Air source drying processor

Abstract

The utility model discloses an air source drying treater, relates to treater field, including mounting fixed seat, valve seat, valve seat body and middle through hole, the bottom surface of mounting fixed seat is fixedly connected with the valve seat, the bottom surface of the valve seat is sleeved with upper cylinder, the bottom surface of upper cylinder is sleeved with lower cylinder, the bottom surface of lower cylinder is sleeved with automatic drainer, and the middle through hole is connected with the automatic drainer. A gas inlet valve element, a gas flow check ring B, a flow guide cylinder and a gas flow check ring A are arranged in the upper cylinder, the gas inlet valve element is sleeved on the bottom surface of the valve seat, and the gas flow check ring B is sleeved at the bottom end of the gas inlet valve element. And the cyclone type gas-water separation principle is a separation method based on centrifugal force, liquid in a gas-water mixture is separated out through rotating motion, and the cyclone type gas-water separator has wide application value and good effect.

Description

Technical Field

[0001] This utility model relates to the field of processors, specifically an air source drying processor. Background Technology

[0002] Air drying removes moisture from the air and comes in two main forms: adsorption and refrigeration. Adsorption compressed air dryers utilize the principle of pressure swing adsorption; when humid air passes through an adsorbent, the moisture is adsorbed, resulting in dry air. Refrigeration compressed air dryers utilize the principle of cooling the air, lowering its temperature, and condensing the moisture from the humid air to obtain dry air.

[0003] Traditional gas-liquid separators are widely used in industrial liquid-containing systems, but they cannot efficiently separate gas and liquid, cannot improve the dryness of steam, cannot reduce the water carryover in steam, and have low overall separation efficiency. They cannot effectively separate liquid from gas, and gas-liquid separators cannot separate liquid from gas-liquid mixtures through rotational motion. Therefore, they do not have wide application value or good results.

[0004] Therefore, those skilled in the art have provided an air source drying processor to solve the problems mentioned in the background art. Utility Model Content

[0005] The purpose of this invention is to provide a gas source drying processor to solve the problems mentioned in the background art. Traditional gas-liquid separators are widely used in industrial liquid-containing systems, but they cannot efficiently separate gas and liquid, cannot improve the drying degree of steam, cannot reduce the water carryover in steam, and have low overall separation efficiency. They cannot effectively separate liquid from gas, and the gas-liquid separator cannot separate liquid from the gas-liquid mixture through rotational motion, thus lacking wide application value and good effect.

[0006] To achieve the above objectives, this utility model provides the following technical solution:

[0007] An air source drying processor includes a mounting base, a valve seat, a valve seat body, and a central through hole. The valve seat is fixedly connected to the bottom surface of the mounting base. An upper cylinder is sleeved on the bottom surface of the valve seat. A lower cylinder is sleeved on the bottom surface of the upper cylinder. An automatic drain is sleeved on the bottom surface of the lower cylinder. The upper cylinder contains an air inlet valve core, an airflow baffle ring B, a guide cylinder, and an airflow baffle ring A. The air inlet valve core is sleeved on the bottom surface of the valve seat, and the airflow baffle ring B is sleeved at the bottom end of the air inlet valve core. The bottom end of the airflow baffle ring B is fitted with a guide tube, and the bottom end of the guide tube is fitted with an airflow baffle ring A. The valve seat body is provided with threaded hole A and threaded hole B. The valve seat body is provided with fixed through hole A, fixed through hole B and sleeve through hole. The sleeve through hole is provided with a central through hole. The fixed through hole B is provided with a side connecting through hole. The top surface of the valve seat body is provided with a mounting hole. One side outer wall of the valve seat body is provided with a side flat plate surface A and a side flat plate surface B.

[0008] In a preferred embodiment of this utility model, the vertical central axes of the intake valve core, the airflow baffle ring B, the guide tube, and the airflow baffle ring A are located on the same vertical central axis.

[0009] In a preferred embodiment of this utility model, the threaded hole A and the threaded hole B are arranged opposite to each other, and the fixed through hole A and the fixed through hole B are located between the sleeve through hole.

[0010] In a preferred embodiment of this utility model, the valve seat includes a valve seat body, a threaded hole A, a threaded hole B, a fixed through hole A, a fixed through hole B, a side plate surface A, a side plate surface B, a mounting hole, a central through hole, and a sleeve through hole.

[0011] In a preferred embodiment of this utility model, the side plate surface A and the side plate surface B are arranged opposite to each other, and the side plate surface A and the side plate surface B are provided with threaded holes A and B.

[0012] As a preferred embodiment of this utility model: the top surface of the mounting hole is fitted with a mounting base, and there are two mounting holes, with an air intake valve core fitted inside the central through hole.

[0013] Compared with the prior art, the beneficial effects of this utility model are:

[0014] This utility model relates to a gas source drying processor, a cyclone gas-liquid separator, which is widely used in industrial liquid-containing systems to separate gas and liquid, thereby improving the dryness of steam and reducing water carryover in steam. It has high overall separation efficiency and can effectively separate liquid from gas. The cyclone gas-liquid separation principle is a centrifugal force-based separation method, which separates liquid from gas-liquid mixtures through rotational motion. It has wide application value and good results. Attached Figure Description

[0015] Other features, objects, and advantages of this invention will become more apparent from the following detailed description of non-limiting embodiments with reference to the accompanying drawings:

[0016] Figure 1 This is a three-dimensional structural diagram of an air source drying processor;

[0017] Figure 2 This is a schematic diagram of the internal structure of a valve seat in a gas source drying processor.

[0018] Figure 3 This is a top view of a valve seat in an air source drying processor.

[0019] Figure 4 This is a top view of a valve seat in an air source drying processor.

[0020] In the diagram: 1. Mounting bracket; 2. Valve seat; 201. Valve seat body; 202. Threaded hole A; 203. Threaded hole B; 204. Fixing through hole A; 205. Fixing through hole B; 206. Side flat surface A; 207. Side flat surface B; 208. Mounting hole; 209. Central through hole; 210. Sleeve through hole; 211. Side connecting through hole; 3. Airflow baffle ring B; 4. Guide cylinder; 5. Upper cylinder; 6. Lower cylinder; 7. Inlet valve core; 8. Airflow baffle ring A; 9. Automatic drainer. Detailed Implementation

[0021] Please see Figure 1-4In this embodiment of the utility model, a gas source drying processor includes a mounting base 1, a valve seat 2, a valve seat body 201, and a central through hole 209. The bottom surface of the mounting base 1 is fixedly connected to the valve seat 2. An upper cylinder 5 is sleeved on the bottom surface of the valve seat 2. A lower cylinder 6 is sleeved on the bottom surface of the upper cylinder 5. An automatic drainer 9 is sleeved on the bottom surface of the lower cylinder 6. The upper cylinder 5 is provided with an air inlet valve core 7, an airflow baffle ring B3, a guide cylinder 4, and an airflow baffle ring A8. The bottom surface of the valve seat 2 is sleeved with the air inlet valve core 7. Cyclone gas-liquid separators are widely used in industrial liquid-containing systems to separate gas and liquid to improve the dryness of steam and reduce the water carryover in steam. The overall separation efficiency is high. When the gas-liquid mixture enters the cyclone gas-liquid separator tangentially through the inlet pipe, the mixture is forced to rotate. An airflow baffle ring B3 is fitted onto the bottom end of the intake valve core 7. A guide tube 4 is fitted onto the bottom end of the airflow baffle ring B3. An airflow baffle ring A8 is fitted onto the bottom end of the guide tube 4. The gas passes through the valve seat 2 and then enters the intake valve core 7. Through the action of the airflow baffle ring B3, the guide tube 4, and the airflow baffle ring A8, the gas passes through the guide tube 4. During the rotation, the speed and direction of the gas-water mixture change, causing the liquid portion to be subjected to centrifugal force and thus thrown onto the wall of the separator. The liquid flows along the wall of the separator and finally flows into the liquid collection chamber at the bottom of the separator, completing the liquid separation. The separated gas is discharged from the center of the separator through the outlet pipe and then automatically drained by the automatic drainer 9. The valve seat body 201 is provided with threaded holes A202 and B203. The valve seat body 201 is provided with fixed through holes A204, B205 and sleeve through holes 210. The sleeve through hole 210 is provided with a central through hole 209. The fixed through hole B205 is provided with a side connecting through hole 211. The top surface of the valve seat body 201 is provided with a mounting hole 208. One side outer wall of the valve seat body 201 is provided with a side flat plate surface A206 and a side flat plate surface B207.

[0022] Please see Figure 1 and Figure 4The vertical central axes of the intake valve core 7, airflow baffle ring B3, guide tube 4, and airflow baffle ring A8 are located on the same vertical central axis. Threaded holes A202 and B203 facilitate the fixing and installation of the valve seat body 201, mounting hole 208 facilitates the fixing and installation of the mounting base 1, fixed through holes A204 and B205 facilitate gas passage, and central through hole 209 and sleeve through hole 210 facilitate other flow. When the gas-water mixture enters tangentially through the inlet pipe, the gas-water mixture enters the cyclone separator tangentially at a certain speed, generating rotational motion. Threaded holes A202 and B203 are arranged opposite each other, and fixed through holes A204 and B205 are located between the sleeve through hole 210. The valve seat 2 includes a valve seat body 201, threaded holes A202 and B203, fixed through holes A204 and B205, side plate surfaces A206 and B207, mounting holes 208, central through holes 209, and sleeve through holes 210. Side plate surfaces A206 and B207 are arranged opposite to each other, and threaded holes A202 and B203 are provided within both side plate surfaces A206 and B207. During rotation, due to centrifugal force, heavier liquids and water are thrown towards the separator wall. The liquid flows along the wall and eventually flows into the collection chamber. The separated gas rises from the center of the separator and is discharged through the outlet pipe. This effectively separates the liquid from the gas. Cyclone-type gas-water separation is a centrifugal force-based separation method that separates the liquid from the gas-water mixture through rotational motion, offering wide application value and excellent results. The top surface of the mounting hole 208 is fitted with a mounting base 1, and there are two mounting holes 208. The intake valve core 7 is fitted inside the through hole 209 in the middle.

[0023] It should be noted that this utility model is an air source drying processor, including: 1. a mounting base; 2. a valve seat; 201. a valve seat body; 202. a threaded hole A; 203. a threaded hole B; 204. a fixing through hole A; 205. a fixing through hole B; 206. a side plate surface A; 207. a side plate surface B; 208. a mounting hole; 209. a central through hole; 210. a sleeve through hole; 211. a side connecting through hole; 3. an airflow baffle ring B; 4. a guide tube; 5. an upper tube; 6. a lower tube; 7. an air inlet valve core; 8. an airflow baffle ring A; and 9. an automatic drainer. All components are general standard parts or components known to those skilled in the art, and their structure and principle can be obtained by those skilled in the art through technical manuals or conventional experimental methods.

[0024] The working principle of this utility model is as follows: Cyclone gas-liquid separators are widely used in industrial liquid-containing systems to separate gas and liquid, thereby improving the dryness of steam and reducing water carryover in steam. The overall separation efficiency is high. When the gas-liquid mixture enters the cyclone gas-liquid separator tangentially through the inlet pipe, the mixture is forced to rotate. It passes through valve seat 2 and then into the inlet valve core 7. Through the action of airflow baffle ring B3, guide cylinder 4, and airflow baffle ring A8, the gas passes through guide cylinder 4. During rotation, the speed and direction of the gas-liquid mixture change, causing the liquid portion to be subjected to centrifugal force and thrown onto the separator wall. The liquid flows along the separator wall and eventually flows into the liquid collection chamber at the bottom of the separator, completing the liquid separation. The separated gas is discharged from the center of the separator through the outlet pipe and then automatically drained by the automatic drainer 9. Threaded holes A202 and B203 facilitate the fixing and installation of the valve seat body 201, and mounting hole 208 facilitates the fixing and installation of the mounting base 1. Through hole A204 and fixed through hole B205 facilitate gas passage, while central through hole 209 and sleeve through hole 210 facilitate other flow. When the gas-water mixture enters tangentially through the inlet pipe, it enters the cyclone separator at a certain speed, generating rotational motion. During rotation, due to centrifugal force, the heavier liquid and water are thrown against the separator wall, and the liquid flows along the wall, eventually flowing into the collection chamber. The separated gas rises from the center of the separator and is discharged through the outlet pipe. This effectively separates the liquid from the gas. The cyclone gas-water separation principle is a separation method based on centrifugal force, which separates the liquid from the gas-water mixture through rotational motion. It has wide application value and good results.

[0025] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. A gas source drying processor, comprising a mounting fixing seat (1), a valve seat (2), a valve seat body (201) and a middle through hole (209), characterized in that, The bottom surface of the mounting fixing seat (1) is fixedly connected with a valve seat (2), the bottom surface of the valve seat (2) is sleeved with an upper cylinder (5), the bottom surface of the upper cylinder (5) is sleeved with a lower cylinder (6), the bottom surface of the lower cylinder (6) is sleeved with an automatic drain (9), the upper cylinder (5) is provided with an air inlet valve core (7), an airflow baffle B (3), a flow guide cylinder (4) and an airflow baffle A (8), the bottom surface of the valve seat (2) is sleeved with the air inlet valve core (7), the bottom end of the air inlet valve core (7) is sleeved with the airflow baffle B (3), the bottom end of the airflow baffle B (3) is sleeved with the flow guide cylinder (4), the bottom end of the flow guide cylinder (4) is sleeved with the airflow baffle A (8), the valve seat body (201) is provided with a threaded hole A (202) and a threaded hole B (203), the valve seat body (201) is provided with a fixed through hole A (204), a fixed through hole B (205) and a sleeving through hole (210), the sleeving through hole (210) is provided with a middle through hole (209), the fixed through hole B (205) is provided with a side edge connecting through hole (211), the top surface of the valve seat body (201) is provided with a mounting hole (208), and one side of the outer wall of the valve seat body (201) is provided with a side edge flat surface A (206) and a side edge flat surface B (207).

2. A gas source drying processor according to claim 1, wherein The vertical central axes of the air inlet valve core (7), the airflow baffle B (3), the flow guide cylinder (4) and the airflow baffle A (8) are located on the same vertical central axis.

3. A gas source drying processor according to claim 1, wherein The threaded hole A (202) and the threaded hole B (203) are oppositely arranged, and the fixed through hole A (204) and the fixed through hole B (205) are located between the sleeving through holes (210).

4. A gas source drying processor according to claim 1, wherein The valve seat (2) comprises a valve seat body (201), a threaded hole A (202), a threaded hole B (203), a fixed through hole A (204), a fixed through hole B (205), a side edge flat surface A (206), a side edge flat surface B (207), a mounting hole (208), a middle through hole (209) and a sleeving through hole (210).

5. A gas source drying processor according to claim 1, wherein The side edge flat surface A (206) and the side edge flat surface B (207) are oppositely arranged, and the side edge flat surface A (206) and the side edge flat surface B (207) are provided with the threaded hole A (202) and the threaded hole B (203).

6. A gas source drying processor according to claim 1, wherein The top surface of the mounting hole (208) is sleeved with the mounting fixing seat (1), and the mounting hole (208) is provided with two, and the inside of the middle through hole (209) is sleeved with the air inlet valve core (7).

Images