Rhombic vortex water pipe
Through the design of diamond vortex water pipes, spiral flow and bubbles are formed using U-shaped pipes and vortex interfaces, which solves the problem of low drainage efficiency of traditional straight pipes and achieves efficient and rapid drainage.
Patent Information
- Application Number
- CN202422506307.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-17
- Publication Date
- 2025-07-08
- Estimated Expiration
- 2034-10-17
AI Technical Summary
The traditional straight pipe drainage method is inefficient in large flow or fast drainage scenarios, and cannot effectively generate vortex and air pressure differences, resulting in slow drainage speed.
The diamond-shaped vortex water pipe structure is adopted, and the U-shaped pipe and vortex interface design allows the water flow to form a spiral flow in the pipe and generates bubbles and air pressure difference, which promotes the accelerated discharge of the water flow.
Improve drainage efficiency and speed to meet the needs of efficient drainage.
Smart Images
Figure CN223076551U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of drainage pipes, and particularly relates to a diamond-shaped vortex water pipe. Background Art
[0002] A drain pipe is a part of a pipe system for discharging liquids (usually water). The materials of drain pipes are diverse, and common ones include PVC (polyvinyl chloride), cast iron, stainless steel, PE (polyethylene), etc. They are widely used. For example, in buildings, they are used to discharge domestic sewage and rainwater; in the industrial field, they are used to discharge wastewater during the production process; in municipal engineering, they are used for the construction of drainage systems, etc.
[0003] However, traditional drain pipes mostly adopt a straight pipe structure. There are many problems in the drainage process of such straight pipes. Generally, the water flow is relatively stable in the straight pipe, making it difficult to generate effective vortices, resulting in a relatively small gas content in the pipe, which affects the drainage efficiency. When the water flow encounters a branch in the straight pipe, due to the limitation of the pipe wall structure, the impact force of the water flow cannot be fully utilized, and it is impossible to effectively generate bubbles and air pressure changes, making it difficult to form an air pressure difference that promotes the accelerated discharge of the water flow. This makes the traditional straight pipe drainage method often show the deficiencies of slow drainage speed and low efficiency when dealing with large-flow drainage or scenarios that require rapid drainage, and it cannot meet the demand for efficient drainage in practical applications. Summary of the Utility Model
[0004] (I) Technical Problems to be Solved
[0005] In view of the deficiencies of the prior art, the utility model provides a diamond-shaped vortex water pipe, which solves the technical problems that traditional drain pipes mostly adopt a straight pipe structure, and there are many problems in the drainage process of such straight pipes. Generally, the water flow is relatively stable in the straight pipe, making it difficult to generate effective vortices, resulting in a relatively small gas content in the pipe, which affects the drainage efficiency. When the water flow encounters a branch in the straight pipe, due to the limitation of the pipe wall structure, the impact force of the water flow cannot be fully utilized, and it is impossible to effectively generate bubbles and air pressure changes, making it difficult to form an air pressure difference that promotes the accelerated discharge of the water flow. This makes the traditional straight pipe drainage method often show the deficiencies of slow drainage speed and low efficiency when dealing with large-flow drainage or scenarios that require rapid drainage, and it cannot meet the demand for efficient drainage in practical applications.
[0006] (II) Technical Solutions
[0007] To achieve the above objectives, the utility model is realized through the following technical solutions:
[0008] A diamond-shaped vortex water pipe, comprising a water tank and a short pipe. The middle of the short pipe is installed on the side wall of the water tank. One end of the short pipe away from the water tank is installed with a first double-pass interface. One end of the first double-pass interface away from the short pipe is installed with a first straight short pipe. One end of the first straight short pipe away from the first double-pass interface is installed with a second double-pass interface. One end of the second double-pass interface away from the first straight short pipe is installed with a second straight short pipe. One end of the second straight short pipe away from the second double-pass interface is installed with a third double-pass interface. One end of the third double-pass interface away from the second straight short pipe is installed with a first vortex water pipe. One end of the first vortex water pipe away from the third double-pass interface is installed with a first Y-shaped interface. Two second vortex water pipes are installed on the two interfaces of the first Y-shaped interface. One end of the two second vortex water pipes away from the first Y-shaped interface is installed with a fourth double-pass interface. One end of the two fourth double-pass interfaces away from the two second vortex water pipes is installed with a third vortex water pipe.
[0009] Preferably: One end of the two third vortex water pipes away from the two fourth double-pass interfaces is installed with a second Y-shaped interface. One end of the short pipe away from the water tank is installed with a fifth double-pass interface. One end of the fifth double-pass interface away from the short pipe is installed with a third straight short pipe.
[0010] Preferably: Each of the second vortex water pipes and the third vortex water pipes is provided with two. The installation angle between the two second vortex water pipes and the two third vortex water pipes is °. The two second vortex water pipes and the two third vortex water pipes form a square. The two second vortex water pipes and the third vortex water pipes have the same length.
[0011] Preferably: The third straight short pipe, the fifth double-pass interface, the short pipe, the first double-pass interface and the first straight short pipe are combined in a U shape.
[0012] (III) Beneficial effects
[0013] First, by improving the straight pipe structure to make it a diamond-shaped vortex pipe, the inside of the vortex straight pipe is composed of a vortex shape. When water flows through the U-shaped pipe and enters the vortex pipe, it is easier to generate a vortex. There is more gas in the vortex flow. Inside the diamond-shaped pipe, when the water flow encounters a branch, it collides with the Y-shaped pipe wall, generating bubbles and generating air pressure, making the air pressure on the left and right unstable, forming an air pressure difference, promoting the accelerated discharge of the water flow, and increasing the practicability of the pipe. Brief description of the drawings
[0014] The above description is only an overview of the technical solution of the present invention. In order to be able to understand the technical means of the present invention more clearly and implement it according to the content of the description, the following takes the preferred embodiment of the present invention and combines the drawings to describe it in detail as follows.
[0015] Figure 1This is the schematic plan view of the utility model.
[0016] Legend: 1. Water tank; 2. Short pipe; 3. First double-pass interface; 4. First straight short pipe; 5. Second double-pass interface; 6. Second straight short pipe; 7. Third double-pass interface; 8. First vortex-shaped water pipe; 9. First Y-shaped interface; 10. Second vortex-shaped water pipe; 11. Fourth double-pass interface; 12. Third vortex-shaped water pipe; 13. Second Y-shaped interface; 14. Fifth double-pass interface; 15. Third straight short pipe. Detailed implementation mode
[0017] In the embodiment of the present application, by providing a diamond-shaped vortex water pipe, it effectively solves the problems existing in the traditional drain pipes which mostly adopt a straight pipe structure. Usually, the water flow is relatively stable in the straight pipe, making it difficult to generate effective vortices, resulting in a relatively small gas content in the pipe and affecting the drainage efficiency. When the water flow encounters a branch in the straight pipe, due to the limitation of the pipe wall structure, the impact force of the water flow cannot be fully utilized, and it is difficult to effectively generate bubbles and air pressure changes, making it difficult to form an air pressure difference to promote the accelerated discharge of the water flow. This makes the traditional straight pipe drainage method often show the deficiencies of slow drainage speed and low efficiency when dealing with large-flow drainage or scenarios requiring rapid drainage, and it cannot meet the demand for efficient drainage in practical applications. This device improves the straight pipe structure to make it a diamond-shaped vortex pipe. The inside of the vortex straight pipe is composed of a vortex shape, and the water flow is more likely to generate vortices after entering the vortex pipe through the U-shaped pipe. There is more gas in the vortex flow. Inside the diamond-shaped pipe, when the water flow encounters a branch, it impacts the Y-shaped pipe wall, generating bubbles and air pressure, making the air pressure on both sides unstable, forming an air pressure difference, and promoting the accelerated discharge of the water flow, increasing the practicability of this pipe.
[0018] Embodiment
[0019] As Figure 1As shown, the technical solution in the embodiment of the present application effectively solves the technical problem that traditional drain pipes mostly adopt a straight pipe structure. There are many problems with such straight pipes during the drainage process. Generally, the water flow is relatively stable in the straight pipe, making it difficult to generate effective vortices, resulting in a relatively small amount of gas in the pipe, which affects the drainage efficiency. When the water flow encounters a branch in the straight pipe, due to the limitation of the pipe wall structure, the impact force of the water flow cannot be fully utilized, and it is impossible to effectively generate bubbles and air pressure changes, making it difficult to form an air pressure difference to promote the accelerated discharge of the water flow. This makes the traditional straight pipe drainage method often show the deficiencies of slow drainage speed and low efficiency when dealing with large-flow drainage or scenarios that require rapid drainage, and it cannot meet the demand for efficient drainage in practical applications. The general idea is as follows: A diamond-shaped vortex water pipe, including a water tank 1 and a short pipe 2. The middle of the short pipe 2 is installed on the side wall of the water tank 1. A first double-pass interface 3 is installed at one end of the short pipe 2 away from the water tank 1. A first straight short pipe 4 is installed at one end of the first double-pass interface 3 away from the short pipe 2. A second double-pass interface 5 is installed at one end of the first straight short pipe 4 away from the first double-pass interface 3. A second straight short pipe 6 is installed at one end of the second double-pass interface 5 away from the first straight short pipe 4. A third double-pass interface 7 is installed at one end of the second straight short pipe 6 away from the second double-pass interface 5. A first vortex water pipe 8 is installed at one end of the third double-pass interface 7 away from the second straight short pipe 6. A first Y-shaped interface 9 is installed at one end of the first vortex water pipe 8 away from the third double-pass interface 7. Second vortex water pipes 10 are installed on both interfaces of the first Y-shaped interface 9. Third vortex water pipes 12 are installed at one end of the two second vortex water pipes 10 away from the first Y-shaped interface 9. A second Y-shaped interface 13 is installed at one end of the two third vortex water pipes 12 away from the two fourth double-pass interfaces 11. A fifth double-pass interface 14 is installed at one end of the short pipe 2 away from the water tank 1. A third straight short pipe 15 is installed at one end of the fifth double-pass interface 14 away from the short pipe 2. Each of the second vortex water pipes 10 and the third vortex water pipes 12 is provided with two. The two second vortex water pipes 10 and the third vortex water pipes 12 have the same length. The installation angle between the two second vortex water pipes 10 and the third vortex water pipes 12 is 90°. The two second vortex water pipes 10 and the third vortex water pipes 12 form a square. The third straight short pipe 15, the fifth double-pass interface 14, the short pipe 2, the first double-pass interface 3, and the first straight short pipe 4 are combined into a U shape. When in use, the water flow first enters the U-shaped pipe part formed by the third straight short pipe 15, the fifth double-pass interface 14, the short pipe 2, the first double-pass interface 3, and the first straight short pipe 4 through a pump. Then, when the water flow passes through the second straight short pipe 6 and enters the first vortex water pipe 8, it will change from a direct current to a spiral state. At this time, the water flow speed increases and it carries some bubbles. After the water flow passes through the first Y-shaped interface 9, it is divided into two parts and enters the second vortex water pipes 10 on both sides and enters the third vortex water pipes 12 through the fourth double-pass interfaces 11 on both sides.There are two working states hereafter; State 1: Bubbles enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11, and the third vortex-shaped water pipe 12 on the right side, making the pressure inside the second vortex-shaped water pipe 10, the fourth double-pass interface 11, and the third vortex-shaped water pipe 12 on the right side higher than that on the left side. The pressure forces the bubbles at the inlet to enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11, and the third vortex-shaped water pipe 12 on the left side; State 2: Bubbles enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11, and the third vortex-shaped water pipe 12 on the left side, making the pressure inside the second vortex-shaped water pipe 10, the fourth double-pass interface 11, and the third vortex-shaped water pipe 12 on the left side higher than that on the right side. The pressure forces the bubbles at the inlet to enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11, and the third vortex-shaped water pipe 12 on the right side; The two states interact with each other to form a cycle. The bubbles in the water flow make up for the pressure missing due to the water flow passing through in the water pipe, making the water flow faster and the flow rate uniform.,
[0020] Aiming at the problems existing in the prior art, the utility model provides a diamond-shaped vortex water pipe. By improving the structure of the straight pipe, the device is made into a diamond-shaped vortex pipe. The inside of the vortex straight pipe is composed of a vortex shape. When the water flow enters the vortex pipe through the U-shaped pipe, it is easier to generate a vortex. There is more gas in the vortex flow. Inside the diamond-shaped pipe, when the water flow encounters a branch, it collides with the Y-shaped pipe wall, generating bubbles and air pressure, making the air pressure on the left and right unstable, forming an air pressure difference, promoting the accelerated discharge of the water flow, and increasing the practicability of the pipe.
[0021] Working principle:
[0022] In the first step, when in use, the water flow first flows into the U-shaped pipe part composed of the third straight short pipe 15, the fifth double-pass interface 14, the short pipe 2, the first double-pass interface 3, and the first straight short pipe 4 through a pump. Then when the water flow passes through the second straight short pipe 6 and enters the first vortex-shaped water pipe 8, it will change from a direct current state to a spiral state. At this time, the water flow speed increases, and it carries some bubbles;
[0023] Second step, the water flow is divided into the second vortex-shaped water pipes 10 on both sides after passing through the first Y-shaped interface 9 and enters the third vortex-shaped water pipe 12 through the fourth double-pass interfaces 11 on both sides. After that, there are two working states; State 1, the air bubbles enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11 and the third vortex-shaped water pipe 12 on the right side, making the pressure in the second vortex-shaped water pipe 10, the fourth double-pass interface 11 and the third vortex-shaped water pipe 12 on the right side higher than that on the left side. The pressure forces the air bubbles at the inlet to enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11 and the third vortex-shaped water pipe 12 on the left side; State 2, the air bubbles enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11 and the third vortex-shaped water pipe 12 on the left side, making the pressure in the second vortex-shaped water pipe 10, the fourth double-pass interface 11 and the third vortex-shaped water pipe 12 on the left side higher than that on the right side. The pressure forces the air bubbles at the inlet to enter the second vortex-shaped water pipe 10, the fourth double-pass interface 11 and the third vortex-shaped water pipe 12 on the right side; The two states interact with each other to form a cycle. The air bubbles in the water flow make up for the pressure missing due to the water flow passing through in the water pipes, making the water flow faster and the flow rate uniform.
[0024] Finally, it should be noted that: Obviously, the above embodiments are only examples for clearly explaining the present invention, rather than limitations on the implementation manners. For those of ordinary skill in the art, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to enumerate all the implementation manners here. And the obvious changes or modifications derived therefrom are still within the protection scope of the present invention.
Claims
1. A diamond-shaped vortex water pipe, comprising a water tank (1) and a short pipe (2), wherein the middle part of the short pipe (2) is installed on the side wall of the water tank (1), and is characterized in that, One end of the short pipe (2) far away from the water tank (1) is equipped with a first double-pass interface (3). One end of the first double-pass interface (3) far away from the short pipe (2) is equipped with a first straight short pipe (4). One end of the first straight short pipe (4) far away from the first double-pass interface (3) is equipped with a second double-pass interface (5). One end of the second double-pass interface (5) far away from the first straight short pipe (4) is equipped with a second straight short pipe (6). One end of the second straight short pipe (6) far away from the second double-pass interface (5) is equipped with a third double-pass interface (7). One end of the third double-pass interface (7) far away from the second straight short pipe (6) is equipped with a first vortex-shaped water pipe (8). One end of the first vortex-shaped water pipe (8) far away from the third double-pass interface (7) is equipped with a first Y-shaped interface (9). Wherein, second vortex-shaped water pipes (10) are installed on both interfaces of the first Y-shaped interface (9). One end of each of the two second vortex-shaped water pipes (10) far away from the first Y-shaped interface (9) is equipped with a fourth double-pass interface (11). One end of each of the two fourth double-pass interfaces (11) far away from the two second vortex-shaped water pipes (10) is equipped with a third vortex-shaped water pipe (12).
2. The rhombic vortex water pipe according to claim 1, characterized in that, One end of the two third vortex-shaped water pipes (12) far away from the two fourth double-pass interfaces (11) is equipped with a second Y-shaped interface (13).
3. A rhombic vortex water pipe as claimed in claim 1, wherein One end of the short pipe (2) far away from the water tank (1) is equipped with a fifth double-pass interface (14). One end of the fifth double-pass interface (14) far away from the short pipe (2) is equipped with a third straight short pipe (15).
4. The diamond-shaped vortex water pipe according to claim 3, characterized in that, There are two second vortex-shaped water pipes (10) and two third vortex-shaped water pipes (12) respectively. The two second vortex-shaped water pipes (10) and the two third vortex-shaped water pipes (12) have the same length.
5. The diamond-shaped vortex water pipe according to claim 4, characterized in that, The installation angle between the two second vortex-shaped water pipes (10) and the two third vortex-shaped water pipes (12) is 90°. The two second vortex-shaped water pipes (10) and the two third vortex-shaped water pipes (12) form a square.
6. The diamond-shaped vortex water pipe according to claim 5, wherein The third straight short pipe (15), the fifth double-pass interface (14), the short pipe (2), the first double-pass interface (3) and the first straight short pipe (4) are combined into a U shape.