an intermediate shaft is connected in the middle, and the intermediate shaft is in transmission connection with the power mechanism; The auxiliary mechanism is arranged in the packaging box; The adding mechanism is arranged in the packaging box, and is connected with the auxiliary mechanism in the packaging box; The discharge mechanism is arranged in the packaging box; The ventilation mechanism is arranged in the packaging box for gas circulation; The power mechanism comprises: The cooling cavity is arranged in the packaging box, and a motor is fixedly connected in the cooling cavity, and an output end of the motor is connected with a gearbox; The drive ring is connected to the output end of the gearbox; The drive column is provided in plurality, and is fixedly arranged on one side of the intermediate shaft in a spiral manner; The limiting plate is fixedly connected with the cavity wall of the functional cavity, one side of the limiting plate is connected with the spring one, and the other end of the spring one is fixedly connected with the partition plate in rotational connection with the intermediate shaft, and the partition plate is in sliding connection with the cavity wall of the functional cavity; The discharge mechanism comprises: The sliding pipe is rotatably sleeved with the intermediate shaft, and the sliding pipe is slidably sleeved with the packaging box; The ventilation pipe penetrates through the sliding pipe, and the other end of the ventilation pipe is communicated with the emission pipe in the functional cavity, and the outer side of the emission pipe is connected with the combustion pipe; The support ring is provided with two, one of which is rotatably sleeved with the intermediate shaft, and the other is fixedly connected with the sliding pipe; The transmission unit is provided with two groups in symmetry, one group of which is fixedly connected with the intermediate shaft, and the other group is fixedly connected with the rotating sleeve in rotational connection with the sliding pipe; The execution pipe is fixedly connected with the gear in meshing connection with the support ring on the outer wall, and two ends of the execution pipe are respectively connected with the two groups of transmission units; The communication pipe is connected with the transmission unit; The emission ring is provided with plurality, and the communication pipe is connected with the emission ring on both sides at one end; The transmission unit comprises: The limiting sleeve is fixedly connected with the mounting pipe at the bottom, and the mounting pipe is fixedly connected with the rotating sleeve or the intermediate shaft; The spring two is fixedly connected with the mounting pipe at one end, and the other end of the spring two is fixedly connected with the moving pipe in sliding sleeve connection with the limiting sleeve; The sleeve rotating ring is fixedly connected with the moving pipe, and the rotating pipe is rotatably connected with the sleeve rotating ring at one side through the ball hinge, and the rotating pipe is slidably sleeved with the limiting ring in rotational connection with the execution pipe on the outer wall; The inlay sleeve is connected with one end of the communication pipe; The drive ring adopts a petal-shaped structure, the support ring adopts an irregular shape, and the outer wall of the support ring is fixedly connected with the tooth arc in gear meshing connection. The intermediate shaft is fixedly connected with the partition ring in the middle, the partition ring is fixedly connected with the communication pipe, one side of the partition plate is connected with the high-temperature pipe connected with the auxiliary mechanism, and a plurality of communication holes are arranged on the intermediate shaft for communication. One side of the packaging box is provided with a filter cavity one, one side of the filter cavity one is connected with an air inlet pipe, one side of the packaging box is provided with a filter cavity two, one side of the filter cavity two is connected with an air outlet pipe, and filter materials are arranged in the filter cavity one and the filter cavity two.

2. A device for reducing titanium corrosion according to claim 1, wherein ​ 3. A device for reducing titanium corrosion according to claim 1, wherein ​ 4. The gas distribution device for reducing titanium corrosion as described in claim 1, characterized in that, The side of the packaging box is fixedly connected with multiple stabilizing sleeves, the stabilizing sleeves are fixedly connected with springs three, the other end of the springs three is fixedly connected with moving rods fixedly connected with the stabilizing sleeves, the top end of the moving rods is rolling embedded with rolling balls in contact with the executing pipes, one side of the stabilizing sleeves is connected with pressure control pipes, and the pressure control pipes are connected with flow control valves.

5. A device for reducing titanium corrosion according to claim 2, wherein The feeding mechanism and the discharging mechanism both comprise: A partition sleeve, a moving pipe is arranged in the partition sleeve, and an outer ring of the moving pipe is fixedly connected in the partition sleeve; A telescopic rod is fixedly connected to the packaging box, and an output end is fixedly connected with the outer ring; An adding pipe is matched with the moving pipe and the outer ring, and one side of the adding pipe is fixedly connected with a conducting sleeve fixedly connected with the executing pipe; The top of the packaging box is provided with a circulating cavity, one side of the circulating cavity is provided with a raw material cavity in the packaging box, one side of the raw material cavity is provided with a processing cavity, a filtering cavity and a discharge cavity in the packaging box, a feeding pump is fixedly connected in the circulating cavity, an input end of the feeding pump is connected with a hose connected with the moving pipe in the feeding mechanism, the input end of the feeding pump is connected with a feeding pipe in the raw material cavity, the feeding mechanism is fixedly connected with the cavity wall of the raw material cavity, the high-temperature pipe extends into the processing cavity, one side of the filtering cavity is fixedly connected with an exchange pipe, the main body of the exchange pipe is located in the raw material cavity, and the other end of the exchange pipe extends into the filtering cavity, one side of the filtering cavity is connected with a tail pipe of the discharge cavity; The bottom of the packaging box is provided with a collecting cavity, and the discharging mechanism is connected with the cavity wall of the collecting cavity.

6. A device for reducing titanium corrosion according to claim 1, wherein The auxiliary mechanism comprises an auxiliary cavity in the packaging box, one side of the packaging box is connected with a cooler, and the four corners of the functional cavity are connected with expansion sleeves.

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