Intelligent adding device of sodium hypochlorite generator

Abstract

The utility model discloses an intelligent feeding device of a sodium hypochlorite generator, which belongs to the field of water source purification and comprises a sodium hypochlorite generator and a purification water tank, a storage tank is arranged on one side of a discharge port of the sodium hypochlorite generator, and the sodium hypochlorite generator is connected with a feed port of the storage tank through a connecting pipeline. A feeding metering pump is arranged at a discharge port of the storage tank and is connected with the purified water tank through a connecting pipeline, and a flow dividing pipe is arranged at a water outlet of the feeding metering pump. Compared with the prior art, the device disclosed by the utility model has the advantages that a sodium hypochlorite solution is dispersed to each area of the purification water tank through the shunt pipe, and then is pressurized through the pressure pump at the branch pipe end of the shunt pipe, so that the single-opening porous shunt pipeline at the water outlet of the pressure pump can have higher pressure intensity; and the sodium hypochlorite solution is uniformly sprayed out from the diversion port of the single-opening porous diversion pipeline, so that the water source in the purification water tank can be uniformly purified.

Description

Technical Field

[0001] The utility model relates to the field of water source purification, in particular to an intelligent dosing device for a sodium hypochlorite generator. Background Art

[0002] In human daily life, water resources are the most important part. Its purity affects the lives of many people. In order to purify impurities in water, people usually add sodium hypochlorite into filtered water for disinfection. Because sodium hypochlorite has certain toxicity, the requirement for its addition is very strict. In large water purification plants, in order to ensure the net content of sodium hypochlorite, a sodium hypochlorite generator is usually set up next to the pool for backup.

[0003] The existing sodium hypochlorite generator is mostly dosed in an intelligent manner. The required amount of sodium hypochlorite is calculated by the water flow injected into the purification pool. A dosing pump is connected to the water outlet of the storage tank next to the sodium hypochlorite generator. After setting the required dosage, the dosing pump is turned on and injected into the pool for disinfection through a pipe connected to the water outlet of the dosing pump.

[0004] Although the structure of this intelligent dosing device of sodium hypochlorite generator can ensure the accuracy of input amount, the injection of sodium hypochlorite solution is usually after the water source is added. Therefore, most of the sodium hypochlorite solution accumulates in one place and is difficult to be evenly distributed in the water pool, resulting in uneven water purification. Utility Model Content

[0005] The technical problem to be solved by the utility model is that the existing intelligent dosing device for sodium hypochlorite generator cannot uniformly add sodium hypochlorite into the water pool.

[0006] In order to solve the above technical problems, the technical solution provided by the utility model is as follows: an intelligent dosing device for a sodium hypochlorite generator, comprising a sodium hypochlorite generator and a purified water pool, a storage tank is provided on one side of the discharge port of the sodium hypochlorite generator, the sodium hypochlorite generator is connected to the feed port of the storage tank through a connecting pipe, a dosing metering pump is provided at the discharge port of the storage tank, the dosing metering pump is connected to the purified water pool through a connecting pipe, a shunt pipe is provided at the water outlet of the dosing metering pump, a pressure pump is provided at the branch pipe water outlet of the shunt pipe, a single open multi-porous shunt pipe is provided at the water outlet of the pressure pump, the single open multi-porous shunt pipe passes through the side wall of the purified water pool, a fixed frame is provided at the closed end of the single open multi-porous shunt pipe, and the side wall of the purified water pool and the bottom surface of the single open multi-porous shunt pipe are connected to the fixed frame through a bolt structure.

[0007] As an improvement, the dosing metering pump and the pressure pump are both connected to the controller of the sodium hypochlorite generator via a wire.

[0008] As an improvement, the water inlet of the diverter pipe and the water outlet of the storage tank are both connected to the dosing metering pump via threads, and the branch pipe water outlet of the diverter pipe is connected to the water inlet of the booster pump via threads.

[0009] As an improvement, the single open multi-porous diversion pipeline is made of a plastic hose.

[0010] As an improvement, the open end of the single-open multi-porous diversion pipe is connected to the water outlet of the pressure pump through body contact.

[0011] As an improvement, a fixing buckle is provided on the outer wall of the single-open multi-porous diversion pipeline.

[0012] Compared with the prior art, the utility model has the following advantages: the device disperses the sodium hypochlorite solution to various areas of the purification pool through the shunt pipe, and then pressurizes it through the pressure pump at the branch end of the shunt pipe, so that the single open multi-porous shunt pipe at the outlet of the pressure pump can have a higher pressure, and the sodium hypochlorite solution is evenly sprayed out from the shunt port of the single open multi-porous shunt pipe, ensuring that the water source in the purification pool can be evenly purified. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 The utility model discloses a general structural diagram of an intelligent dosing device for a sodium hypochlorite generator.

[0014] Figure 2 It is an enlarged view of a pressure pump of an intelligent dosing device for a sodium hypochlorite generator of the utility model.

[0015] Figure 3 The utility model discloses a shunt pipe structure diagram of an intelligent dosing device for a sodium hypochlorite generator.

[0016] Figure 4 The utility model discloses a cross-sectional view of a single open multi-hole flow dividing pipe of an intelligent dosing device for a sodium hypochlorite generator.

[0017] As shown in the figure: 1. Sodium hypochlorite generator; 2. Purification pool; 3. Storage tank; 4. Dosing metering pump; 5. Diversion pipe; 6. Pressure pump; 7. Single open multi-porous diversion pipe; 71. Fixing buckle; 8. Fixing frame. DETAILED DESCRIPTION

[0018] The utility model is further described in detail below in conjunction with the accompanying drawings.

[0019] As the instruction manual Figure 1 , 2As shown, it includes a sodium hypochlorite generator 1 and a purified water pool 2, a storage tank 3 is provided on one side of the discharge port of the sodium hypochlorite generator 1, the sodium hypochlorite generator 1 is connected to the feed port of the storage tank 3 through a connecting pipe, a dosing metering pump 4 is provided at the discharge port of the storage tank 3, the dosing metering pump 4 is connected to the purified water pool 2 through a connecting pipe, the dosing metering pump 4 is connected to the controller of the sodium hypochlorite generator 1 through a wire, the sodium hypochlorite solution generated by the sodium hypochlorite generator 1 is stored through the storage tank 3, and when new water flows into the purified water pool 2, the water flow rate to be output by the dosing metering pump 4 is adjusted according to the injected water flow rate.

[0020] As the instruction manual Figure 1 , 3 As shown in Figure 4, the outlet of the dosing metering pump 4 is provided with a shunt pipe 5, and the branch outlet of the shunt pipe 5 is provided with a booster pump 6. The water inlet of the shunt pipe 5 and the water outlet of the storage tank 3 are both connected to the dosing metering pump 4 through threads, and the branch outlet of the shunt pipe 5 is connected to the water inlet of the booster pump 6 through threads. The booster pump 6 is connected to the controller of the sodium hypochlorite generator 1 through a wire, and the sodium hypochlorite solution is distributed to various areas of the purified water pool 2 through the shunt pipe 5 to ensure that the sodium hypochlorite solution can be evenly distributed in the purified water pool 2.

[0021] The outlet of the booster pump 6 is provided with a single open multi-porous shunt pipe 7, the material of the single open multi-porous shunt pipe 7 is a plastic hose, the open end of the single open multi-porous shunt pipe 7 is connected with the outlet of the booster pump 6 through the body contact, and a fixing buckle 71 is provided on the outer wall of the pipe of the single open multi-porous shunt pipe 7, and the open end of the single open multi-porous shunt pipe 7 is fixedly connected with the outlet of the booster pump 6 by using the fixing buckle 71, so that the single open multi-porous shunt pipe 7 is easy to disassemble and replace. The single open multi-porous diversion pipe 7 passes through the side wall of the purified water pool 2, and a fixing frame 8 is provided at the closed end of the single open multi-porous diversion pipe 7. The side wall of the purified water pool 2 and the bottom surface of the single open multi-porous diversion pipe 7 are connected to the fixing frame 8 through a bolt structure. Each single open multi-porous diversion pipe 7 is fixed by the fixing frame 8, so that the single open multi-porous diversion pipe 7 can be stably fixed in the purified water pool 2, thereby preventing the single open multi-porous diversion pipe 7 from swinging arbitrarily under the impact of the pressure pump 6.

[0022] During the specific implementation of the utility model, the feed port of the storage tank 3 is aligned with the discharge port of the sodium hypochlorite generator 1, and the two are connected by a connecting pipe. The thread of the water inlet of the dosing metering pump 4 is screwed into the screw hole of the discharge port of the storage tank 3 for fixing, and the thread of the water outlet of the dosing metering pump 4 is screwed into the water inlet screw hole of the shunt pipe 5; the water inlet thread of the booster pump 6 is screwed into the water outlet screw hole of the shunt pipe 5 for fixing; a fixing buckle 71 is put on the outer wall of the single open multi-porous shunt pipe 7, and the open end of the single open multi-porous shunt pipe 7 is fixed. The mouth is put on the water outlet of the booster pump 6, and the fixing buckle 71 is tightened to fix the single open multi-porous diversion pipe 7 on the water outlet of the booster pump 6; the single open multi-porous diversion pipe 7 passes through the through hole of the purified water pool 2, and the screw holes on the bottom surface of each single open multi-porous diversion pipe 7 are aligned with the screw holes on the side of the fixing frame 8 in sequence, and screwed in to fix; the screw holes on the side of the fixing frame 8 are aligned with the screw holes on the side of the purified water pool 2, and screwed in to fix; the dosing metering pump 4 and the booster pump 6 are all connected to the controller of the sodium hypochlorite generator 1 using wires.

[0023] When in use, the sodium hypochlorite generator 1 is turned on, and the generated sodium hypochlorite solution is injected into the storage tank 3 through the connecting pipe for standby. When the purified water pool 2 replaces a new water source, the flow rate of the new water source is recorded, and the output of the dosing metering pump 4 is controlled by the controller of the sodium hypochlorite generator 1. Then, the booster pump 6 is turned on, and the sodium hypochlorite solution in the storage tank 3 is sprayed out from the diversion port of the single open multi-porous diversion pipe 7 through the pressurization of the booster pump 6, so that it is evenly sprayed on various areas of the branch pipes of the diversion pipe 5, so as to ensure that the water source in the purified water pool 2 can be evenly purified.

[0024] The above description of the utility model and its implementation methods is not restrictive. The drawings show only one implementation method of the utility model, and the actual structure is not limited thereto. In short, if ordinary technicians in this field are inspired by it and design structural methods and embodiments similar to the technical solution without creativity without departing from the purpose of the invention of the utility model, they should all fall within the protection scope of the utility model.

Claims

1. An intelligent dosing device for a sodium hypochlorite generator, comprising a sodium hypochlorite generator (1) and a purified water pool (2), wherein a storage tank (3) is provided on one side of a discharge port of the sodium hypochlorite generator (1), the sodium hypochlorite generator (1) is connected to a feed port of the storage tank (3) via a connecting pipe, a dosing metering pump (4) is provided at the discharge port of the storage tank (3), and the dosing metering pump (4) is connected to the purified water pool (2) via a connecting pipe, characterized in that: The water outlet of the dosing metering pump (4) is provided with a shunt pipe (5), the branch pipe water outlet of the shunt pipe (5) is provided with a booster pump (6), the water outlet of the booster pump (6) is provided with a single open multi-porous shunt pipe (7), the single open multi-porous shunt pipe (7) passes through the side wall of the purification pool (2), the closed end of the single open multi-porous shunt pipe (7) is provided with a fixing frame (8), and the side wall of the purification pool (2) and the bottom surface of the single open multi-porous shunt pipe (7) are both connected to the fixing frame (8) through a bolt structure.

2. The intelligent dosing device for sodium hypochlorite generator according to claim 1, characterized in that: The dosing metering pump (4) and the pressure pump (6) are both connected to the controller of the sodium hypochlorite generator (1) via wires.

3. The intelligent dosing device for sodium hypochlorite generator according to claim 1, characterized in that: The water inlet of the diverter pipe (5) and the water outlet of the storage tank (3) are both connected to the dosing metering pump (4) via threads, and the branch pipe water outlet of the diverter pipe (5) is connected to the water inlet of the booster pump (6) via threads.

4. The intelligent dosing device for sodium hypochlorite generator according to claim 1, characterized in that: The material of the single open multi-hole diversion pipeline (7) is a plastic hose.

5. The intelligent dosing device for sodium hypochlorite generator according to claim 4, characterized in that: The open end of the single-open multi-hole diversion pipe (7) is connected to the water outlet of the pressure pump (6) through body contact.

6. The intelligent dosing device for sodium hypochlorite generator according to claim 5, characterized in that: A fixing buckle (71) is provided on the outer wall of the single-open multi-hole diversion pipeline (7).

Images