Sound wave precipitation device of water cooling tower

Abstract

Six stand columns A are evenly distributed on the ground, cross beams A are arranged between the lower portions of the adjacent stand columns A respectively, cross rods B are arranged between the upper portions of the adjacent stand columns A respectively, rectangular spaces are defined by the adjacent stand columns A, the cross beams A and the cross rods B respectively, and the upper sides of the stand columns A are provided with the same hexagonal plate. A low-frequency diaphragm type sound wave device fixedly penetrates through the hexagonal plate, the upper portion of each stand column A is fixed to the lower surface of the hexagonal plate, isosceles trapezoid spaces are defined by the transverse rods B, the hexagonal plate and the boundary beams which are adjacent to one another, and a polypropylene and terylene twisted pair demisting net A is placed in each isosceles trapezoid space; and each acrylic polyester twisted pair demisting net A is respectively fixed with the adjacent cross rod B, hexagonal plate and boundary beam. The water cooling tower has the beneficial effects that the probability of mutual collision of water mist is increased by using the sound wave precipitation device, larger water drops formed by collision of the water mist fall in the water cooling tower, and the water consumption of a power plant is saved.

Description

Technical Field

[0001] The utility model relates to a precipitation device, in particular to a sonic precipitation device for a cooling tower. Background Art

[0002] A cooling tower is also called a cooling tower. It is a special type of heat exchanger that allows hot water and air to come into contact with each other to lower the temperature of the water. In a power plant, the heat generated by the generator set is transferred to the water, and the cooling tower cools the hotter water. At present, a large amount of water mist is generated during the cooling process of the existing cooling towers. The water mist drifts into the air outside the cooling tower, causing a large amount of water loss and increasing the water consumption of the power plant. In winter, part of the water mist is cooled to form water droplets that fall to the ground near the cooling tower. The water droplets freeze and cause the ground to slip. Utility Model Content

[0003] The technical problem to be solved by the utility model is to provide an ultrasonic dehumidifier for a cooling tower, which solves the problem that a large amount of water mist will be generated during the cooling process of the existing cooling tower, and the unsaturated water mist will drift into the air outside the cooling tower, resulting in a large amount of water loss and increasing the water consumption of the power plant. In winter, part of the water mist will form water droplets when it is cooled and fall on the ground near the cooling tower. The water droplets will freeze and cause the ground to slip.

[0004] The technical solution adopted by the utility model to solve the above-mentioned problems is:

[0005] A cooling tower sonic dehumidifier comprises a column A1, a beam A2, a crossbar B3, a rectangular space 4, a hexagonal plate 5, a low-frequency diaphragm sonicator 6, a side beam 7, an isosceles trapezoidal space 8 and a polypropylene polyester twisted double-filament demisting net A12. Six columns A1 are evenly arranged on the ground, and crossbars A2 are fixedly arranged between the lower parts of adjacent columns A1, and crossbars B3 are fixedly arranged between the upper parts of adjacent columns A1. A rectangular space 4 is surrounded by each of the adjacent columns A1, beams A2 and crossbars B3. A same hexagonal plate 5 is arranged on the upper side of the column A1, and a low-frequency diaphragm type sonicator 6 is fixedly passed through the hexagonal plate 5. The upper part of each column A1 is fixedly connected to the lower surface of the hexagonal plate 5, and an isosceles trapezoidal space 8 is surrounded by each adjacent cross bar B3, hexagonal plate 5, and side beam 7. A polypropylene polyester twisted wire demisting net A12 is placed in each isosceles trapezoidal space 8, and each polypropylene polyester twisted wire demisting net A12 is fixedly connected to the adjacent cross bar B3, hexagonal plate 5, and side beam 7.

[0006] A support beam A9 is fixedly disposed on the upper portion of each of the columns A1, and the other ends of each of the support beams A9 are intersected and fixed, so that the support beams A9 can be used to stabilize the distance between the upper portions of each of the columns A1.

[0007] A reinforcing rod 10 is fixedly arranged in the middle of each side beam 7, and the lower part of each reinforcing rod 10 is fixedly connected to the adjacent support beam A9. The reinforcing rod 10 is used to stabilize the structural strength between the adjacent side beams 7 and the support beam A9.

[0008] A support beam B11 is fixedly disposed at the lower part of each of the columns A1, and the other ends of the support beams B11 are intersected and fixed, so that the support beams B11 can be used to stabilize the distance between the lower parts of the columns A1.

[0009] A polypropylene polyester twisted wire demisting net B13 is placed in each of the rectangular spaces 4, and each of the polypropylene polyester twisted wire demisting nets B13 is fixedly connected to the adjacent columns A1, beams A2, and crossbars B3, respectively. The polypropylene polyester twisted wire demisting net B13 is more conducive to the directional transmission of sound waves emitted by the low-frequency diaphragm type sonicator 6.

[0010] The same hexagonal polypropylene polyester twisted wire demisting net C14 is fixedly arranged on the lower surface of each of the support beams A9. The use of the hexagonal polypropylene polyester twisted wire demisting net C14 is conducive to generating sound waves of different wavelengths.

[0011] The same hexagonal polypropylene polyester twisted double-filament demisting net D15 is fixedly arranged on the lower surface of each of the support beams B11. The use of the hexagonal polypropylene polyester twisted double-filament demisting net D15 is more conducive to generating sound waves of different wavelengths.

[0012] The working principle of the utility model is as follows: a combination of a plurality of columns A, a beam A, a crossbar B, a hexagonal plate, a low-frequency diaphragm type sonicator, a side beam, a support beam A, a reinforcing rod, a support beam B, a polypropylene polyester double twisted wire demisting net A, a polypropylene polyester double twisted wire demisting net B, a hexagonal polypropylene polyester double twisted wire demisting net C, and a hexagonal polypropylene polyester double twisted wire demisting net D is fixedly arranged in mid-air in the cooling tower;

[0013] During the operation of the cooling water tower, the low-frequency diaphragm sonicator is turned on. The sound waves emitted by the low-frequency diaphragm sonicator drive the polypropylene polyester double twisted wire demisting net A, polypropylene polyester double twisted wire demisting net B, hexagonal polypropylene polyester double twisted wire demisting net C, and hexagonal polypropylene polyester double twisted wire demisting net D to vibrate to form sound waves of different wavelengths. Sound waves of different wavelengths promote the collision of water mist in the cooling water tower to form water droplets, and the water droplets fall into the cooling water tower. After the cooling water tower is finished working, the low-frequency diaphragm sonicator is turned off.

[0014] The beneficial effects of the utility model are as follows: 1. During the cooling process of the cooling tower, a large amount of water mist is generated. The probability of water mist colliding with each other is increased by using a sonic dehumidifier composed of columns A, beams A, crossbars B, rectangular spaces, hexagonal plates, low-frequency diaphragm sonicators, side beams, isosceles trapezoidal spaces, and polypropylene polyester twisted wire demisting nets A. The collision of water mist forms larger water droplets that fall in the cooling tower, saving water consumption in the power plant and reducing the amount of water mist that drifts outside the cooling tower. In winter, a small amount of water mist drifts in the air with the wind, effectively reducing the amount of ice near the cooling tower. 2. Support beams A are fixedly arranged on the upper part of each column A, and the other ends of each support beam A are intersected and fixed, and the support beams A are used to stabilize the spacing between the upper parts of each column A. 3. Reinforcing rods are fixedly arranged in the middle of each side beam, and the lower part of each reinforcing rod is fixedly connected to the adjacent support beam A, and the reinforcing rods are used to stabilize the structural strength between the adjacent side beams and support beams A. 4. Support beams B are fixedly arranged at the lower part of each column A, and the other ends of each support beam B are intersected and fixed, so that the support beams B can be used to stabilize the spacing between the lower parts of each column A. 5. Polypropylene polyester double-twisted wire demisting nets B are placed in each rectangular space, and each polypropylene polyester double-twisted wire demisting net B is fixedly connected to the adjacent columns A, beams A, and crossbars B, respectively. The polypropylene polyester double-twisted wire demisting nets B are more conducive to the directional transmission of sound waves emitted by the low-frequency diaphragm type sonicator. 6. The same hexagonal polypropylene polyester double-twisted wire demisting net C is fixedly arranged on the lower surface of each support beam A. The use of the hexagonal polypropylene polyester double-twisted wire demisting net C is conducive to the generation of sound waves of different wavelengths. 7. The same hexagonal polypropylene polyester double-twisted wire demisting net D is fixedly arranged on the lower surface of each support beam B. The use of the hexagonal polypropylene polyester double-twisted wire demisting net D is more conducive to the generation of sound waves of different wavelengths. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a structural schematic diagram of the utility model;

[0016] Figure 2 It is a structural schematic diagram of the utility model, which is a combination of a column A, a crossbeam A, a crossbar B, a hexagonal plate, a low-frequency diaphragm type sonicator, a side beam, a support beam A, a reinforcing rod, and a support beam B;

[0017] Figure 3 It is a finished product picture of the utility model cooling tower.

[0018] Among them, 1-column A; 2-crossbeam A; 3-crossbar B; 4-rectangular space; 5-hexagonal plate; 6-low-frequency diaphragm type sonicator; 7-side beam; 8-isosceles trapezoidal space; 9-support beam A; 10-reinforcement rod; 11-support beam B; 12-polyester double twisted wire demisting net A; 13-polyester double twisted wire demisting net B; 14-hexagonal polyester double twisted wire demisting net C; 15-hexagonal polyester double twisted wire demisting net D. DETAILED DESCRIPTION

[0019] The embodiments of the present utility model are further described below in conjunction with the accompanying drawings.

[0020] like Figures 1 to 3 As shown, the utility model provides a cooling tower sonic dehumidifier, comprising a column A1, a beam A2, a crossbar B3, a rectangular space 4, a hexagonal plate 5, a low-frequency diaphragm sonicator 6, a side beam 7, an isosceles trapezoidal space 8 and a polypropylene polyester twisted double-filament demisting net A12, six columns A1 are evenly arranged on the ground, crossbars A2 are fixedly arranged between the lower parts of each adjacent column A1, crossbars B3 are fixedly arranged between the upper parts of each adjacent column A1, and rectangular spaces are formed between each adjacent column A1, crossbars A2 and crossbars B3. Space 4, the same hexagonal plate 5 is arranged on the upper side of each of the columns A1, and a low-frequency diaphragm type sonicator 6 is fixedly passed through the hexagonal plate 5, and the upper part of each of the columns A1 is fixedly connected to the lower surface of the hexagonal plate 5, and an isosceles trapezoidal space 8 is surrounded by each adjacent cross bar B3, hexagonal plate 5, and side beam 7, and a polypropylene polyester twisted wire demisting net A12 is placed in each of the isosceles trapezoidal spaces 8, and each of the polypropylene polyester twisted wire demisting nets A12 is fixedly connected to the adjacent cross bar B3, hexagonal plate 5, and side beam 7.

[0021] At the same time, if Figure 2 As shown, in this embodiment, support beams A9 are fixedly provided on the upper part of each column A1, and the other ends of each support beam A9 are intersected and fixed, so that the support beams A9 can be used to stabilize the distance between the upper parts of each column A1.

[0022] At the same time, if Figure 2 As shown, in this embodiment, a reinforcing rod 10 is fixedly provided in the middle of each side beam 7, and the lower part of each reinforcing rod 10 is fixedly connected to the adjacent support beam A9. The reinforcing rod 10 is used to stabilize the structural strength between the adjacent side beams 7 and the support beam A9.

[0023] At the same time, if Figure 2 As shown, in this embodiment, support beams B11 are fixedly provided at the lower part of each column A1, and the other ends of each support beam B11 are intersected and fixed, so that the support beams B11 can be used to stabilize the distance between the lower parts of each column A1.

[0024] At the same time, if Figure 1 , Figure 3 As shown, in the present embodiment, a polypropylene polyester twisted wire demisting net B13 is placed in each of the rectangular spaces 4, and each of the polypropylene polyester twisted wire demisting nets B13 is fixedly connected to the adjacent columns A1, beams A2, and crossbars B3, respectively. The polypropylene polyester twisted wire demisting net B13 is more conducive to the directional transmission of the sound waves emitted by the low-frequency diaphragm type sonicator 6.

[0025] At the same time, if Figure 1 As shown, in this embodiment, the same hexagonal polypropylene polyester twisted wire demisting net C14 is fixedly provided on the lower surface of each supporting beam A9. The use of the hexagonal polypropylene polyester twisted wire demisting net C14 is conducive to generating sound waves of different wavelengths.

[0026] The same hexagonal polypropylene polyester twisted double-filament demisting net D15 is fixedly arranged on the lower surface of each of the support beams B11. The use of the hexagonal polypropylene polyester twisted double-filament demisting net D15 is more conducive to generating sound waves of different wavelengths.

[0027] The working principle of this specific implementation method is as follows: a combination of a plurality of columns A1, a beam A2, a crossbar B3, a hexagonal plate 5, a low-frequency diaphragm type sonicator 6, a side beam 7, a support beam A9, a reinforcing rod 10, a support beam B11, a polypropylene polyester double twisted wire demisting net A12, a polypropylene polyester double twisted wire demisting net B13, a hexagonal polypropylene polyester double twisted wire demisting net C14, and a hexagonal polypropylene polyester double twisted wire demisting net D15 are fixedly arranged in mid-air in the cooling tower;

[0028] During the operation of the cooling water tower, the low-frequency diaphragm type sonicator 6 is turned on, and the sound waves emitted by the low-frequency diaphragm type sonicator 6 drive the polypropylene polyester double twisted wire demisting net A12, the polypropylene polyester double twisted wire demisting net B13, the hexagonal polypropylene polyester double twisted wire demisting net C14, and the hexagonal polypropylene polyester double twisted wire demisting net D15 to vibrate to form sound waves of different wavelengths. The sound waves of different wavelengths promote the collision of water mist in the cooling water tower to form water droplets, and the water droplets fall into the cooling water tower. After the operation of the cooling water tower is completed, the low-frequency diaphragm type sonicator 6 is turned off;

[0029] In summary, when the present embodiment is in use, the column A1, the beam A2, the cross bar B3, the hexagonal plate 5, the low-frequency diaphragm sonicator 6, the side beam 7, the support beam A9, the reinforcing rod 10, the support beam B11, the polypropylene polyester twisted wire demisting net A12, the polypropylene polyester twisted wire demisting net B13, the hexagonal polypropylene polyester twisted wire demisting net C14, and the hexagonal polypropylene polyester twisted wire demisting net D15 are assembled into a cooling tower sonic dehumidifier. During the cooling process of the cooling tower, a large amount of water mist is generated. The cooling tower sonic dehumidifier increases the probability of the water mist colliding with each other. The water mist collides to form larger water droplets that fall in the cooling tower, saving the water consumption of the power plant and reducing the amount of water mist that drifts outside the cooling tower. In winter, a small amount of water mist drifts in the air with the wind, effectively reducing the amount of ice near the cooling tower.

[0030] The beneficial effects of the utility model are as follows: 1. During the cooling process of the cooling tower, a large amount of water mist is generated. The probability of water mist colliding with each other is increased by using a sonic dehumidifier composed of columns A, beams A, crossbars B, rectangular spaces, hexagonal plates, low-frequency diaphragm sonicators, side beams, isosceles trapezoidal spaces, and polypropylene polyester twisted wire demisting nets A. The collision of water mist forms larger water droplets that fall in the cooling tower, saving water consumption in the power plant and reducing the amount of water mist that drifts outside the cooling tower. In winter, a small amount of water mist drifts in the air with the wind, effectively reducing the amount of ice near the cooling tower. 2. Support beams A are fixedly arranged on the upper part of each column A, and the other ends of each support beam A are intersected and fixed, and the support beams A are used to stabilize the spacing between the upper parts of each column A. 3. Reinforcing rods are fixedly arranged in the middle of each side beam, and the lower part of each reinforcing rod is fixedly connected to the adjacent support beam A, and the reinforcing rods are used to stabilize the structural strength between the adjacent side beams and support beams A. 4. Support beams B are fixedly arranged at the lower part of each column A, and the other ends of each support beam B are intersected and fixed, so that the support beams B can be used to stabilize the spacing between the lower parts of each column A. 5. Polypropylene polyester double-twisted wire demisting nets B are placed in each rectangular space, and each polypropylene polyester double-twisted wire demisting net B is fixedly connected to the adjacent columns A, beams A, and crossbars B, respectively. The polypropylene polyester double-twisted wire demisting nets B are more conducive to the directional transmission of sound waves emitted by the low-frequency diaphragm type sonicator. 6. The same hexagonal polypropylene polyester double-twisted wire demisting net C is fixedly arranged on the lower surface of each support beam A. The use of the hexagonal polypropylene polyester double-twisted wire demisting net C is conducive to the generation of sound waves of different wavelengths. 7. The same hexagonal polypropylene polyester double-twisted wire demisting net D is fixedly arranged on the lower surface of each support beam B. The use of the hexagonal polypropylene polyester double-twisted wire demisting net D is more conducive to the generation of sound waves of different wavelengths.

[0031] The specific embodiments of the present utility model do not constitute a limitation of the present utility model. All similar structures and changes of the present utility model are within the protection scope of the present utility model.

Claims

1. A cooling tower acoustic dehumidifier, characterized in that: The invention comprises a column A (1), a beam A (2), a crossbar B (3), a rectangular space (4), a hexagonal plate (5), a low-frequency diaphragm type sonicator (6), a side beam (7), an isosceles trapezoidal space (8), and a polypropylene polyester twisted wire demisting net A (12). Six columns A (1) are evenly distributed on the ground. A crossbar A (2) is fixedly arranged between the lower parts of each adjacent column A (1). A crossbar B (3) is fixedly arranged between the upper parts of each adjacent column A (1). A rectangular space (4) is surrounded by each adjacent column A (1), a crossbar A (2), and a crossbar B (3). Each column A hexagonal plate (5) is arranged on the upper side of A (1), a low-frequency diaphragm type sonicator (6) is fixedly passed through the hexagonal plate (5), the upper part of each of the upright posts A (1) is fixedly connected to the lower surface of the hexagonal plate (5), an isosceles trapezoidal space (8) is surrounded by each of the adjacent cross bars B (3), hexagonal plates (5), and side beams (7), a polypropylene polyester twisted wire demisting net A (12) is placed in each of the isosceles trapezoidal spaces (8), and each of the polypropylene polyester twisted wire demisting nets A (12) is fixedly connected to the adjacent cross bars B (3), hexagonal plates (5), and side beams (7).

2. A cooling tower acoustic dehumidifier as claimed in claim 1, characterized in that: A support beam A (9) is fixedly arranged on the upper part of each of the upright columns A (1), and the other ends of each of the support beams A (9) are intersected and fixed.

3. A cooling tower acoustic dehumidifier as claimed in claim 1, characterized in that: A reinforcing rod (10) is fixedly arranged in the middle of each of the side beams (7), and a lower portion of each of the reinforcing rods (10) is fixedly connected to an adjacent supporting beam A (9).

4. A cooling tower acoustic dehumidifier as claimed in claim 1, characterized in that: A support beam B (11) is fixedly arranged at the lower part of each of the upright columns A (1), and the other ends of each of the support beams B (11) are intersected and fixed.

5. The cooling tower acoustic dehumidifier according to claim 1, characterized in that: A polypropylene polyester double-twisted wire demisting net B (13) is placed in each of the rectangular spaces (4), and each of the polypropylene polyester double-twisted wire demisting nets B (13) is fixedly connected to the adjacent columns A (1), beams A (2), and crossbars B (3).

6. A cooling tower acoustic dehumidifier as claimed in claim 3, characterized in that: The same hexagonal polypropylene polyester twisted wire demisting net C (14) is fixedly arranged on the lower surface of each of the support beams A (9).

7. A cooling tower acoustic dehumidifier as claimed in claim 4, characterized in that: The same hexagonal polypropylene polyester twisted double-filament demisting net D (15) is fixedly arranged on the lower surface of each of the support beams B (11).

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