An integrated mixing device for special gases that avoids agglomeration.

Abstract

This invention discloses an integrated mixing device for special gases that avoids agglomeration. A geared motor is installed at the bottom of the vessel, and a rotating shaft is mounted on the output shaft of the geared motor. A perforation is formed at the bottom of the vessel, through which the rotating shaft passes. A turntable is installed at the end of the rotating shaft away from the geared motor, and fan blades are circumferentially mounted on the sidewall of the turntable. A heater is installed inside the vessel, and a double-vortex assembly is provided within the vessel. When the operator needs to prepare a special mixed gas, a vacuum pump is started, sequentially drawing in multiple special gases in specific proportions through a first gas pipe. These gases are then transported into the vessel through a second gas pipe. At this time, the geared motor is started, causing it to drive the turntable to rotate via the rotating shaft. Through the combined action of the fan blades and the double-vortex assembly, rapid mixing and uniform heating of the special gases are achieved, thus preventing agglomeration of the special gases within the vessel.

Description

Technical Field

[0001] This invention relates to the field of gas proportioning and mixing technology, specifically to an integrated proportioning and mixing device for special gases that can avoid agglomeration. Background Technology

[0002] Industrial specialty gases, containing two or more effective components, are mixtures of two to more gases. Compared to pure industrial gases, specialty gases offer better performance and are widely used in metallurgy, steel, petroleum, chemical, machinery, electronics, glass, ceramics, building materials, construction, and food processing industries. Industrial specialty gases can be obtained from gas manufacturers and transported in cylinders. This method is suitable for applications with small quantities and fixed proportions. However, if the required flow rate is large and the gas proportions vary, on-site control and adjustment of the gas proportions, flow rate, and mixing are necessary. Gas proportioning, flow rate, and mixing are achieved through gas mixing and proportioning devices.

[0003] Existing integrated special gas mixing devices mostly introduce two or more special gases into the reactor according to a certain ratio, and form a special gas mixture through a stirring device inside the reactor. However, it is still necessary to manually add liquid catalyst raw materials. However, since the formation of special gas mixtures requires a certain temperature environment inside the reactor, if multiple special gases are not heated evenly, it is easy to cause unheated special gases to agglomerate. Summary of the Invention

[0004] The purpose of this invention is to provide an integrated mixing device for special gases that can avoid agglomeration, thereby solving the problems mentioned in the background art.

[0005] To solve the above-mentioned technical problems, the present invention provides the following technical solution: an integrated mixing device for special gases that avoids agglomeration, comprising a vessel body, a vacuum pump mounted on the vessel body, a first gas pipe and a second gas pipe mounted on the vacuum pump, a gas hole opened on the vessel body, the second gas pipe connected to the gas hole, a reduction motor mounted on the bottom of the vessel body, a rotating shaft mounted on the output shaft of the reduction motor, a through hole opened at the bottom of the vessel body, the rotating shaft passing through the through hole, and a turntable mounted on the end of the rotating shaft away from the reduction motor. The sidewall of the disc is equipped with fan blades along its circumference. A heater is installed inside the vessel, and a double vortex assembly is provided inside the vessel. The double vortex assembly is used to mix and heat the special gases. When the operator needs to prepare a special mixed gas, the pump is started, and a specific ratio of various special gases is sequentially drawn into the first gas pipe. The various special gases are then transported into the vessel through the second gas pipe. At this time, the geared motor is started, and the geared motor drives the turntable to rotate through the rotating shaft. Thus, under the combined action of the fan blades and the double vortex assembly, the special gases are rapidly mixed and uniformly heated, thereby preventing the special gases from agglomerating inside the vessel.

[0006] As a preferred technical solution, the dual vortex assembly includes a support rod, a lower rib plate, a connecting pipe, an upper rib plate, and a spiral plate;

[0007] A lower bone plate is mounted on the top of the turntable via a support rod. A connecting pipe is mounted on the lower bone plate, and an upper bone plate is mounted on the connecting pipe. A spiral plate is mounted on the outer wall of the connecting pipe. When the turntable rotates, the lower bone plate, the connecting pipe, and the upper bone plate can rotate synchronously via the support rod. At this time, the connecting pipe can drive the spiral plate to rotate synchronously, which facilitates the formation of a downward vortex through the spiral plate.

[0008] As a preferred technical solution, both the lower and upper bone plates are "U"-shaped tube plates. The turntable, lower bone plate, connecting pipe, and upper bone plate are on the same central axis. When the turntable drives the fan blades to rotate and form an upward vortex, the upward vortex can enter the connecting pipe through the lower bone plate, which is beneficial for the connecting pipe to form a suction force on the gas at the bottom. Thus, the special gas can be circulated under the cooperation of the upward and downward vortexes. At this time, the special gas can be mixed, and the special gas will be uniformly heated by the heater during the circulation process.

[0009] As a preferred technical solution, the vessel body is equipped with a primary gas pressure utilization component, a secondary gas pressure utilization component, and a vortex utilization component, wherein the dual vortex component provides the driving force for the operation of the primary gas pressure utilization component, the secondary gas pressure utilization component, and the vortex utilization component.

[0010] As a preferred technical solution, the pneumatic primary utilization component includes a movable base, an inner arc surface, a vertical rod, a sliding groove, a slider, a connecting spring, a connecting rod, a linkage block, and a sliding hole;

[0011] A movable seat is installed at the top inner part of the vessel body. The movable seat has an inner arc surface on the side near the upper bone plate, and a vertical rod is installed at the bottom of the movable seat. A sliding groove is opened on the inner wall of the connecting pipe, and a slider is slidably installed in the sliding groove. The slider is connected to the bottom of the sliding groove by a connecting spring. A linkage block is installed on the slider through a connecting rod. The linkage block has a frustum-shaped structure and a sliding hole. The vertical rod passes through the sliding hole and is in a sliding fit. When various special gases are introduced into the vessel body, the gas pressure inside the vessel body increases. The linkage block can move upward along the vertical rod as the gas pressure increases. During the upward movement of the linkage block, the slider in the sliding groove can be driven by the connecting rod to stretch the connecting spring. By using the compression of the movable seat after the linkage block moves upward and the increase in gas pressure, the movable seat can be moved upward, which is conducive to the formation of airflow channel and can guide the rising vortex in the connecting pipe, which is convenient for heating the special gases.

[0012] As a preferred technical solution, when the moving seat moves upward, the inner arc surface and the upper bone plate form an airflow channel, which in turn forms an annular gap with the heater, enabling rapid circulation of the special gas and facilitating uniform heating of the special gas by the heater.

[0013] As a preferred technical solution, the pneumatic secondary utilization component includes a connecting pipe, a first through hole, a tank, a second through hole, a piston, a storage tank, an input hole, a first one-way valve, and a conveying pipe;

[0014] A connecting pipe is installed on the top of the movable seat. A first through hole is opened on the top of the vessel body, and a tank body is installed on the top of the vessel body. A second through hole is opened on the bottom of the tank body. The connecting pipe passes through the first and second through holes. A piston is slidably installed inside the tank body and is connected to the connecting pipe. A storage tank is installed on the vessel body, and the storage tank stores liquid catalytic raw materials. An input hole is opened at the bottom of the tank body, and a first one-way valve is installed on the input hole. The output end of the storage tank is connected to the first one-way valve through a conveying pipe. When the movable seat moves upward, since the connecting pipe and the first and second through holes are in sliding fit, the movable seat can drive the piston to move upward inside the tank body through the connecting pipe. At this time, the piston can form a negative pressure during the upward movement inside the tank body, so that the tank body can quantitatively draw in the liquid catalytic raw materials in the storage tank through the conveying pipe. Furthermore, when the connecting pipe extends into the tank body, it is beneficial to open the hole to absorb the liquid catalytic raw materials in the tank body.

[0015] As a preferred technical solution, the eddy current utilization component includes a storage chamber, a connecting hole, a suction hole, an opening, a second one-way valve, an embedded hole, and an insert.

[0016] The bottom of the movable seat has an embedded hole, and the top of the linkage block is equipped with an embedded block. The movable seat has a storage chamber with a frustoconical structure. The top of the storage chamber has a connecting hole, which is connected to a connecting pipe. The connecting pipe has a suction hole. The storage chamber is connected to the inner arc surface through an opening. A second one-way valve is installed on the opening. When the linkage block contacts the movable seat, the embedded block on the linkage block can be inserted into the embedded hole. At this time, during the continuous circulation of airflow in the airflow channel, the Venturi principle causes the airflow channel to form a suction force on the storage chamber through the opening. This allows the storage chamber to absorb liquid catalytic raw materials through the opening on the connecting pipe. Furthermore, during the rotation of the connecting pipe, the movable seat can be driven to rotate synchronously through the linkage block, allowing the liquid catalytic raw materials in the storage chamber to continuously enter the opening under centrifugal force. This facilitates the mixing of the liquid catalytic raw materials with the circulating special gas and improves the mixing effect of the special gas mixture through the liquid catalytic raw materials.

[0017] Compared with the prior art, the beneficial effects achieved by the present invention are:

[0018] When staff need to prepare special mixed gases, they start the vacuum pump, which sequentially draws in a specific ratio of various special gases through the first gas pipe. The special gases are then transported into the reactor through the second gas pipe. At this time, the geared motor is started, which drives the turntable to rotate through the rotating shaft. With the cooperation of the fan blades and the double vortex assembly, the special gases are rapidly mixed and uniformly heated, thus preventing the special gases from agglomerating in the reactor.

[0019] When the turntable rotates, it drives the lower rib plate, connecting pipe, and upper rib plate to rotate synchronously via the support rod. At this time, the connecting pipe drives the spiral plate to rotate synchronously, which facilitates the formation of a downward vortex through the spiral plate. When the turntable drives the fan blades to rotate and form an upward vortex, the upward vortex can enter the connecting pipe through the lower rib plate, which helps the connecting pipe to form a suction force on the gas at the bottom. Thus, the special gas can be circulated under the cooperation of the upward vortex and the downward vortex. At this time, the special gas can be mixed, and the special gas will be uniformly heated by the heater during the circulation process.

[0020] When various special gases are introduced into the vessel, the gas pressure inside the vessel increases. As the gas pressure increases, the linkage block can move upward along the vertical rod. During the upward movement of the linkage block, the slider in the slide groove can be stretched and connected to the spring through the connecting rod. By using the compression of the moving seat after the linkage block moves upward and the increase in gas pressure, the moving seat can be moved upward, which is conducive to the formation of airflow channel and can guide the rising vortex in the connecting pipe, which is convenient for heating the special gases.

[0021] When the moving seat moves upward, since the connecting pipe and the first and second through holes are both slidingly fitted, the moving seat can drive the piston to move upward in the tank through the connecting pipe. At this time, the piston can form a negative pressure during the upward movement in the tank, so that the tank can quantitatively draw in the liquid catalytic raw material in the storage tank through the conveying pipe.

[0022] When the linkage block contacts the moving seat, the insert on the linkage block can be inserted into the hole. At this time, during the continuous circulation of air in the airflow channel, the Venturi principle causes the airflow channel to form a suction force on the storage chamber through the opening. This allows the storage chamber to absorb liquid catalytic raw materials through the opening on the connecting pipe. Furthermore, during the rotation of the connecting pipe, the moving seat can be driven to rotate synchronously through the linkage block, allowing the liquid catalytic raw materials in the storage chamber to continuously enter the opening under centrifugal force. This facilitates the mixing of the liquid catalytic raw materials with the circulating special gas and improves the mixing effect of the special mixed gas through the liquid catalytic raw materials. Attached Figure Description

[0023] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0024] Figure 1 This is a three-dimensional structural schematic diagram of the present invention;

[0025] Figure 2 This is a schematic diagram of the first cross-sectional structure of the present invention;

[0026] Figure 3 This is a schematic diagram of the second cross-sectional structure of the present invention;

[0027] Figure 4 This is a schematic diagram of the third cross-sectional structure of the present invention;

[0028] Figure 5 This is the pneumatic pressure primary utilization component of the present invention;

[0029] Figure 6 yes Figure 4 A magnified structural diagram at point a in the diagram;

[0030] Figure 7 yes Figure 4 A magnified structural diagram at point b in the diagram.

[0031] In the diagram: 1. Vessel body; 2. Air pump; 3. First air pipe; 4. Second air pipe; 5. Air vent; 6. Gear motor; 7. Rotating shaft; 8. Perforation; 9. Turntable; 10. Fan blade; 15. Heater;

[0032] 11. Dual vortex assembly; 1101. Support rod; 1102. Lower bone plate; 1103. Connecting pipe; 1104. Upper bone plate; 1105. Spiral plate;

[0033] 12. Pneumatic primary utilization component; 1201. Movable base; 1202. Inner arc surface; 1203. Vertical rod; 1204. Slide groove; 1205. Slider; 1206. Connecting spring; 1207. Connecting rod; 1208. Linkage block; 1209. Sliding hole;

[0034] 13. Secondary pneumatic utilization component; 1301. Connecting pipe; 1302. First through hole; 1303. Tank body; 1304. Second through hole; 1305. Piston; 1306. Storage tank; 1307. Input port; 1308. First check valve; 1309. Conveying pipe;

[0035] 14. Eddy current utilization component; 1401. Storage chamber; 1402. Connection hole; 1403. Suction hole; 1404. Opening; 1405. Second check valve; 1406. Embedded hole; 1407. Insert. Detailed Implementation

[0036] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0037] Example: Figures 1-7As shown, the present invention provides the following technical solution: an integrated mixing device for special gases that avoids agglomeration, comprising a vessel body 1, a vacuum pump 2 installed on the vessel body 1, a first gas pipe 3 and a second gas pipe 4 installed on the vacuum pump 2, a gas hole 5 opened on the vessel body 1, the second gas pipe 4 connected to the gas hole 5, a reduction motor 6 installed at the bottom of the vessel body 1, a rotating shaft 7 installed on the output shaft of the reduction motor 6, a through hole 8 opened at the bottom of the vessel body 1, the rotating shaft 7 passing through the through hole 8, and a turntable 9 installed at the end of the rotating shaft 7 away from the reduction motor 6, the side wall of the turntable 9... A fan blade 10 is installed circumferentially, and a heater 15 is installed inside the vessel body 1. A double vortex assembly 11 is provided inside the vessel body 1. The double vortex assembly 11 is used to mix and heat special gases. When the operator needs to prepare special mixed gases, the pump 2 is started, and a specific ratio of various special gases is sequentially drawn into the first gas pipe 3. The various special gases are then transported into the vessel body 1 through the second gas pipe 4. At this time, the geared motor 6 is started, and the geared motor 6 drives the turntable 9 to rotate through the rotating shaft 7. Thus, under the combined action of the fan blade 10 and the double vortex assembly 11, the special gases are rapidly mixed and uniformly heated, thereby preventing the special gases from agglomerating inside the vessel body 1.

[0038] like Figures 2-4 As shown, the dual vortex assembly 11 includes a support rod 1101, a lower bone plate 1102, a connecting pipe 1103, an upper bone plate 1104, and a spiral plate 1105.

[0039] A lower bone plate 1102 is mounted on the top of the turntable 9 via a support rod 1101. A connecting pipe 1103 is mounted on the lower bone plate 1102, and an upper bone plate 1104 is mounted on the connecting pipe 1103. A spiral plate 1105 is mounted on the outer wall of the connecting pipe 1103. When the turntable 9 rotates, the lower bone plate 1102, the connecting pipe 1103, and the upper bone plate 1104 can rotate synchronously via the support rod 1101. At this time, the connecting pipe 1103 can drive the spiral plate 1105 to rotate synchronously, which facilitates the formation of a downward vortex through the spiral plate 1105.

[0040] Both the lower bone plate 1102 and the upper bone plate 1104 are "U"-shaped tube plates. The turntable 9, the lower bone plate 1102, the connecting pipe 1103, and the upper bone plate 1104 are on the same central axis. When the turntable 9 drives the fan blade 10 to rotate and form an upward vortex, the upward vortex can enter the connecting pipe 1103 through the lower bone plate 1102. This is beneficial for the connecting pipe 1103 to form a suction force on the gas at the bottom. Thus, the special gas can be circulated under the cooperation of the upward vortex and the downward vortex. At this time, the special gas can be mixed, and the special gas will be uniformly heated by the heater 15 during the circulation process.

[0041] The vessel body 1 is equipped with a primary pressure utilization component 12, a secondary pressure utilization component 13, and a vortex utilization component 14. The dual vortex component 11 provides the driving force for the operation of the primary pressure utilization component 12, the secondary pressure utilization component 13, and the vortex utilization component 14.

[0042] like Figures 2-6 As shown, the pneumatic primary utilization component 12 includes a movable seat 1201, an inner arc surface 1202, a vertical rod 1203, a sliding groove 1204, a slider 1205, a connecting spring 1206, a connecting rod 1207, a linkage block 1208, and a sliding hole 1209.

[0043] A movable seat 1201 is installed on the inner top of the vessel body 1. An inner arc surface 1202 is formed on the side of the movable seat 1201 near the upper bone plate 1104, and a vertical rod 1203 is installed at the bottom of the movable seat 1201. A sliding groove 1204 is formed on the inner wall of the connecting pipe 1103. A slider 1205 is slidably installed in the sliding groove 1204. The slider 1205 is connected to the bottom of the sliding groove 1204 by a connecting spring 1206. A linkage block 1208 is installed on the slider 1205 via a connecting rod 1207. The linkage block 1208 has a frustum-shaped structure and a sliding hole 1209 is formed on it. The vertical rod 1... 203 penetrates the sliding hole 1209 and is in sliding fit. When various special gases are introduced into the vessel body 1, the gas pressure inside the vessel body 1 increases. The linkage block 1208 can move upward along the vertical rod 1203 as the gas pressure increases. During the upward movement, the linkage block 1208 can drive the slider 1205 in the sliding groove 1204 to stretch the connecting spring 1206 through the connecting rod 1207. By using the compression of the moving seat 1201 after the linkage block 1208 moves upward and the increase in gas pressure, the moving seat 1201 can be moved upward, which is conducive to the formation of the airflow channel and can guide the rising vortex in the connecting pipe 1103, which is convenient for heating the special gases.

[0044] When the movable seat 1201 moves upward, the inner arc surface 1202 and the upper bone plate 1104 form an airflow channel, which makes the airflow channel and the heater 15 form an annular gap, realizing the rapid circulation of special gas, and also facilitating the heater 15 to heat the special gas evenly.

[0045] like Figures 1-4 As shown, the pneumatic secondary utilization component 13 includes a connecting pipe 1301, a first through hole 1302, a tank 1303, a second through hole 1304, a piston 1305, a storage tank 1306, an input hole 1307, a first one-way valve 1308, and a conveying pipe 1309.

[0046] A connecting pipe 1301 is installed on the top of the movable base 1201. A first through hole 1302 is opened on the top of the vessel body 1, and a tank body 1303 is installed on the top of the vessel body 1. A second through hole 1304 is opened on the bottom of the tank body 1303. The connecting pipe 1301 passes through the first through hole 1302 and the second through hole 1304. A piston 1305 is slidably installed inside the tank body 1303. The piston 1305 is connected to the connecting pipe 1301. A storage tank 1306 is installed on the vessel body 1. The storage tank 1306 stores liquid catalytic raw materials. An inlet hole 1307 is opened at the bottom of the tank body 1303. A first one-way valve 1308 is installed on the input port 1307. The output end of the storage tank 1306 is connected to the first one-way valve 1308 through the feed pipe 1309. When the moving seat 1201 moves upward, since the connecting pipe 1301 and the first through hole 1302 and the second through hole 1304 are both in sliding fit, the moving seat 1201 can drive the piston 1305 to move upward in the tank body 1303 through the connecting pipe 1301. At this time, the piston 1305 can form a negative pressure during the upward movement in the tank body 1303, so that the tank body 1303 can quantitatively draw in the liquid catalytic raw material in the storage tank 1306 through the feed pipe 1309.

[0047] like Figures 4-5 and Figure 7 As shown, the eddy current utilization component 14 includes a storage chamber 1401, a connecting hole 1402, a suction hole 1403, an opening 1404, a second one-way valve 1405, an embedding hole 1406, and an insert 1407.

[0048] The bottom of the movable base 1201 has an insert hole 1406, and the top of the linkage block 1208 has an insert block 1407. The movable base 1201 has a storage cavity 1401, which is a frustoconical structure. The top of the storage cavity 1401 has a connecting hole 1402, which is connected to a connecting pipe 1301. The connecting pipe 1301 has a suction hole 1403. The storage cavity 1401 is connected to the inner arc surface 1202 through an opening 1404. A second one-way valve 1405 is installed on the opening 1404. When the linkage block 1208 contacts the movable base 1201, the insert block 1407 on the linkage block 1208 can pass through. As the airflow circulates continuously within the airflow channel, the Venturi principle causes the airflow channel to exert suction on the storage chamber 1401 through the opening 1404. This allows the storage chamber 1401 to absorb the liquid catalytic raw material through the opening 1404 on the connecting pipe 1301. Furthermore, during the rotation of the connecting pipe 1103, the moving seat 1201 can be driven to rotate synchronously through the linkage block 1208. This allows the liquid catalytic raw material in the storage chamber 1401 to continuously enter the opening 1404 under centrifugal force, facilitating the mixing of the liquid catalytic raw material with the circulating special gas and improving the mixing effect of the special mixed gas.

[0049] Working principle of the invention:

[0050] When staff need to prepare special mixed gases, they start the vacuum pump 2, which sequentially draws in a specific ratio of various special gases through the first gas pipe 3. The special gases are then transported into the reactor body 1 through the second gas pipe 4. At this time, the geared motor 6 is started, which drives the turntable 9 to rotate through the rotating shaft 7. With the cooperation of the fan blade 10 and the double vortex assembly 11, the special gases are rapidly mixed and uniformly heated, thus preventing the special gases from agglomerating in the reactor body 1.

[0051] When the turntable 9 rotates, it can drive the lower bone plate 1102, the connecting pipe 1103 and the upper bone plate 1104 to rotate synchronously through the support rod 1101. At this time, the connecting pipe 1103 can drive the spiral plate 1105 to rotate synchronously, which facilitates the formation of a downward vortex through the spiral plate 1105. When the turntable 9 drives the fan blade 10 to rotate and form an upward vortex, the upward vortex can enter the connecting pipe 1103 through the lower bone plate 1102, which is conducive to the connecting pipe 1103 forming a suction force on the gas at the bottom. Thus, the special gas can be circulated under the cooperation of the upward vortex and the downward vortex. At this time, the special gas can be mixed, and the special gas will be uniformly heated by the heater 15 during the circulation process.

[0052] When various special gases are introduced into the vessel body 1, the gas pressure inside the vessel body 1 increases. The linkage block 1208 can move upward along the vertical rod 1203 as the gas pressure increases. During the upward movement, the linkage block 1208 can drive the slider 1205 in the slide groove 1204 to stretch the connecting spring 1206 through the connecting rod 1207. By utilizing the compression of the moving seat 1201 after the linkage block 1208 moves upward and the increase in gas pressure, the moving seat 1201 can be moved upward, which is conducive to the formation of the airflow channel and can guide the rising vortex in the connecting pipe 1103, which is convenient for heating the special gases.

[0053] When the movable seat 1201 moves upward, since the connecting pipe 1301 and the first through hole 1302 and the second through hole 1304 are both in sliding fit, the movable seat 1201 can drive the piston 1305 to move upward in the tank 1303 through the connecting pipe 1301. At this time, the piston 1305 can form a negative pressure during the upward movement in the tank 1303, so that the tank 1303 can quantitatively draw in the liquid catalytic raw material in the storage tank 1306 through the conveying pipe 1309.

[0054] When the linkage block 1208 contacts the moving seat 1201, the insert 1407 on the linkage block 1208 can be inserted into the hole 1406. At this time, during the continuous circulation of air in the airflow channel, the Venturi principle causes the airflow channel to form a suction force on the storage chamber 1401 through the opening 1404, so that the storage chamber 1401 can absorb liquid catalytic raw materials through the opening 1404 on the connecting pipe 1301. During the rotation of the connecting pipe 1103, the moving seat 1201 can be driven to rotate synchronously through the linkage block 1208, so that the liquid catalytic raw materials in the storage chamber 1401 can continuously enter the opening 1404 under the centrifugal force, which facilitates the mixing of liquid catalytic raw materials with the circulating special gas, and improves the mixing effect of the special mixed gas through the liquid catalytic raw materials.

[0055] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

Claims

1. A special gas mixing and proportioning device that avoids agglomeration, characterized in that: This special gas mixing device, which avoids agglomeration, includes a vessel body (1), a vacuum pump (2) installed on the vessel body (1), a first gas pipe (3) and a second gas pipe (4) installed on the vacuum pump (2), a gas hole (5) opened on the vessel body (1), the second gas pipe (4) being connected to the gas hole (5), a reduction motor (6) installed at the bottom of the vessel body (1), a rotating shaft (7) installed on the output shaft of the reduction motor (6), a perforation (8) opened at the bottom of the vessel body (1), the rotating shaft (7) passing through the perforation (8), and a turntable (9) installed at the end of the rotating shaft (7) away from the reduction motor (6), fan blades (10) installed circumferentially on the side wall of the turntable (9), a heater (15) installed inside the vessel body (1), and a double vortex assembly (11) provided inside the vessel body (1), through which the mixing and heating of the special gas are realized; The dual vortex assembly (11) includes a support rod (1101), a lower bone plate (1102), a connecting pipe (1103), an upper bone plate (1104), and a spiral plate (1105). The top of the turntable (9) is fitted with a lower bone plate (1102) via a support rod (1101), a connecting pipe (1103) is fitted on the lower bone plate (1102), an upper bone plate (1104) is fitted on the connecting pipe (1103), and a spiral plate (1105) is fitted on the outer wall of the connecting pipe (1103). The vessel body (1) is provided with a primary pressure utilization component (12), a secondary pressure utilization component (13) and a vortex utilization component (14), wherein the dual vortex component (11) provides the driving force for the operation of the primary pressure utilization component (12), the secondary pressure utilization component (13) and the vortex utilization component (14); The pneumatic primary utilization component (12) includes a movable base (1201), an inner arc surface (1202), a vertical rod (1203), a sliding groove (1204), a slider (1205), a connecting spring (1206), a connecting rod (1207), a linkage block (1208), and a sliding hole (1209). A movable seat (1201) is installed on the inner top of the vessel body (1). The movable seat (1201) has an inner arc surface (1202) on the side near the upper bone plate (1104). A vertical rod (1203) is installed at the bottom of the movable seat (1201). A sliding groove (1204) is opened on the inner wall of the connecting pipe (1103). A slider (1205) is slidably installed in the sliding groove (1204). The slider (1205) is connected to the bottom of the sliding groove (1204) by a connecting spring (1206). A linkage block (1208) is installed on the slider (1205) through a connecting rod (1207). The linkage block (1208) has a frustum-shaped structure. A sliding hole (1209) is opened on the linkage block (1208). The vertical rod (1203) passes through the sliding hole (1209) and is in sliding fit. The secondary air pressure utilization component (13) includes a connecting pipe (1301), a first through hole (1302), a tank body (1303), a second through hole (1304), a piston (1305), a storage tank (1306), an input hole (1307), a first one-way valve (1308), and a material conveying pipe (1309). The connecting pipe (1301) is installed at the top of the moving seat (1201). The first through hole (1302) is opened at the top of the kettle body (1), and the tank body (1303) is installed at the top of the kettle body (1). The second through hole (1304) is opened at the bottom of the tank body (1303). The connecting pipe (1301) penetrates through the first through hole (1302) and the second through hole (1304). The piston (1305) is slidably installed in the tank body (1303), and the piston (1305) is connected to the connecting pipe (1301). The storage tank (1306) is installed on the kettle body (1). The liquid catalytic raw material is stored in the storage tank (1306). The input hole (1307) is opened at the lower part of the tank body (1303). The first one-way valve (1308) is installed on the input hole (1307). The output end of the storage tank (1306) is connected to the first one-way valve (1308) through the material conveying pipe (1309). The eddy current utilization component (14) includes a storage cavity (1401), a connecting hole (1402), a material suction hole (1403), an opening (1404), a second one-way valve (1405), an embedded hole (1406), and an embedded block (1407). The embedded hole (1406) is opened at the bottom of the moving seat (1201). The embedded block (1407) is installed at the top of the linkage block (1208). The storage cavity (1401) is arranged in the moving seat (1201). The storage cavity (I401) has a frustum-shaped structure. The connecting hole (1402) is opened at the top of the storage cavity (1401). The connecting hole (14) is connected to the connecting pipe (1301). The material suction hole (1403) is opened on the connecting pipe (1301). The storage cavity (1401) is connected to the inner arc surface (1202) through the opening (1404). The second one-way valve (1405) is installed on the opening (1404).

2. The integrated mixing device for special gases that avoids agglomeration as described in claim 1, characterized in that: Both the lower bone plate (1102) and the upper bone plate (1104) are "U"-shaped pipe plates. The turntable (9), the lower bone plate (1102), the connecting pipe (1103), and the upper bone plate (II04) are on the same central axis.

3. The integrated mixing device for special gases that avoids agglomeration as described in claim 1, characterized in that: When the moving seat (1201) moves upward, an air flow channel is formed between the inner arc surface (1202) and the upper bone plate (1104), realizing the rapid circulating flow of the special gas, and facilitating the heater (15) to uniformly heat the special gas.

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