Automatic gas supply system suitable for silicon-carbon negative electrode industry

Abstract

The invention discloses an automatic gas supply system suitable for the silicon-carbon negative electrode industry, the automatic gas supply system comprises a tower body, a first spraying pipe, a second spraying pipe and a rotational flow plate, a fixed seat is fixedly arranged on the tower body, a rotating shaft is rotatably arranged on the fixed seat, a cam is fixedly arranged on the rotating shaft, and a fixed plate is fixedly arranged on the rotational flow plate; an abutting part is fixedly arranged on the fixing plate, and the cam is in abutting fit with the abutting part; the constant-force spring is used for storing force for the rotation of the rotating shaft, and in the working process of the spray tower, the release part is used for switching the separation and insertion between the two bolts and the slots, so that the intermittent release of the constant-force spring is completed, and the intermittent rotation of the rotating shaft is realized, so that the rotation drives the cam to enable the rotational flow plate to move up and down, and the vibration effect is completed; the phenomenon of blockage caused by long-time use of the rotational flow plate is avoided, so that the gas spraying effect of the spraying tower in long-time use is ensured.

Description

Technical Field

[0001] This invention relates to the field of silane gas supply system technology, and more specifically to an automated gas supply system suitable for the silicon-carbon anode industry. Background Technology

[0002] With economic development and social progress, the demand for silicon-carbon anode materials is gradually increasing. As a result, the silicon-carbon anode material industry has also put forward higher requirements and standards for gas supply systems. Silane, as a key silicon-containing raw material in the preparation process of silicon-carbon anodes, directly affects the microstructure of silicon-carbon anodes in terms of the safety, stability and accuracy of its gas supply.

[0003] The automated gas supply system consists of silane feedstock modules (divided into tank trucks and Y-cylinders), tail gas tower, pressure stabilization and pressure reduction automatic control panel, PLC control system, automated media analysis, gas supply pipeline system, vacuum pump, etc. It realizes full-process automated control of silane gas supply, ensures the inherent safety of the gas supply process, and improves the stability of gas supply pressure and flow.

[0004] The tail gas tower is located at the terminal stage of tail gas emission, raw material venting, and leakage collection, precisely solving the problems of "toxic and harmful gas emission, spontaneous combustion and explosion, and dust pollution" in the silane gas supply system. In existing technologies, tail gas towers are generally equipped with swirl plates to control the uniform rise of tail gas. The tail gas tower removes silane from the tail gas by spraying alkaline solution (sodium hypochlorite), which will produce certain solid products, such as silicon dioxide, which easily adhere to the swirl plates and cause blockage. Over time, this can easily affect the treatment effect of the spray tower. Summary of the Invention

[0005] The purpose of this invention is to provide an automated gas supply system suitable for the silicon-carbon anode industry, so as to overcome the above-mentioned shortcomings of the prior art.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] An automated gas supply system suitable for the silicon-carbon anode industry includes a tower body, a first spray pipe, a second spray pipe, and a swirl plate. A fixed base is fixedly installed on the tower body, a rotating shaft is rotatably installed on the fixed base, and a cam is fixedly installed on the rotating shaft. A fixed plate is fixedly installed on the swirl plate, and an abutting part is fixedly installed on the fixed plate. The cam abuts and engages with the abutting part.

[0008] A constant force spring is provided between the rotating shaft and the fixed base;

[0009] A support rod is fixedly mounted on the fixed base, a fixed shell is fixedly mounted on the support rod, a lifting component is slidably mounted on the fixed shell, two pins are slidably mounted on the lifting component, and a slot is provided on the rotating shaft, with both pins engaging with the slot.

[0010] It also includes a release mechanism for intermittently switching the engagement of the two pins with the slot, so that the constant force spring is released intermittently.

[0011] Preferably, a second spring is provided between each of the two pins and the lifting member, and the two ends of the second spring are fixedly connected to the pin and the lifting member respectively;

[0012] Both of the aforementioned pins have bevels, and the two bevels are arranged in opposite directions.

[0013] Preferably, the release component includes a water tank fixedly mounted on the lifting component, a straight pipe fixedly mounted on the fixed shell, a resistance block slidably mounted on the lifting component, and a first resistance groove and a second resistance groove mounted on the straight pipe, both of which abut against the resistance block.

[0014] A third spring is provided between the resistance block and the lifting component, and the two ends of the third spring are fixedly connected to the resistance block and the lifting component, respectively.

[0015] Preferably, a fourth spring is provided between the lifting component and the straight tube, and the two ends of the fourth spring are fixedly connected to the lifting component and the straight tube, respectively.

[0016] Preferably, a sealing component is slidably disposed on the water storage tank, and a fixing rod is fixedly disposed on the tower body, the fixing rod abutting against the bottom of the sealing component;

[0017] A fifth spring is provided between the sealing component and the water storage tank, and the two ends of the fifth spring are fixedly connected to the sealing component and the water storage tank, respectively.

[0018] Preferably, a frustum is fixedly disposed on the fixed shell, and a rotating seat is rotatably disposed on the fixed shell. Multiple filling areas are slidably disposed on the rotating seat. A guide groove is disposed on the frustum, and a guide block is fixedly disposed on each of the filling areas. The multiple guide blocks are slidably disposed in the guide groove.

[0019] Preferably, the rotating seat is provided with a reciprocating groove, and a protrusion is fixedly provided on the fixed plate, the protrusion being disposed in the reciprocating groove.

[0020] Preferably, a handwheel is detachably mounted on the rotating shaft.

[0021] Preferably, a plurality of first springs are provided between the swirl plate and the tower body, and the two ends of the first springs are fixedly connected to the swirl plate and the tower body respectively.

[0022] Preferably, a screen is fixedly installed on the water storage tank.

[0023] In the above technical solution, the automated gas supply system for the silicon-carbon anode industry provided by the present invention has the following beneficial effects:

[0024] This invention uses a constant force spring to store energy for the rotation of the shaft. During the operation of the spray tower, the release mechanism switches between the two pins and slots to intermittently release the constant force spring, thereby achieving intermittent rotation of the shaft. This rotation drives the cam to move the swirl plate up and down, creating a vibration effect. This prevents the swirl plate from becoming clogged after prolonged use, thus ensuring the spraying effect on the gas during long-term use of the spray tower.

[0025] It should be understood that the foregoing general description and the following detailed description are exemplary and illustrative only, and are not intended to limit this disclosure.

[0026] This application provides an overview of various implementations or examples of the technology described in this disclosure, and is not a full disclosure of the entire scope or all features of the disclosed technology. Attached Figure Description

[0027] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in this invention. For those skilled in the art, other drawings can be obtained based on these drawings.

[0028] Figure 1 This is an overall front sectional view provided for an embodiment of the present invention;

[0029] Figure 2 This is a partial frontal sectional view provided for an embodiment of the present invention;

[0030] Figure 3 Provided for embodiments of the present invention Figure 2 Enlarged view of point A in the image;

[0031] Figure 4 This is a schematic diagram of the rotating shaft structure provided in an embodiment of the present invention;

[0032] Figure 5 This is a schematic diagram of the lifting component and water tank structure provided in an embodiment of the present invention;

[0033] Figure 6 This is a schematic diagram of the rotating seat structure provided in an embodiment of the present invention;

[0034] Figure 7 This is a schematic diagram of the swirl plate structure provided in an embodiment of the present invention;

[0035] Figure 8 This is a schematic diagram of a frustum structure provided in an embodiment of the present invention;

[0036] Figure 9 A silane gas supply pipeline diagram is provided for embodiments of the present invention.

[0037] Explanation of reference numerals in the attached figures:

[0038] 1. Tower body; 11. First spray pipe; 12. Second spray pipe; 13. Swirl plate; 14. First spring; 15. Fixing plate; 16. Protrusion; 17. Abutment part; 18. Fixing rod; 2. Fixing seat; 21. Support rod; 22. Fixing shell; 23. Frustum; 24. Guide groove; 3. Rotating shaft; 31. Slot; 32. Cam; 33. Constant force spring; 4. Lifting component; 41. Pin; 42. Second spring; 43. Inclined surface; 44. Resistance block; 45. Third spring; 5. Straight pipe; 51. First resistance groove; 52. Second resistance groove; 53. Fourth spring; 6. Rotating seat; 61. Packing area; 62. Guide block; 63. Reciprocating groove; 7. Handwheel; 8. Water storage tank; 81. Screen; 82. Sealing component; 83. Fifth spring. Detailed Implementation

[0039] To make the objectives, technical solutions, and advantages of the embodiments of this disclosure clearer, the technical solutions of the embodiments of this disclosure will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this disclosure. All other embodiments obtained by those skilled in the art based on the described embodiments of this disclosure without creative effort are within the scope of protection of this disclosure.

[0040] Please refer to 1-8. An automated gas supply system suitable for the silicon-carbon anode industry includes a tower body 1, a first spray pipe 11, a second spray pipe 12, and a swirl plate 13. A fixed base 2 is fixedly mounted on the tower body 1, and a rotating shaft 3 is rotatably mounted on the fixed base 2. A cam 32 is fixedly mounted on the rotating shaft 3. A fixed plate 15 is fixedly mounted on the swirl plate 13, and an abutment part 17 is fixedly mounted on the fixed plate 15. The cam 32 abuts against the abutment part 17. A constant force spring 33 is provided between the rotating shaft 3 and the fixed base 2. A support rod 21 is fixedly mounted on the fixed base 2, and a fixed shell 22 is fixedly mounted on the support rod 21. A lifting component 4 is slidably mounted on the fixed shell 22, and two pins 41 are slidably mounted on the lifting component 4. The rotating shaft 3 is provided with a slot 31, and two pins 41 are inserted into the slot 31. It also includes a release component, which is used to intermittently switch the insertion of the two pins 41 into the slot 31 so that the constant force spring 33 is intermittently released. Through the storage and release of the constant force spring 33, the rotating shaft 3 is driven to rotate. Through the abutment action of the cam 32 and the abutment part 17, the fixed plate 15 carries the swirl plate 13 to move intermittently, so as to avoid the accumulation of solid products on the swirl plate 13, which would reduce the effect of the swirl plate 13 and affect the treatment effect of the spray tower on the waste gas. The constant force spring 33 can generate a nearly constant force or torque when it is released, which ensures the stability of the rotating shaft 3 when the constant force spring 33 is released intermittently multiple times.

[0041] A second spring 42 is provided between each of the two pins 41 and the lifting member 4. The two ends of the second spring 42 are fixedly connected to the pins 41 and the lifting member 4, respectively. Each of the two pins 41 is provided with an inclined surface 43, and the two inclined surfaces 43 are arranged in opposite directions. When the lifting member 4 moves downward, the lower pin 41 disengages from the slot 31 of the rotating shaft 3, and the upper pin 41 abuts against the rotating shaft 3, causing the second spring 42 to stretch. After the rotating shaft 3 rotates 180°, under the action of the second spring 42, the upper pin 41 engages with the slot 31, thus restricting the rotation of the rotating shaft 3 and achieving intermittent release of the rotating shaft 3. Furthermore, the upper cam 32 of the rotating shaft 3 is provided with two abutment positions, so that the rotating shaft 3 can abut against the fixed plate 15 every 180° rotation, thereby realizing the downward movement of the vortex plate 13. In addition, by providing inclined surfaces 43 on the two pins 41 and setting them in opposite directions, when the rotating shaft 3 rotates to store force for the constant force spring 33, the insertion of the pins 41 into the slots 31 will not restrict the rotation of the rotating shaft 3. The two pins 41 only restrict the release rotation direction of the constant force spring 33. In this way, it is convenient to store force for the constant force spring 33 and can also effectively control the intermittent release of the constant force spring 33.

[0042] Specifically, the release mechanism includes a water tank 8 fixedly mounted on the lifting member 4, a straight pipe 5 fixedly mounted on the fixed shell 22, a resistance block 44 slidably mounted on the lifting member 4, a first resistance groove 51 and a second resistance groove 52 mounted on the straight pipe 5, both of which abut against the resistance block 44; a third spring 45 is mounted between the resistance block 44 and the lifting member 4, with both ends of the third spring 45 fixedly connected to the resistance block 44 and the lifting member 4 respectively; and a fourth spring 53 is mounted between the lifting member 4 and the straight pipe 5, with both ends of the fourth spring 53 fixedly connected to the lifting member 4 and the straight pipe 5 respectively. When the resistance block 44 is located in the first resistance groove 51, the water tank 8 slowly fills with water. After the water reaches a certain weight, the resistance block 44 disengages from the first resistance groove 51, and the third spring 45 is compressed, causing the water tank 8 to move downwards along with the lifting component 4. During the downward movement, the fourth spring 53 is also compressed. When the lifting component 4 moves downwards along with the two pins 41, the lower pin 41 disengages from the slot 31, and the upper pin 41 abuts against the rotating shaft 3. The second spring 42 is also stretched. At this time, the rotating shaft 3 rotates 180° under the action of the constant force spring 33 and abuts against the abutment part 17 through the cam 32. The fixed plate 15, along with the swirl plate 13, moves downwards. It should be noted that before and after the rotating shaft 3 rotates 180°, the cam 32 does not contact the abutment part 17, and there is a certain gap between them. After the rotating shaft 3 rotates 180°, the slot 31 on the rotating shaft 3 rotates to the position corresponding to the upper pin 41. At this time, under the action of the second spring 42, the upper pin 41 engages with the slot 31, thus restricting the rotating shaft 3. After the water tank 8 moves downwards, it will slowly release water. After the water has released to a certain extent, under the action of the fourth spring 53, it overcomes the third spring... A force of 45 causes the resistance block 44 to disengage from the second resistance groove 52, and the water tank 8 and the lifting component 4 move upward and reset. During the upward reset process, the upper pin 41 disengages from the slot 31, and the lower pin 41 abuts against the rotating shaft 3, causing the corresponding second spring 42 to stretch. Under the release of the constant force spring 33, the rotating shaft 3 rotates 180°, and through the cam 32, the fixed plate 15 moves downward with the swirl plate 13. After the rotation is completed, under the action of the second spring 42, the lower pin 41 engages with the slot 31, restricting the rotation of the rotating shaft 3, thereby causing the rotating shaft 3 to rotate intermittently.

[0043] In a further embodiment of the present invention, a sealing member 82 is slidably disposed on the water storage tank 8, and a fixing rod 18 is fixedly disposed on the tower body 1. The fixing rod 18 abuts against the bottom of the sealing member 82. A fifth spring 83 is disposed between the sealing member 82 and the water storage tank 8. The two ends of the fifth spring 83 are fixedly connected to the sealing member 82 and the water storage tank 8, respectively. After the water storage tank 8 moves down, the bottom of the sealing member 82 abuts against the fixing rod 18, causing the fifth spring 83 to compress. The sealing member 82 slides relative to the water storage tank 8, releasing the seal on the water outlet of the water storage tank 8, allowing the water storage tank 8 to slowly release water. After the weight of the water storage tank 8 is reduced to a certain extent, the water storage tank 8 and the lifting member 4 are reset under the action of the fourth spring 53.

[0044] Furthermore, a frustum 23 is fixedly mounted on the fixed shell 22, and a rotating seat 6 is rotatably mounted on the fixed shell 22. Multiple filling zones 61 are slidably mounted on the rotating seat 6. A guide groove 24 is provided on the frustum 23, and a guide block 62 is fixedly mounted on each filling zone 61. Multiple guide blocks 62 are slidably mounted within the guide groove 24. A reciprocating groove 63 is provided on the rotating seat 6, and a protrusion 16 is fixedly mounted on the fixed plate 15. The protrusion 16 is positioned within the reciprocating groove 63. When the fixed plate 15 moves downward, the engagement of the protrusion 16 with the reciprocating groove 63 causes the rotating seat 6 to carry multiple filling zones 61. The packing area 61 rotates to ensure that the packing material is used evenly and fully, thereby improving the packing material's performance. Furthermore, during the rotation of the packing area 61, the cooperation between the guide block 62 and the guide groove 24 allows not only the rotation of each packing area 61 but also different height adjustments. This process can cause the packing material placed on the packing area 61 to vibrate to a certain extent, further enhancing the full utilization of the packing material. Moreover, the packing material on the packing area 61 is spherical packing, which increases the contact area between the gas and the liquid, thereby improving the reaction effect between the liquid and the gas.

[0045] Furthermore, a handwheel 7 is detachably mounted on the rotating shaft 3. After the constant force spring 33 has been used for a long time and has been fully released, the rotating shaft 3 can be rotated in the opposite direction by the handwheel 7 to store the constant force spring 33. After storing the force, the handwheel 7 can be removed to avoid putting a burden on the rotation of the rotating shaft 3.

[0046] In a further embodiment of the present invention, a plurality of first springs 14 are provided between the swirl plate 13 and the tower body 1. The two ends of the first springs 14 are fixedly connected to the swirl plate 13 and the tower body 1, respectively. When the swirl plate 13 moves downward under the action of the cam 32 and the fixed plate 15, it compresses the first springs 14. After the cam 32 is separated from the fixed plate 15, it is reset under the action of the first springs 14, thereby realizing the up-and-down reciprocating movement of the swirl plate 13, i.e., the shaking effect, to avoid the solid products generated by the gas-liquid reaction from accumulating on the swirl plate 13.

[0047] A screen 81 is fixedly installed on the water storage tank 8. By setting a conical screen 81 above the water storage tank 8, the solid products produced by the reaction are prevented from falling into the water storage tank 8.

[0048] Refer to the attached diagram in the instruction manual. Figure 9 :

[0049] Gas supply: The system adopts a dual-path parallel system of "tank truck (main gas supply group) + Y cylinder parallel (backup gas supply group)" and switches the gas source through the electromagnetic switching valve on the control panel to ensure continuous gas supply.

[0050] Pressure regulation: The gas pressure and flow rate are stabilized by step-by-step pressure reduction through a primary pressure reducing valve and a secondary pressure reducing valve, combined with closed-loop control of a flow controller, pressure sensor and central control module.

[0051] Safety assurance: Through steps such as nitrogen purging, vacuuming, pressure testing, and media analysis, we ensure that the pipeline is leak-free and the media is qualified.

[0052] After connecting the two gas supply groups, perform the pipeline replacement operation according to the standard replacement procedure (introduce high-pressure nitrogen - discharge, repeat the operation 20 times, then perform vacuuming, hold at -0.1MPa for 5 minutes). After replacement, pressure test the pipeline for leaks by introducing 15MPa high-pressure nitrogen and observing the pressure sensor readings. If a pressure drop occurs, check for leaks and reconnect the gas supply group. After the pressure test is passed, open the analysis valve to analyze the gas source medium. Gas supply can only be carried out after the analysis is qualified. Adjust the first-stage pressure reducing valve (input pressure 0.5-15MPa, output pressure 2MPa) and the second-stage pressure reducing valve (input pressure 0.5-15MPa, output pressure 0.8MPa). All components are connected through stainless steel pipes.

[0053] The gas supply pipeline uses stainless steel pipes with high cleanliness and smoothness as the delivery pipeline. It also adopts the sleeve technology and vacuum technology in the middle for effective heat preservation. The end of the pipeline is connected to an electromagnetic terminal valve and connected to a silicon carbide negative electrode roasting furnace.

[0054] When the pressure of the pressure transmitter corresponding to the tank truck drops to a preset threshold (1MPa), the central control module can control the electromagnetic switching valve to automatically switch to the standby gas supply group.

[0055] The spray tower is used to purify and discharge the silane tail gas generated during system venting and replacement operations. The spray tower outlet is connected to a demister and an activated carbon adsorption system to further demister and purify the gas after it has been purified by the spray tower before it is discharged.

[0056] Working principle: During the exhaust gas treatment process, the first spray pipe 11 and the second spray pipe 12 spray alkaline solution, which reacts with the upward-flowing gas. During this process, a portion of the sprayed liquid falls into the water tank 8. After a certain amount of liquid accumulates in the water tank 8, the increased gravity causes the lifting component 4 to move downwards. During this downward movement, the resistance block 44 on the lifting component 4 disengages from the first resistance groove 51 and moves to abut against the second resistance groove 52, providing resistance for the repositioning of the lifting component 4. As the lifting component 4 moves downwards with two pins 41, the lower pin 41 disengages from the slot 31 on the rotating shaft 3. After disengagement, the rotating shaft 3... The constant force spring 33 rotates. During the rotation of the shaft 3, the fixed plate 15 and the swirl plate 13 move down through the contact between the cam 32 and the contact part 17. During the downward movement of the fixed plate 15, the rotating seat 6 rotates with multiple filling areas 61 under the action of the pressing cooperation between the protrusion 16 on the fixed plate 15 and the reciprocating groove 63. During the rotation, the filling areas 61 complete the up-and-down sliding effect under the cooperation of the guide block 62 and the guide groove 24. During this process, the shaft 3 rotates 180 degrees, and when it rotates to 180 degrees, the slot 31 on the shaft 3 is inserted into the upper pin 41.

[0057] After the water tank 8 moves down, the bottom of the sealing member 82 abuts against the fixing rod 18, causing the fifth spring 83 to compress. The sealing member 82 loses its seal on the bottom of the water tank 8, thereby draining the liquid in the water tank 8. During the draining process, under the resistance generated by the contact between the resistance block 44 and the second resistance groove 52, the water tank 8 will only reset under the action of the fourth spring 53 after its weight is reduced to a certain extent. During the reset process, the lifting member 4 moves up, and the upper pin 41 will disengage from the slot 31 on the rotating shaft 3, causing the rotating shaft 3 to rotate 180° again under the action of the constant force spring 33. The rotation direction of the rotating shaft 3 and the resulting technical effect are the same as when the water tank 8 moves down.

[0058] The foregoing has only described certain exemplary embodiments of the present invention by way of illustration. Undoubtedly, those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the foregoing drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. An automated gas supply system suitable for the silicon-carbon anode industry, comprising a tower body (1), a first spray pipe (11), a second spray pipe (12), and a swirl plate (13), characterized in that, A fixed seat (2) is fixedly installed on the tower body (1), a rotating shaft (3) is rotatably installed on the fixed seat (2), a cam (32) is fixedly installed on the rotating shaft (3), a fixed plate (15) is fixedly installed on the swirl plate (13), and an abutting part (17) is fixedly installed on the fixed plate (15). The cam (32) abuts and cooperates with the abutting part (17). A constant force spring (33) is provided between the rotating shaft (3) and the fixed seat (2). A support rod (21) is fixedly installed on the fixed base (2), a fixed shell (22) is fixedly installed on the support rod (21), a lifting component (4) is slidably installed on the fixed shell (22), two pins (41) are slidably installed on the lifting component (4), and a slot (31) is provided on the rotating shaft (3). Both pins (41) are inserted into the slot (31). It also includes a release mechanism for intermittently switching the engagement of the two pins (41) with the slot (31) so that the constant force spring (33) is intermittently released.

2. An automated gas supply system for the silicon-carbon anode industry according to claim 1, characterized in that, A second spring (42) is provided between each of the two pins (41) and the lifting member (4), and the two ends of the second spring (42) are fixedly connected to the pins (41) and the lifting member (4) respectively; Both of the aforementioned pins (41) are provided with inclined surfaces (43), and the two inclined surfaces (43) are arranged in opposite directions.

3. An automated gas supply system suitable for the silicon-carbon anode industry according to claim 1, characterized in that, The release component includes a water tank (8) fixedly mounted on the lifting component (4), a straight pipe (5) fixedly mounted on the fixed shell (22), a resistance block (44) slidably mounted on the lifting component (4), and a first resistance groove (51) and a second resistance groove (52) mounted on the straight pipe (5). The first resistance groove (51) and the second resistance groove (52) are both in contact with the resistance block (44). A third spring (45) is provided between the resistance block (44) and the lifting component (4), and the two ends of the third spring (45) are fixedly connected to the resistance block (44) and the lifting component (4) respectively.

4. An automated gas supply system suitable for the silicon-carbon anode industry according to claim 3, characterized in that, A fourth spring (53) is provided between the lifting component (4) and the straight tube (5), and the two ends of the fourth spring (53) are fixedly connected to the lifting component (4) and the straight tube (5) respectively.

5. An automated gas supply system suitable for the silicon-carbon anode industry according to claim 3, characterized in that, A sealing component (82) is slidably installed on the water storage tank (8), and a fixing rod (18) is fixedly installed on the tower body (1). The fixing rod (18) abuts against the bottom of the sealing component (82). A fifth spring (83) is provided between the sealing component (82) and the water storage tank (8), and the two ends of the fifth spring (83) are fixedly connected to the sealing component (82) and the water storage tank (8) respectively.

6. An automated gas supply system for the silicon-carbon anode industry according to claim 1, characterized in that, A frustum (23) is fixedly provided on the fixed shell (22), and a rotating seat (6) is rotatably provided on the fixed shell (22). Multiple filling areas (61) are slidably provided on the rotating seat (6). A guide groove (24) is provided on the frustum (23). A guide block (62) is fixedly provided on each of the filling areas (61), and multiple guide blocks (62) are slidably provided in the guide groove (24).

7. An automated gas supply system for the silicon-carbon anode industry according to claim 6, characterized in that, The rotating seat (6) is provided with a reciprocating groove (63), and the fixed plate (15) is fixedly provided with a protrusion (16), which is located in the reciprocating groove (63).

8. An automated gas supply system for the silicon-carbon anode industry according to claim 1, characterized in that, A handwheel (7) is detachably mounted on the rotating shaft (3).

9. An automated gas supply system for the silicon-carbon anode industry according to claim 1, characterized in that, A plurality of first springs (14) are provided between the swirl plate (13) and the tower body (1), and the two ends of the first springs (14) are fixedly connected to the swirl plate (13) and the tower body (1) respectively.

10. An automated gas supply system for the silicon-carbon anode industry according to claim 8, characterized in that, A screen (81) is fixedly installed on the water storage tank (8).

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