Textile equipment oil-gas separation device

Abstract

The invention relates to the technical field of textile equipment, and discloses a textile equipment oil-gas separation device which comprises a box body filled with water, and further comprises a circulating cooling assembly arranged on the box body, communicated with the interior of the box body and used for continuously cooling water in the box body; one end of the air inlet assembly is arranged on the outer side of the box body, the other end of the air inlet assembly penetrates through and extends to the inner side of the box body, and air in the air inlet assembly can be cooled through the circulating cooling assembly and water in the box body; and the first air chamber is arranged on the inner side of the box body, communicates with the air inlet assembly and is used for reducing the flow rate of the air output by the air inlet assembly so as to preliminarily separate the oil droplets. The oil-gas separation device of the textile equipment aims at improving the capturing efficiency of oil droplets and avoiding generation of condensed water, so that the textile equipment is ensured to obtain high-quality and oil-free compressed air supply.

Description

Technical Field

[0001] The invention relates to the technical field of textile equipment, in particular to an oil-gas separation device for textile equipment. Background Art

[0002] In textile equipment, oil and gas separation of the gas output by the compressor is a crucial link. Textile equipment, especially air-jet looms, have strict requirements on the quality of compressed air. Air-jet looms require constant compressed air pressure during weft insertion, and the moisture, oil content and cleanliness in the compressed air must be controlled within a certain range to ensure the quality of the fabric. During the operation of the compressor, oil and gas will mix together. If this mixed gas is directly supplied to the textile equipment, the oil may adhere to the yarn and affect the quality of the fabric.

[0003] In the current oil-gas separation technology, the steam is usually separated by cooling to achieve gas drying and cooling. However, this method has a defect, that is, the oil droplets in the gas cannot be effectively separated. During the cooling process, although the steam can be condensed and dried to a certain extent, the oil droplets are often difficult to be completely captured due to their small size and high viscosity. These tiny oil droplets will be blown toward the textile equipment along with the gas, affecting its overall quality. Summary of the invention

[0004] The purpose of the present invention is to improve the capture efficiency of oil droplets while avoiding the generation of condensed water, thereby ensuring that textile equipment obtains high-quality, oil-free compressed air supply, and proposes an oil-gas separation device for textile equipment.

[0005] The technical solution of the present invention to solve the above technical problems is as follows:

[0006] An oil-gas separation device for textile equipment comprises a box body, wherein water is added in the box body, and further comprises:

[0007] A circulating cooling component is disposed on the box body and is interconnected with the interior of the box body, and is used to continuously cool the water inside the box body;

[0008] An air intake assembly, one end of which is arranged outside the box, and the other end of which penetrates and extends to the inside of the box, wherein the gas in the air intake assembly can be cooled by circulating water in the cooling assembly and the box;

[0009] The first air chamber is disposed inside the box body and is interconnected with the air intake assembly, and is used to reduce the flow rate of the gas output by the air intake assembly to preliminarily separate the oil droplets;

[0010] The second air chamber is arranged inside the box body and is connected to the first air chamber through a first connecting pipe, and is used to condense water vapor in the gas output by the air intake assembly, and to capture oil and dust to achieve gas cleaning and oil droplet separation;

[0011] The separation tank is arranged inside the box body and between the first air chamber and the second air chamber, wherein the second air chamber and the separation tank are connected to each other through a second connecting pipe, which is used to further remove water droplets and oil droplets in the gas to ensure that the output gas is dry and clean;

[0012] The gas outlet pipe has one end disposed on the separation tank and communicated with the separation tank, and the other end penetrates and extends to the outside of the box body, and is used to output the purified gas.

[0013] Based on the above technical solution, the present invention can also be improved as follows.

[0014] Furthermore, the circulating cooling component includes:

[0015] A cooling box is fixedly mounted on the outside of the box body and is in communication with the inside of the box body, wherein water inside the box body can flow into the cooling box;

[0016] The semiconductor cooling sheet is arranged on the surface of the cooling box, and the cooling end thereof faces one side of the cooling box;

[0017] A liquid extraction pump is fixedly mounted on the surface of the cooling box, the suction end of which is connected to a liquid extraction pipe, and the other end of the liquid extraction pipe penetrates and extends to the inner side of the box body; and

[0018] The liquid outlet pipe is fixedly installed on the output end of the liquid pump and is communicated with the output end of the liquid pump.

[0019] Furthermore, a plurality of cooling fins are fixedly mounted on a surface of one side of the cooling box close to the semiconductor cooling sheet, and no less than three brackets are fixedly mounted on the outer side of the cooling box, wherein each bracket is provided with a cooling fan, and an air outlet end of the cooling fan faces the heat release end of the semiconductor cooling sheet.

[0020] Furthermore, the air intake assembly includes:

[0021] An air intake pipe, one end of which is located outside the box and the other end of which penetrates and extends to the inside of the box, wherein the end of the air intake pipe located inside the box is also connected to a driving air chamber, and the driving air chamber is fixedly mounted on the inner wall of the box; and

[0022] The third connecting pipe has one end connected to the driving air chamber, and the other end penetrates and extends into the first air chamber, wherein the end of the third connecting pipe away from the driving air chamber is arranged at a lower outer side of the first air chamber.

[0023] Furthermore, a plurality of partition plates arranged in an inverted V shape are evenly arranged along the horizontal direction on the inner side of the first air chamber, wherein a plurality of partition plates are arranged in a plurality of layers along the vertical direction, and the partition plates between adjacent layers are arranged in a staggered manner. A first sewage outlet is also provided at the bottom of the first air chamber, the first sewage outlet having one end penetrating through and extending to the outside of the box body.

[0024] Furthermore, a plurality of mesh plates are fixedly installed on the inner side of the second air chamber, and the plurality of mesh plates are provided with a plurality of layers along the vertical direction, and the distance between two adjacent mesh plates is equal, wherein a plurality of small air holes arranged at equal intervals are provided on the surface of the mesh plates, and a second sewage outlet is also provided at one end of the bottom of the second air chamber, which passes through and extends to the outside of the box body.

[0025] Furthermore, the separation tank comprises:

[0026] The tank body is fixedly installed inside the box body and is located between the first air chamber and the second air chamber;

[0027] A rotating shaft, one end of which is rotatably connected to the inner side of the tank body, and the other end of which penetrates the tank body and extends to the inner side of the driving air chamber;

[0028] The net cylinder is arranged outside the rotating shaft, wherein one end of the second connecting pipe away from the second air chamber penetrates and extends to the inner side of the net cylinder;

[0029] The blades are fixedly mounted on the outer side of the rotating shaft and located on the inner side of the net cylinder; and

[0030] The driving assembly is arranged at the end of the rotating shaft and located inside the driving air chamber, wherein the rotating shaft is driven to rotate axially in the tank body through the driving assembly.

[0031] Furthermore, the driving assembly includes:

[0032] A first gear, fixedly mounted on the end of the rotating shaft and located in the driving air chamber;

[0033] A round rod is rotatably connected to the inner side of the driving air chamber, wherein a second gear meshing with the first gear is fixedly mounted on the outer side of the round rod;

[0034] a partition plate fixedly mounted on the inner side of the driving air chamber, wherein the first gear and the second gear are located below the partition plate; and

[0035] The turbine fan blade is fixedly mounted on the end of the round rod and is located above the partition plate.

[0036] Furthermore, the bottom of the tank body is also provided with a third sewage outlet with one end penetrating through and extending to the outside of the box body, and the end of the air outlet pipe located on the inner side of the box body is connected to the tank body.

[0037] Compared with the prior art, the technical solution of this application has the following beneficial technical effects:

[0038] The present invention realizes continuous cooling of water inside the box by introducing a circulating cooling component, which not only provides an effective cooling method for the gas in the air intake component, but also, the design of the first air chamber reduces the flow rate of the gas output by the air intake component. This change helps to initially separate the oil droplets in the gas. As the gas flow rate decreases, the oil droplets are more easily separated due to inertia, reducing the burden of subsequent processing links. Furthermore, the second air chamber achieves deep cleaning of the gas and effective separation of the oil droplets by condensing water vapor in the gas output by the air intake component and capturing oil and dust. This process not only removes moisture and impurities in the gas, but also further improves the capture efficiency of the oil droplets, ensuring The high quality of the output gas is ensured. In addition, the setting of the separation tank further enhances the removal effect of oil and water droplets. It is connected to the second air chamber through the second connecting pipe. The separation tank can receive and process the gas that has been preliminarily cleaned, and further remove the residual water and oil droplets therein. This design ensures that the final output gas is both dry and clean, meeting the high requirements of textile equipment for compressed air. Finally, the design of the air outlet pipe enables the purified gas to be smoothly discharged from the box and supplied to the textile equipment. The whole device has a compact structure and stable operation, which effectively solves the problem that oil droplets cannot be effectively separated in the prior art, improves the gas supply quality of textile equipment, and thus ensures the stable improvement of fabric quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] Figure 1 It is a schematic diagram of the overall connection structure of the present invention;

[0040] Figure 2 A schematic diagram of the connection structure of the box body of the present invention from another perspective;

[0041] Figure 3 It is a schematic diagram of the connection structure of the circulating cooling component of the present invention;

[0042] Figure 4 It is a schematic diagram of the connection structure between the first air chamber and the second air chamber of the present invention;

[0043] Figure 5 It is a schematic cross-sectional structural diagram of a portion of the first air chamber and a portion of the second air chamber of the present invention;

[0044] Figure 6 A schematic diagram of the connection structure between the first air chamber and the second air chamber of the present invention from another perspective;

[0045] Figure 7 This is a schematic diagram of the connection structure of some separation tanks of the present invention;

[0046] Figure 8 This is a schematic diagram of the connection structure of some separation tanks of the present invention;

[0047] Fig. 9 For the present invention Figure 5 Enlarged view of point A in the middle;

[0048] Fig.10 It is a schematic diagram of the connection structure of some drive components of the present invention.

[0049] In the figure: 1, box body; 2, circulating cooling component; 21, cooling box; 22, semiconductor refrigeration plate; 23, liquid pump; 24, liquid pipe; 25, liquid outlet pipe; 3, air inlet component; 31, air inlet pipe; 32, driving air chamber; 33, third connecting pipe; 4, first air chamber; 41, partition plate; 42, first sewage outlet; 5, second air chamber; 51, mesh plate; 52, small air hole; 53, second sewage outlet; 6, first connecting pipe; 7, separation tank; 71, tank body; 72, rotating shaft; 73, mesh cylinder; 74, blade; 75, driving component; 751, first gear; 752, round rod; 753, second gear; 754, partition plate; 755, turbofan blade; 8, second connecting pipe; 9, air outlet pipe; 10, refrigeration fins; 11, bracket; 12, cooling fan; 13, third sewage outlet. DETAILED DESCRIPTION

[0050] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0051] Combination Figure 1-Figure 10 As shown, an oil-gas separation device for textile equipment of the present invention comprises a box body 1, wherein water is added in the box body 1, and further comprises:

[0052] A circulating cooling assembly 2 is disposed on the box body 1 and is interconnected with the inside of the box body 1, and is used to continuously cool the water inside the box body 1;

[0053] An air intake component 3, one end of which is arranged outside the box body 1, and the other end of which penetrates and extends to the inside of the box body 1, wherein the gas in the air intake component 3 can be cooled by circulating the water inside the cooling component 2 and the box body 1;

[0054] The first air chamber 4 is disposed inside the housing 1 and is in communication with the air intake assembly 3, and is used to reduce the flow rate of the gas output by the air intake assembly 3 to preliminarily separate the oil droplets;

[0055] The second air chamber 5 is arranged inside the housing 1 and is connected to the first air chamber 4 through a first connecting pipe 6, and is used to condense water vapor in the gas output by the air intake assembly 3, and to capture oil and dust to achieve gas cleaning and oil droplet separation;

[0056] The separation tank 7 is arranged inside the housing 1 and between the first air chamber 4 and the second air chamber 5, wherein the second air chamber 5 and the separation tank 7 are connected to each other through a second connecting pipe 8, which is used to further remove water droplets and oil droplets in the gas to ensure that the output gas is dry and clean;

[0057] The gas outlet pipe 9 has one end disposed on the separation tank 7 and communicated with the separation tank 7, and the other end penetrates and extends to the outside of the box body 1, and is used to output the purified gas.

[0058] The mixed gas containing oil droplets, water vapor and dust output by the compressor enters the interior of the casing 1 through the air intake component 3. One end of the air intake component 3 is arranged on the outside of the casing 1, and the other end passes through and extends to the inside of the casing 1. The purpose of this design is to allow the gas to directly contact the water in the casing 1 that is continuously cooled by the circulating cooling component 2. The circulating cooling component 2 is arranged on the casing 1 and is interconnected with the inside of the casing 1. By continuously circulating the water in the casing 1, a cooling effect is provided for the gas in the air intake component 3, while the generation of condensed water is avoided. The cooled gas then enters the first air chamber 4. The first air chamber 4 is arranged on the inside of the casing 1 and is interconnected with the air intake component 3. The design of its internal space reduces the gas flow rate, thereby utilizing the inertia principle to preliminarily separate the larger oil droplets in the gas. Then, the preliminarily separated gas enters the second air chamber 5 through the first connecting pipe 6. Due to the gas and the cooling element in the casing 1, the gas With further contact with water, the water vapor in the gas will condense into water droplets. At the same time, smaller oil droplets and dust will also be captured. This process realizes deep cleaning of the gas and effective separation of oil droplets. Subsequently, the gas treated by the second air chamber 5 enters the separation tank 7 through the second connecting pipe 8, which can further remove water droplets and oil droplets in the gas, ensuring that the output gas is both dry and clean. Finally, the gas purified by the separation tank 7 is output through the outlet pipe 9. One end of the outlet pipe 9 is arranged on the separation tank 7 and is interconnected with the separation tank 7, and the other end passes through and extends to the outside of the box body 1, providing high-quality, oil-free compressed air supply for the textile equipment. In summary, the oil-gas separation device for textile equipment of the present invention realizes effective oil-gas separation of the compressor output gas through multiple means such as circulating cooling, flow rate reduction, deep cleaning and filtration separation, ensuring that the textile equipment obtains high-quality, oil-free compressed air supply.

[0059] The overall dimensions of the box body 1 are 6 meters in length, 1.5 meters in width, and 1.6 meters to 2 meters in height, wherein the height can be adaptively adjusted according to the amount of gas. A filling port for adding water to the interior of the box body 1 is also provided on the outer wall of the box body 1 .

[0060] In a preferred embodiment, the present invention can be further configured as follows: Figure 2 , Figure 3 As shown; the circulating cooling component 2 includes:

[0061] The cooling box 21 is fixedly mounted on the outside of the box body 1 and is in communication with the inside of the box body 1, wherein the water inside the box body 1 can flow into the cooling box 21;

[0062] The semiconductor cooling sheet 22 is disposed on the surface of the cooling box 21, and its cooling end faces one side of the cooling box 21;

[0063] A liquid pump 23 is fixedly mounted on the surface of the cooling box 21, and a suction end of the pump is connected to a liquid pumping pipe 24, and the other end of the liquid pumping pipe 24 penetrates and extends to the inner side of the box body 1; and

[0064] The liquid outlet pipe 25 is fixedly installed on the output end of the liquid pump 23 and is interconnected with the output end of the liquid pump 23. The cooling box 21 is fixedly installed on the outer side of the box body 1 and is interconnected with the inside of the box body 1, ensuring that the water inside the box body 1 can flow into the cooling box 21. This design enables the cooling box 21 to serve as an important link in the water circulation and cool the water in the box body 1. On the surface of the cooling box 21, a semiconductor refrigeration plate 22 is provided. The cooling end of the semiconductor refrigeration plate 22 faces one side of the cooling box 21. Through its refrigeration effect, the water in the cooling box 21 is cooled. In this process, the semiconductor refrigeration plate 22 efficiently converts electrical energy into thermal energy and generates cold at its cooling end, thereby cooling the water in the cooling box 21. In order to realize the circulation of water, the liquid pump 23 is fixedly installed on the surface of the cooling box 21. The suction end of the liquid pump 23 is connected with a liquid extraction pipe 24. The other end of the liquid extraction pipe 24 passes through and extends to the inner side of the box body 1. In this way, the liquid pump 23 can The water in the cooling box 21 which has been cooled and is located near the semiconductor refrigeration plate 22 is pumped out through the pumping pipe 24, and then the pumped water enters the liquid outlet pipe 25 through the output end of the pumping pump 23. The liquid outlet pipe 25 is fixedly installed on the output end of the pumping pump 23 and is interconnected with the output end of the pumping pump 23. In this way, the cooled water is finally pumped into the upper area inside the box 1 through the liquid outlet pipe 25. Since water has gravity, it will flow downward from the upper area inside the box 1 to form a natural circulation flow. In this process, the circulation flow of the water inside the box 1 is realized through the suction action of the pumping pump 23 and the pumping pipe 24, and the pumping action of the liquid outlet pipe 25, and the semiconductor refrigeration plate 22 continuously cools the water in the cooling box 21, thereby ensuring that the water inside the box 1 is always kept at a low temperature. This circulating cooling mechanism provides an effective cooling effect for the gas in the air intake component 3, avoids the generation of condensed water, and ensures the smooth progress of the subsequent oil-gas separation process.

[0065] In a preferred embodiment, the present invention can be further configured as follows: Figure 2 , Figure 3As shown; a plurality of cooling fins 10 are fixedly mounted on the surface of one side of the cooling box 21 close to the semiconductor cooling sheet 22, and no less than three brackets 11 are fixedly mounted on the outer side of the cooling box 21, wherein each bracket 11 is provided with a cooling fan 12, and the air outlet end of the cooling fan 12 faces the heat release end of the semiconductor cooling sheet 22, and a plurality of cooling fins 10 are fixedly mounted on the surface of one side of the cooling box 21 close to the semiconductor cooling sheet 22. The design of the cooling fins 10 increases the heat exchange area between the cooling box 21 and the semiconductor cooling sheet 22, thereby improving the heat conduction efficiency. When the semiconductor cooling sheet 22 is working, its cooling end will absorb the heat of the water in the cooling box 21 to reduce the water temperature; at the same time, its heat release end will release heat, The cooling fins 10 can effectively transfer this part of heat from the heat release end of the semiconductor refrigeration plate 22 to the outer wall of the cooling box 21, providing a good heat exchange basis for the subsequent heat dissipation process. In order to further improve the heat dissipation efficiency, no less than three brackets 11 are fixedly installed on the outside of the cooling box 21. Each bracket 11 is provided with a cooling fan 12, and the air outlet end of the cooling fan 12 is facing the heat release end of the semiconductor refrigeration plate 22. When the cooling fan 12 is working, they will blow cold air to the heat release end of the semiconductor refrigeration plate 22 to accelerate the dissipation of heat. This design not only enhances the heat dissipation effect of the semiconductor refrigeration plate 22, but also ensures the steady decrease of the water temperature in the cooling box 21, thereby improving the working efficiency of the entire circulating cooling component 2.

[0066] In a preferred embodiment, the present invention can be further configured as follows: Figure 4 , Fig. 9 As shown; the air intake assembly 3 includes:

[0067] An air inlet pipe 31, one end of which is located outside the box body 1 and the other end of which penetrates and extends to the inside of the box body 1, wherein the end of the air inlet pipe 31 located inside the box body 1 is also connected to a driving air chamber 32, and the driving air chamber 32 is fixedly installed on the inner wall of the box body 1; and

[0068] The third connecting pipe 33 has one end connected to the driving air chamber 32, and the other end penetrates and extends into the first air chamber 4, wherein the end of the third connecting pipe 33 away from the driving air chamber 32 is arranged at a lower position outside the first air chamber 4, and the air intake assembly 3 is mainly composed of an air intake pipe 31, a driving air chamber 32 and a third connecting pipe 33. One end of the air intake pipe 31 is located outside the casing 1, and is used to receive a mixed gas from a compressor or other air source; the other end penetrates and extends to the inside of the casing 1, so that the gas can enter the casing 1 for subsequent cooling and separation treatment. The end of the air intake pipe 31 located inside the casing 1 is also connected to the driving air chamber 32, and the driving air chamber 32 is arranged Designed to provide power for subsequent gas flow, one end of the third connecting pipe 33 is interconnected with the driving air chamber 32, and the other end passes through and extends into the first air chamber 4. In particular, the end of the third connecting pipe 33 away from the driving air chamber 32 is arranged at a lower position on the outside of the first air chamber 4. This design allows the gas flowing out of the driving air chamber 32 to enter the first air chamber 4 at a lower speed and a larger area, thereby utilizing the inertia principle of the gas to achieve preliminary oil droplet separation in the first air chamber 4. Since the gas flows from the high driving air chamber 32 to the bottom of the low first air chamber 4, larger oil droplets will settle more easily under the action of gravity, thereby achieving a preliminary oil-gas separation effect.

[0069] In a preferred embodiment, the present invention can be further configured as follows: Figure 5As shown; a plurality of partition plates 41 arranged in an inverted V shape are evenly arranged on the inner side of the first air chamber 4 along the horizontal direction, wherein a plurality of partition plates 41 are arranged in a plurality of layers along the vertical direction, and the partition plates 41 between adjacent layers are arranged in a staggered manner, and a first sewage outlet 42 having one end penetrating through and extending to the outside of the casing 1 is also arranged at the bottom of the first air chamber 4. The first air chamber 4 is an important link in the oil-gas separation process, and its internal structure design has a vital influence on the separation efficiency. In order to achieve efficient oil droplet separation, a plurality of partition plates 41 arranged in an inverted V shape are evenly arranged on the inner side of the first air chamber 4 along the horizontal direction. These partition plates 41 can not only effectively reduce the flow rate of the gas, so that the oil droplets in the gas can sink more easily under the action of inertia for preliminary separation, but also its inverted V-shaped design can increase the contact area between the gas and the partition plates 41, thereby further improving the oil droplet capture efficiency. In addition, in order to make full use of the internal space of the first air chamber 4, a plurality of partition plates 41 are vertically spaced. It is arranged to have several layers, and the partition plates 41 between adjacent layers are arranged in a staggered manner. This design not only allows the gas to change its flow direction multiple times when flowing through the first air chamber 4, thereby increasing the chance of collision between the oil droplets and the partition plates 41, but also the staggered partition plates 41 can form multiple small vortex areas, which are beneficial to the aggregation and sedimentation of the oil droplets. A first sewage outlet 42 having one end penetrating through and extending to the outside of the box body 1 is also provided at the bottom of the first air chamber 4. The design of this sewage outlet allows the operator to easily discharge the oil droplets, dust and other impurities deposited in the first air chamber 4 by a static method, thereby maintaining the cleanliness of the inside of the first air chamber 4 and the stability of the separation efficiency. Regarding the material selection of the partition plate 41, considering that it needs to withstand the impact of the gas and the deposition of oil droplets, it should be made of a material with sufficient strength and corrosion resistance, such as stainless steel, alloy steel or corrosion-resistant plastic. These materials can not only meet the use requirements of the partition plate 41, but also extend its service life and reduce maintenance costs.

[0070] In a preferred embodiment, the present invention can be further configured as follows: Figure 5As shown; a plurality of mesh plates 51 are fixedly installed on the inner side of the second air chamber 5, and the plurality of mesh plates 51 are arranged in a plurality of layers in the vertical direction, and the distance between two adjacent mesh plates 51 is equal, wherein the surface of the mesh plates 51 is provided with a plurality of small air holes 52 arranged in an equidistant manner, and the bottom of the second air chamber 5 is also provided with a second sewage outlet 53 having one end penetrating through and extending to the outside of the casing 1. The second air chamber 5 is a key component in the oil-gas separation device, and its design is intended to further separate the tiny oil droplets in the gas to ensure the purity of the final exhaust gas. In order to achieve this goal, a plurality of mesh plates 51 are fixedly installed on the inner side of the second air chamber 5, and these mesh plates 51 are arranged in a plurality of layers in the vertical direction, and the distance between two adjacent mesh plates 51 is equal. This design not only ensures that the gas can be evenly distributed when flowing through the second air chamber 5, but also provides a good environment for capturing the oil droplets. The surface of each mesh plate 51 is provided with a number of small pores 52 arranged at equal intervals. The diameters of these small pores 52 are carefully designed to ensure that they can allow the gas to pass smoothly while blocking most of the tiny oil droplets. When the gas flows through the mesh plate 51, due to the obstruction of the pores 52, the oil droplets in the gas will encounter greater resistance, and thus are more likely to adhere to the mesh plate 51 under the action of inertia. As the oil droplets continue to accumulate, they will eventually drip to the bottom of the second air chamber 5 under the action of gravity. In order to discharge these deposited oil droplets and possible other dirt in time, the bottom of the second air chamber 5 is also provided with a second sewage outlet 53 with one end penetrating through and extending to the outside of the box body 1. The design of this sewage outlet allows the operator to regularly clean the dirt inside the second air chamber 5, thereby maintaining the stability of its separation efficiency.

[0071] In a preferred embodiment, the present invention can be further configured as follows: Figure 7 , Figure 8 As shown; the separation tank 7 comprises:

[0072] The tank body 71 is fixedly installed inside the box body 1 and is located between the first air chamber 4 and the second air chamber 5;

[0073] A rotating shaft 72, one end of which is rotatably connected to the inner side of the tank body 71, and the other end of which penetrates the tank body 71 and extends to the inner side of the driving air chamber 32;

[0074] The net cylinder 73 is arranged outside the rotating shaft 72, wherein one end of the second connecting pipe 8 away from the second air chamber 5 penetrates and extends to the inner side of the net cylinder 73;

[0075] The blade 74 is fixedly mounted on the outer side of the rotating shaft 72 and located on the inner side of the net cylinder 73; and

[0076] The driving assembly 75 is arranged at the end of the rotating shaft 72 and is located on the inner side of the driving air chamber 32, wherein the driving assembly 75 is used to drive the rotating shaft 72 to rotate axially in the tank body 71. The separation tank 7 is the core component of the oil-gas separation device, and its design is intended to further separate the oil droplets and water droplets in the gas by physical means, thereby ensuring that the final output gas is dry, clean and low-temperature. One end of the rotating shaft 72 is rotatably connected to the inner side of the tank body 71, and the other end passes through the tank body 71 and extends to the inner side of the driving air chamber 32. This design enables the rotating shaft 72 to rotate axially in the tank body 71 driven by the driving assembly 75. The mesh cylinder 73 is arranged on the outer side of the rotating shaft 72, and through holes are opened on the upper and lower surfaces thereof, and bearings are embedded in the through holes to ensure that the mesh cylinder 73 will not rotate with the rotating shaft 72 during the rotation process. This design not only ensures the stability of the mesh cylinder 73, but also enables the rotating shaft 72 to smoothly drive the blades 7. 4 rotates, the blades 74 are fixedly mounted on the outer side of the rotating shaft 72 and located on the inner side of the net cylinder 73. When the rotating shaft 72 rotates, the blades 74 will also rotate, thereby causing the gas in the net cylinder 73 to spirally rise. In the process of the gas spirally rising, water droplets and oil droplets will be thrown onto the net cylinder 73 under the action of centrifugal force and captured by the net cylinder 73. The material and structural design of the net cylinder 73 enable it to effectively block the water droplets and oil droplets and allow the gas to pass smoothly. In this way, after filtering and separation by the net cylinder 73, most of the water droplets and oil droplets in the gas are removed, leaving only dry and clean gas. Finally, the separated gas is output through the gas outlet pipe 9, completing the entire oil-gas separation process. The driving component 75 is arranged at the end of the rotating shaft 72 and located on the inner side of the driving air chamber 32. By providing power to drive the rotating shaft 72 to rotate axially in the tank body 71, the working cycle of the entire separation tank 7 is realized.

[0077] In a preferred embodiment, the present invention can be further configured as follows: Fig. 9 , Fig.10 As shown; the drive assembly 75 includes:

[0078] The first gear 751 is fixedly mounted on the end of the rotating shaft 72 and is located in the driving air chamber 32;

[0079] The round rod 752 is rotatably connected to the inner side of the driving air chamber 32, wherein the outer side of the round rod 752 is fixedly mounted with a second gear 753 meshing with the first gear 751;

[0080] A partition plate 754 is fixedly mounted on the inner side of the driving air chamber 32 , wherein the first gear 751 and the second gear 753 are located below the partition plate 754 ; and

[0081] The turbofan blade 755 is fixedly mounted on the end of the round rod 752 and is located above the partition plate 754. The driving assembly 75 is a key component in the separation tank 7. It is designed to use the gas power entering from the intake pipe 31 to drive the rotation of the shaft 72, thereby realizing the spiral rise of the gas in the separation tank 7 and the separation of oil droplets and water droplets. The first gear 751 is fixedly mounted on the end of the shaft 72 and is located in the driving air chamber 32. When the gas entering from the intake pipe 31 flows through the driving air chamber 32, it blows the turbofan blade 755 located above the partition plate 754. The rotation of the turbofan blade 755 generates power and is transmitted to the second gear 753 through the round rod 752. The round rod 752 is rotatably connected to the driving air chamber 32. On the inner side of the air chamber 32, a second gear 753 meshing with the first gear 751 is fixedly installed on its outer side. Since the first gear 751 and the second gear 753 are meshing with each other, when the second gear 753 rotates under the drive of the turbofan blade 755, it will drive the first gear 751 and the rotating shaft 72 connected thereto to rotate together. The partition plate 754 is fixedly installed on the inner side of the driving air chamber 32, playing a role of separation and support. It ensures that the first gear 751 and the second gear 753 are located below it, and the turbofan blade 755 is located above it. This design not only ensures the normal meshing between the gears, but also avoids the gas directly impacting the gears, thereby improving the stability and durability of the drive assembly 75.

[0082] In a preferred embodiment, the present invention can be further configured as follows: Figure 5 , Figure 6 As shown; the bottom of the tank body 71 is also provided with a third sewage outlet 13 with one end penetrating and extending to the outside of the box body 1, and the end of the air outlet pipe 9 located on the inner side of the box body 1 is connected to the tank body 71. In order to effectively discharge the dirt accumulated in the tank body 71, such as oil droplets, water droplets and possible other impurities, the bottom of the tank body 71 is provided with a third sewage outlet 13 with one end penetrating and extending to the outside of the box body 1. The design of this sewage outlet allows the operator to regularly clean the dirt inside the tank body 71 to keep its internal cleanliness and the stability of the separation efficiency. When the tank body When the dirt in 71 accumulates to a certain extent, the operator only needs to open the third drain port 13 to discharge the dirt. The operation is simple and efficient. At the same time, in order to discharge the dry and clean gas after separation out of the device, the outlet pipe 9 is designed on the inner side of the box body 1, and one end of the outlet pipe 9 is interconnected with the tank body 71. In this way, when the gas undergoes a series of complex physical processes in the tank body 71, such as spiral ascent, centrifugal separation, etc., and finally becomes dry and clean gas, it can be smoothly discharged from the device through the outlet pipe 9 and supplied to subsequent processes.

[0083] The specific working principle of the oil-gas separation device for textile equipment of the present invention is as follows:

[0084] First, before starting the device, ensure that an appropriate amount of water has been added to the box 1, and check whether the components such as the circulating cooling component 2, the air intake component 3, the first air chamber 4, the second air chamber 5, the separation tank 7 and the air outlet pipe 9 are installed correctly and connected tightly;

[0085] Start the circulating cooling component 2, the semiconductor refrigeration sheet 22 starts to work, and cools the water in the cooling box 21 through its refrigeration end. At the same time, the cooling fan 12 starts to accelerate the heat dissipation of the heat release end of the semiconductor refrigeration sheet 22, thereby improving the refrigeration efficiency. The liquid pump 23 extracts the refrigerated water in the cooling box 21 through the liquid extraction pipe 24, and pumps it into the upper area inside the box body 1 through the liquid outlet pipe 25, thereby realizing the circulating cooling of the water inside the box body 1;

[0086] Next, the gas entering from the air inlet pipe 31 first enters the driving air chamber 32, and after preliminary cooling, enters the first air chamber 4 through the third connecting pipe 33. In the first air chamber 4, the gas is blocked by the inverted V-shaped partition plate 41, the flow rate is reduced, and the oil droplets in the gas sink under the action of gravity and inertia, achieving preliminary separation. The first sewage outlet 42 at the bottom of the first air chamber 4 can be opened regularly to discharge the sewage by a static method;

[0087] The gas after preliminary separation then enters the second air chamber 5, where the gas rises in the form of fine bubbles through the small pores 52 on the mesh plates 51. During the rising process, the oil and dust in the gas are captured by the water in the second air chamber 5, so that the gas is further cleaned and the oil droplets are separated. At the same time, the water vapor in the gas condenses into water droplets under the heat exchange effect of the mesh plates 51 and the first connecting pipe 6. The second sewage outlet 53 at the bottom of the second air chamber 5 can also be opened regularly to discharge the dirt.

[0088] Subsequently, the gas enters the mesh cylinder 73 of the separation tank 7 through the second connecting pipe 8. At this time, the driving assembly 75 starts to work, and the gas entering from the air inlet pipe 31 blows the turbine fan blades 755, driving the round rod 752 and the second gear 753 to rotate. Since the first gear 751 and the second gear 753 are meshed with each other, the rotating shaft 72 will also rotate, thereby driving the blades 74 in the mesh cylinder 73 to rotate. The rotation of the blades 74 causes the gas in the mesh cylinder 73 to spiral upward. Under the action of centrifugal force, water droplets and oil droplets are thrown onto the mesh cylinder 73 and captured. Finally, the separated and purified gas is output through the air outlet pipe 9 for use in subsequent processes.

[0089] During use, the third sewage outlet 13 can be opened regularly as needed to discharge the dirt at the bottom of the separation tank 7 to keep the interior clean. At the same time, by observing and detecting the quality and temperature of the gas output by the outlet pipe 9, the working parameters of the circulating cooling component 2, the air intake component 3 and the separation tank 7 can be adjusted in time to ensure efficient and stable operation of the device.

[0090] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device. In the absence of further restrictions, the elements defined by the sentence "comprise a ..." do not exclude the existence of other identical elements in the process, method, article or device including the elements.

[0091] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An oil-gas separation device for textile equipment, comprising a box (1), wherein water is added into the box (1), characterized in that: Also includes: A circulating cooling component (2) is arranged on the box body (1) and is in communication with the interior of the box body (1), and is used to continuously cool the water inside the box body (1); An air intake component (3) has one end disposed on the outside of the box (1) and the other end penetrating and extending to the inside of the box (1), wherein the gas in the air intake component (3) can be cooled by circulating water in the cooling component (2) and the box (1); A first air chamber (4) is arranged inside the housing (1) and is in communication with the air intake assembly (3), and is used to reduce the flow rate of the gas output by the air intake assembly (3) to preliminarily separate the oil droplets; A second air chamber (5) is arranged inside the housing (1) and is connected to the first air chamber (4) via a first connecting pipe (6), and is used to condense water vapor in the gas output by the air intake component (3) and to capture oil and dust to achieve gas cleaning and oil droplet separation; The separation tank (7) is arranged inside the housing (1) and between the first air chamber (4) and the second air chamber (5), wherein the second air chamber (5) and the separation tank (7) are connected to each other via a second connecting pipe (8), which is used to further remove water droplets and oil droplets in the gas, thereby ensuring that the output gas is dry and clean; The gas outlet pipe (9) has one end disposed on the separation tank (7) and communicated with the separation tank (7), and the other end penetrates and extends to the outside of the box body (1), and is used to output the purified gas.

2. The oil-gas separation device for textile equipment according to claim 1, characterized in that: The circulating cooling component (2) comprises: A cooling box (21) is fixedly mounted on the outside of the box body (1) and is in communication with the inside of the box body (1), wherein water inside the box body (1) can flow into the cooling box (21); A semiconductor cooling sheet (22) is arranged on the surface of the cooling box (21), with a cooling end thereof facing one side of the cooling box (21); A liquid extraction pump (23) is fixedly mounted on the surface of the cooling box (21), and its suction end is connected to a liquid extraction pipe (24), and the other end of the liquid extraction pipe (24) penetrates and extends to the inner side of the box body (1); and The liquid outlet pipe (25) is fixedly mounted on the output end of the liquid pump (23) and is in communication with the output end of the liquid pump (23).

3. The oil-gas separation device for textile equipment according to claim 2, characterized in that: A plurality of cooling fins (10) are fixedly mounted on a surface of one side of the cooling box (21) close to the semiconductor cooling sheet (22), and no less than three brackets (11) are fixedly mounted on the outer side of the cooling box (21), wherein each bracket (11) is provided with a cooling fan (12), and an air outlet end of the cooling fan (12) faces a heat release end of the semiconductor cooling sheet (22).

4. The oil-gas separation device for textile equipment according to claim 1, characterized in that: The air intake assembly (3) comprises: An air intake pipe (31), one end of which is located outside the box (1) and the other end of which penetrates and extends to the inside of the box (1), wherein the end of the air intake pipe (31) located inside the box (1) is also connected to a driving air chamber (32), and the driving air chamber (32) is fixedly mounted on the inner wall of the box (1); and The third connecting pipe (33) has one end connected to the driving air chamber (32) and the other end passing through and extending into the first air chamber (4), wherein the end of the third connecting pipe (33) away from the driving air chamber (32) is arranged at a lower position outside the first air chamber (4).

5. The oil-gas separation device for textile equipment according to claim 1, characterized in that: A plurality of partition plates (41) arranged in an inverted V shape are evenly arranged on the inner side of the first air chamber (4) in the horizontal direction, wherein the plurality of partition plates (41) are arranged in a plurality of layers in the vertical direction, and the partition plates (41) between adjacent layers are arranged in a staggered manner. The bottom of the first air chamber (4) is also provided with a first sewage outlet (42) having one end penetrating through and extending to the outside of the box body (1).

6. The oil-gas separation device for textile equipment according to claim 1, characterized in that: A plurality of mesh plates (51) are fixedly mounted on the inner side of the second air chamber (5), the plurality of mesh plates (51) are provided with a plurality of layers in the vertical direction, the distance between two adjacent mesh plates (51) is equal, a plurality of small air holes (52) arranged in an equidistant manner are provided on the surface of the mesh plates (51), and a second sewage outlet (53) having one end penetrating through and extending to the outside of the box body (1) is also provided at the bottom of the second air chamber (5).

7. The oil-gas separation device for textile equipment according to claim 4, characterized in that: The separation tank (7) comprises: A tank body (71) is fixedly installed inside the box body (1) and is located between the first air chamber (4) and the second air chamber (5); A rotating shaft (72), one end of which is rotatably connected to the inner side of the tank body (71), and the other end of which penetrates the tank body (71) and extends to the inner side of the driving air chamber (32); The net cylinder (73) is arranged outside the rotating shaft (72), wherein one end of the second connecting pipe (8) away from the second air chamber (5) penetrates and extends to the inner side of the net cylinder (73); The blade (74) is fixedly mounted on the outer side of the rotating shaft (72) and located on the inner side of the net cylinder (73); and The driving assembly (75) is arranged at the end of the rotating shaft (72) and is located inside the driving air chamber (32), wherein the driving assembly (75) is used to drive the rotating shaft (72) to rotate axially in the tank body (71).

8. The oil-gas separation device for textile equipment according to claim 7, characterized in that: The drive assembly (75) comprises: A first gear (751) is fixedly mounted on the end of the rotating shaft (72) and is located in the driving air chamber (32); A round rod (752) is rotatably connected to the inner side of the driving air chamber (32), wherein a second gear (753) meshing with the first gear (751) is fixedly mounted on the outer side of the round rod (752); A partition plate (754) is fixedly mounted on the inner side of the driving air chamber (32), wherein the first gear (751) and the second gear (753) are located below the partition plate (754); and The turbine fan blade (755) is fixedly mounted on the end of the round rod (752) and is located above the partition plate (754).

9. The oil-gas separation device for textile equipment according to claim 8, characterized in that: The bottom of the tank body (71) is also provided with a third sewage outlet (13) with one end penetrating through and extending to the outside of the box body (1); the end of the air outlet pipe (9) located on the inside of the box body (1) is connected to the tank body (71).

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