Modularized three-phase separator with two-layer conventional angle herringbone plate structure

Abstract

The utility model relates to the field of three-phase separators, in particular to a modularized three-phase separator with a two-layer conventional angle herringbone plate structure, which comprises a first arc-shaped plate, a second arc-shaped plate is connected to the left side of the first arc-shaped plate, a first air chamber is arranged on the left side of the inner surface of the first arc-shaped plate, a second air chamber is arranged on the right side of the inner surface of the second arc-shaped plate, and discharge pipes are arranged on the top surfaces of the second air chamber and the first air chamber; the slot is arranged for mounting the sliding plate, the sliding plate can slide in the slot, so that the sliding length of the sliding plate in the baffle is adjusted, and after adjustment is completed, the position of the sliding plate can be fixed through the corresponding fixing screw hole and the positioning bolt, so that the overall adjustment of the sliding plate is realized; therefore, the water retaining area of the baffle is enlarged, water flow can fully collide with the baffle, and the three-phase separation efficiency and the adaptation degree are improved.

Description

Technical Field

[0001] This utility model relates to the field of three-phase separators, and in particular to a modular two-layer conventional angled herringbone plate structure three-phase separator. Background Technology

[0002] A three-phase separator is a device used to separate three different phases in a mixture, typically gas, liquid, solid, or two immiscible liquids. It is widely used in petroleum, chemical, and environmental protection fields. It achieves separation by utilizing the density differences between different phases through physical methods such as gravity sedimentation, centrifugal force, or cyclone.

[0003] In existing three-phase separators, the lengths of the two inclined plates of the herringbone plate are fixed and cannot be extended or adjusted according to actual needs. Due to the large differences in viscosity, density and flow rate of different fluids, the required herringbone plate size is also different, resulting in low adaptability of the equipment when processing diverse fluids, which affects the separation efficiency and the scope of application.

[0004] Therefore, in view of the problem that the length of the two inclined plates of the herringbone plate of the existing three-phase separator cannot be extended when it is in use, and the size of the herringbone plate required is also different when processing different fluids, resulting in low adaptability of the three-phase separator, it is urgent to design a new type of modular two-layer conventional angle herringbone plate structure three-phase separator. Utility Model Content

[0005] To overcome the problem that the length of the two inclined plates of the herringbone plate in the existing three-phase separator cannot be extended when in use, and the size of the herringbone plate required is different when handling different fluids, resulting in low adaptability of the three-phase separator in use.

[0006] The technical solution of this utility model is as follows: a modular two-layer conventional angled herringbone three-phase separator, including a first arc plate; it also includes baffles, slots, sliding plates, fixing screw holes and positioning bolts. A second arc plate is connected to the left side of the first arc plate. A first air chamber is provided on the left side of the inner surface of the first arc plate, and a second air chamber is provided on the right side of the inner surface of the second arc plate. Discharge pipes are provided on the top surfaces of both the second air chamber and the first air chamber. Multiple baffles are provided between the first air chamber and the first arc plate, and between the second air chamber and the second arc plate. Slots are provided on both sides of the outer surface of the baffles. A sliding plate is slidably connected to the inner surface of the slots. Multiple fixing screw holes are provided on both the left and right sides of the upper surface of the sliding plate. Positioning bolts are provided at both ends of the upper surface of the sliding plate. The sliding plate is fixed to the baffles by the positioning bolts.

[0007] Preferably, a slot is provided for installing the sliding plate. The sliding plate can slide inside the slot to adjust its sliding length inside the baffle. After adjustment, the position of the sliding plate can be fixed by the corresponding fixing screw holes and positioning bolts, thereby realizing the overall adjustment of the sliding plate. This expands the water-blocking area of ​​the baffle, allowing the water flow to fully impact the baffle, thereby improving the three-phase separation efficiency and adaptability. This solves the problem that the length of the two inclined plates of the herringbone plate in the existing three-phase separator cannot be extended, and the herringbone plate size required for processing different fluids is also different, resulting in low adaptability of the three-phase separator during use.

[0008] Preferably, limit blocks are installed on both the left and right surfaces of the sliding plate, and limit grooves are formed on the inner surface of the slot corresponding to the positions of the limit blocks, with the limit blocks and limit grooves being slidably connected.

[0009] Preferably, a positioning plate is provided on both the front and rear sides of the outer surface of the first arc-shaped plate, and the other end of the positioning plate is connected to the second arc-shaped plate. The positioning plate is fixed to the first arc-shaped plate and the second arc-shaped plate by screws.

[0010] Preferably, the second air chamber and the corresponding baffle of the first air chamber are provided with multiple through holes on one side.

[0011] Preferably, two symmetrical docking blocks are installed on the left side surface of the first air chamber, and docking grooves are provided on the right side surface of the second air chamber corresponding to the positions of the two docking blocks, with the docking blocks and docking grooves being compatible.

[0012] Preferably, the inner surfaces of both the first and second arc-shaped plates are provided with support rods on the upper side of the baffle.

[0013] Preferably, two symmetrical fixing seats are installed on the upper surfaces of both the first and second arc-shaped plates, and lifting rings are installed on the upper surfaces of the fixing seats.

[0014] The beneficial effects of this utility model are:

[0015] 1. By setting a slot, the sliding plate can slide inside the slot to adjust its extension length inside the baffle. After adjustment, the positioning bolt can be inserted into the matching fixing screw hole to fix the position of the sliding plate, thereby realizing the overall adjustment of the sliding plate, thus expanding the water-blocking area of ​​the baffle, so that the water flow can fully impact the baffle, thereby improving the three-phase separation efficiency and adaptability. This solves the problem that the length of the two inclined plates of the herringbone plate in the existing three-phase separator cannot be extended, and the herringbone plate size required for processing different fluids is also different, resulting in low adaptability of the three-phase separator during use. Attached Figure Description

[0016] Figure 1 The diagram shown is a three-dimensional structural schematic of a modular two-layer conventional angled herringbone three-phase separator according to this utility model.

[0017] Figure 2 The diagram shown is a three-dimensional structural schematic of the first arc-shaped plate of a modular two-layer conventional angled herringbone three-phase separator according to this utility model.

[0018] Figure 3 The diagram shown is a three-dimensional structural schematic of the docking block of a modular two-layer conventional angled herringbone three-phase separator according to this utility model.

[0019] Figure 4 The diagram shown is a three-dimensional structural schematic of the docking groove of a modular two-layer conventional angled herringbone plate three-phase separator according to this utility model.

[0020] Figure 5 The diagram shown is a three-dimensional structural schematic of a modular two-layer conventional angled herringbone three-phase separator baffle according to this utility model.

[0021] Figure 6 The diagram shown is a three-dimensional structural schematic of a modular two-layer conventional angled herringbone three-phase separator slot according to this utility model.

[0022] Explanation of reference numerals in the attached drawings: 1. First arc-shaped plate; 2. Second arc-shaped plate; 3. Second air chamber; 4. First air chamber; 5. Discharge pipe; 6. Positioning plate; 7. Baffle; 8. Slot; 9. Sliding plate; 10. Fixing screw hole; 11. Positioning bolt; 12. Limiting groove; 13. Limiting block; 14. Through hole; 15. Connecting block; 16. Connecting groove; 17. Support rod; 18. Fixing seat; 19. Lifting ring. Detailed Implementation

[0023] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0024] Please see Figures 1-6This utility model provides an embodiment: a modular two-layer conventional angled herringbone three-phase separator, including a first arc-shaped plate 1; it also includes baffles 7, slots 8, sliding plates 9, fixing screw holes 10, and positioning bolts 11. A second arc-shaped plate 2 is connected to the left side of the first arc-shaped plate 1. A first air chamber 4 is provided on the left side of the inner surface of the first arc-shaped plate 1, and a second air chamber 3 is provided on the right side of the inner surface of the second arc-shaped plate 2. Discharge pipes 5 are provided on the top surfaces of both the second air chamber 3 and the first air chamber 4. Multiple baffles 7 are provided between the first air chamber 4 and the first arc-shaped plate 1, and between the second air chamber 3 and the second arc-shaped plate 2. Slots 8 are provided on both sides of the outer surface of the baffles 7, and the inner surface of the slots 8 is slidably connected to... The sliding plate 9 has multiple equally spaced fixing screw holes 10 on both the left and right sides of its upper surface. Positioning bolts 11 are provided at both ends of the upper surface of the sliding plate 9. The sliding plate 9 is fixed to the baffle 7 by the positioning bolts 11. A slot 8 is provided for installing the sliding plate 9, allowing it to slide inside the slot 8 to adjust its sliding length within the baffle 7. After adjustment, the position of the sliding plate 9 can be fixed using the corresponding fixing screw holes 10 and positioning bolts 11, thus achieving overall adjustment of the sliding plate 9. This expands the water-blocking area of ​​the baffle 7, allowing the water flow to fully impact the baffle 7, thereby improving the three-phase separation efficiency and compatibility.

[0025] Please see Figures 1-6 In this embodiment, limit blocks 13 are installed on both the left and right sides of the sliding plate 9. A limit groove 12 is formed on the inner surface of the slot 8 corresponding to the position of the limit block 13. The limit block 13 and the limit groove 12 are slidably connected. By setting the limit block 13 and the limit groove 12, when the sliding plate 9 moves inside the slot 8, it can drive the limit block 13 to slide inside the limit groove 12. The limit groove 12 can restrict the sliding direction of the limit block 13, thereby improving the accuracy of the sliding plate 9 during movement. Limit blocks 13 are installed on both the front and rear sides of the outer surface of the first arc-shaped plate 1. One end of the positioning plate 6 is provided, and the other end of the positioning plate 6 is connected to the second arc plate 2. The positioning plate 6 is fixed to the first arc plate 1 and the second arc plate 2 by screws. By setting the positioning plate 6, the first arc plate 1 and the second arc plate 2 can be installed together, which improves the stability after installation. The second air chamber 3 and the first air chamber 4 are provided with multiple through holes 14 on one side of the baffle 7. By setting the through holes 14, part of the fluid blocked by the baffle 7 will pass through the through holes 14 and enter the interior of the air chamber, and be discharged upward through the discharge pipe 5 at the top of the air chamber.

[0026] Please see Figures 1-6In this embodiment, two symmetrical docking blocks 15 are installed on the left side surface of the first air chamber 4, and docking grooves 16 are provided on the right side surface of the second air chamber 3 corresponding to the positions of the two docking blocks 15. The docking blocks 15 and docking grooves 16 are adapted to each other. By setting the docking blocks 15 and docking grooves 16, it is easy to install and dock the first air chamber 4 and the second air chamber 3, ensuring that the first air chamber 4 and the second air chamber 3 can fit tightly together, reducing the installation space. The inner surfaces of the first arc plate 1 and the second arc plate 2 are provided with support rods 17 on the upper side of the baffle 7. By setting the support rods 17, the top of the baffle 7 can be supported, helping the baffle 7 to resist the impact of water flow and avoid deformation of the baffle 7. Two symmetrical fixing seats 18 are installed on the upper surfaces of the first arc plate 1 and the second arc plate 2. Lifting rings 19 are installed on the upper surfaces of the fixing seats 18. By setting the fixing seats 18 and lifting rings 19, it is easy for the staff to lift the whole device, improving convenience.

[0027] During operation, by setting the limiting block 13 and the limiting groove 12, when the sliding plate 9 moves inside the slot 8, it can drive the limiting block 13 to slide inside the limiting groove 12. The limiting groove 12 can restrict the sliding direction of the limiting block 13, thereby improving the accuracy of the sliding plate 9 during movement. By setting the positioning plate 6, the first arc plate 1 and the second arc plate 2 can be connected and installed, improving the stability after installation. By setting the through hole 14, part of the fluid blocked by the baffle 7 will pass through the through hole 14 and enter. The air inside the chamber is discharged upward through the discharge pipe 5 at the top of the chamber. By setting the docking block 15 and the docking groove 16, it is easy to install and dock the first air chamber 4 and the second air chamber 3, ensuring that the first air chamber 4 and the second air chamber 3 can fit tightly and reduce the installation space. By setting the support rod 17, the top of the baffle 7 can be supported, helping the baffle 7 to resist the impact of the water flow and preventing the baffle 7 from deforming. By setting the fixed seat 18 and the lifting ring 19, it is easy for the staff to lift the whole device, improving convenience.

[0028] Through the above steps, by setting the slot 8, the sliding plate 9 can slide inside the slot 8, thereby adjusting its extension length inside the baffle 7. After adjustment, the positioning bolt 11 can be inserted into the matching fixing screw hole 10 to fix the position of the sliding plate 9, thereby realizing the overall adjustment of the sliding plate 9, thereby expanding the water-blocking area of ​​the baffle 7, so that the water flow can fully collide with the baffle 7, thereby improving the three-phase separation efficiency and adaptability. This solves the problem that the length of the two inclined plates of the herringbone plate of the existing three-phase separator cannot be extended when it is in use, and the herringbone plate size required when handling different fluids is also different, resulting in low adaptability of the three-phase separator when in use.

Claims

1. A modular two-layer conventional angled herringbone three-phase separator, comprising a first arc-shaped plate (1); characterized in that: It also includes a baffle (7), a slot (8), a sliding plate (9), a fixing screw hole (10), and a positioning bolt (11). The left side of the first arc plate (1) is connected to a second arc plate (2). The left side of the inner surface of the first arc plate (1) is provided with a first air chamber (4), and the right side of the inner surface of the second arc plate (2) is provided with a second air chamber (3). The top surfaces of the second air chamber (3) and the first air chamber (4) are both provided with discharge pipes (5). The first air chamber (4) and the first arc plate (1) are connected by a first air chamber (4) and a second air chamber (3). Multiple baffles (7) are provided between the space between the second air chamber (3) and the second arc plate (2). Slots (8) are provided on both sides of the outer surface of the baffles (7). A sliding plate (9) is slidably connected to the inner surface of the slots (8). Multiple equally spaced fixing screw holes (10) are provided on both the left and right sides of the upper surface of the sliding plate (9). Positioning bolts (11) are provided at both ends of the upper surface of the sliding plate (9). The sliding plate (9) is fixed to the baffles (7) by the positioning bolts (11).

2. The modular two-layer conventional angled herringbone three-phase separator according to claim 1, characterized in that: Limiting blocks (13) are installed on both the left and right sides of the sliding plate (9). A limiting groove (12) is opened on the inner surface of the slot (8) corresponding to the position of the limiting block (13). The limiting block (13) and the limiting groove (12) are slidably connected.

3. A modular two-layer conventional angled herringbone three-phase separator according to claim 1, characterized in that: The first arc plate (1) has a positioning plate (6) on both the front and rear sides of its outer surface. The other end of the positioning plate (6) is connected to the second arc plate (2). The positioning plate (6) is fixed to the first arc plate (1) and the second arc plate (2) by screws.

4. A modular two-layer conventional angled herringbone three-phase separator according to claim 1, characterized in that: The second air chamber (3) and the first air chamber (4) are provided with multiple through holes (14) on one side of the corresponding baffle (7).

5. A modular two-layer conventional angled herringbone three-phase separator according to claim 1, characterized in that: Two symmetrical docking blocks (15) are installed on the left side surface of the first air chamber (4). Dating grooves (16) are provided on the right side surface of the second air chamber (3) corresponding to the positions of the two docking blocks (15). The docking blocks (15) and the docking grooves (16) are compatible.

6. A modular two-layer conventional angled herringbone three-phase separator according to claim 1, characterized in that: The inner surfaces of the first arc plate (1) and the second arc plate (2) are both provided with support rods (17) located on the upper side of the baffle (7).

7. A modular two-layer conventional angled herringbone three-phase separator according to claim 1, characterized in that: The upper surfaces of the first arc plate (1) and the second arc plate (2) are each equipped with two symmetrical fixing seats (18), and the upper surfaces of the fixing seats (18) are equipped with lifting rings (19).

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