Functional drinking water exchange device capable of releasing silicon dioxide ions

Abstract

The utility model relates to the technical field of water treatment devices, in particular to a functional drinking water exchange device capable of releasing silicon dioxide ions, which comprises a finished product tank and a water treatment component, the water treatment assembly comprises a water inlet mechanism, a water inlet pipe, a first pneumatic control valve, ion exchange equipment, a second pneumatic control valve, a buffer tank, a first water tank air respirator, a third pneumatic control valve, a first water pump, a water outlet pipe, a fourth pneumatic control valve and a fifth pneumatic control valve; the solid particles capable of releasing silicon dioxide are put into ion exchange equipment, a first pneumatic control valve is opened, a water inlet mechanism introduces purified water at 80-100 DEG C into the ion exchange equipment, and drinking water and mineral particles are subjected to ion exchange, so that corresponding mineral elements are released to enter a water body; therefore, functional drinking water rich in silicon dioxide ions can be generated, and the silicon element required by the human body is provided.

Description

Technical Field

[0001] The utility model relates to the technical field of water treatment devices, in particular to a functional drinking water exchange device for releasing silicon dioxide ions. Background Art

[0002] According to the indexes such as water quality, water quantity, and water use convenience, due to environmental pollution, many underground water sources are damaged, and the original directly drinkable underground water needs to be purified before use.

[0003] At present, the prior art CN208362057U discloses a drinking water treatment system, including a mixing filter tank, an ammonia nitrogen filter tank, and an activated carbon filter tank. The water outlet of the mixing filter tank is connected to the water inlet of the ammonia nitrogen filter tank, and the water outlet of the ammonia nitrogen filter tank is connected to the water inlet of the activated carbon filter tank, which can carry out the water purification process.

[0004] However, by using the above method, although the harmful substances in the purified water are filtered out, the silicon element substances beneficial to the human body are also treated. Long-term drinking of purified water is likely to cause the lack of silicon element in the human body and affect human health. Summary of the Invention

[0005] The purpose of the utility model is to provide a functional drinking water exchange device for releasing silicon dioxide ions, which can generate drinking water mainly composed of silicon dioxide and provide the required silicon element for the human body.

[0006] To achieve the above purpose, the utility model provides a functional drinking water exchange device for releasing silicon dioxide ions, including a finished product tank and a water treatment component. The water treatment component includes a water inlet mechanism, a water inlet pipe, a first pneumatic control valve, an ion exchange device, a second pneumatic control valve, a buffer tank, a first water tank air breather, a third pneumatic control valve, a first water pump, a water outlet pipe, a fourth pneumatic control valve, and a fifth pneumatic control valve;

[0007] The water inlet pipe is communicated with the water inlet mechanism, the first pneumatic control valve is communicated with the water inlet pipe, the ion exchange device is communicated with the first pneumatic control valve, the second pneumatic control valve is communicated with the ion exchange device, the buffer tank is communicated with the second pneumatic control valve, the first water tank air breather is arranged on the side of the buffer tank, the third pneumatic control valve is communicated with the buffer tank, the first water pump is communicated with the third pneumatic control valve, the water outlet pipe is communicated with the first water pump, the fourth pneumatic control valve is respectively communicated with the water inlet pipe and the water outlet pipe, the fifth pneumatic control valve is communicated with the water outlet pipe, and the finished product tank is communicated with the fifth pneumatic control valve.

[0008] Among them, the water inlet mechanism includes a high-temperature source water tank, a sixth pneumatic control valve, and a second water pump; the sixth pneumatic control valve is communicated with the high-temperature source water tank, and the second water pump is respectively communicated with the sixth pneumatic control valve and the water inlet pipe.

[0009] Among them, the water inlet mechanism further includes a second water tank air breather; the second water tank air breather is arranged on the side of the high-temperature source water tank.

[0010] Among them, the water inlet mechanism further includes a make-up water pipe and a seventh pneumatic control valve; the make-up water pipe is communicated with the second water pump, and the seventh pneumatic control valve is communicated with the make-up water pipe.

[0011] Among them, the water treatment component further includes a third water tank air breather; the third water tank air breather is arranged on the side of the finished product tank.

[0012] Among them, the water treatment component further includes a third water pump; the third water pump is communicated with the finished product tank.

[0013] A functional drinking water exchange device for releasing silicon dioxide ions according to the present utility model grinds silicate mineral rocks into powder with a particle size of ≥500 meshes by ball milling, and then performs high-temperature sintering at 1600 °C - 2000 °C to form an irregular lava structure, and cools and crushes it to make mineral substances in the form of irregular crystal solid particles with a size of 3 mm - 5 mm that can release silicon dioxide ions, and puts the solid particles capable of releasing silicon dioxide into the ion exchange device. When in use, the first pneumatic control valve is opened, and the water inlet mechanism introduces pure water at 80 - 100 °C into the ion exchange device. The drinking water exchanges ions with the mineral particles, so that the corresponding mineral elements are released and enter the water body. After the mineral element ions are mixed with the water body, the second pneumatic control valve can be opened to directly input the drinking water into the buffer tank through a pipeline. Opening the third pneumatic control valve, the first water pump, and the fifth pneumatic control valve can transport the drinking water to the finished product tank for storage. A 160-mesh screen can be arranged at the water outlet of the ion exchange device for filtering solid particles; the buffer tank can reduce the unevenness of the flow rate in the pipeline and improve the stability of the water treatment work; the first water tank air breather can balance the internal pressure of the buffer tank. Through the above method, functional drinking water rich in silicon dioxide ions can be generated. After being drunk by the human body, it can release silicon dioxide ions and provide the required silicon element for the human body. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings required for the description of the embodiments or the prior art.

[0015] Figure 1 It is a schematic structural diagram of the whole of the first embodiment of the present utility model.

[0016] 101 - finished product tank, 102 - water treatment component, 103 - water inlet mechanism, 104 - water inlet pipe, 105 - first pneumatic control valve, 106 - ion exchange equipment, 107 - second pneumatic control valve, 108 - buffer tank, 109 - first water tank air breather, 110 - third pneumatic control valve, 111 - first water pump, 112 - water outlet pipe, 113 - fourth pneumatic control valve, 114 - fifth pneumatic control valve, 116 - high-temperature source water tank, 117 - sixth pneumatic control valve, 118 - second water pump, 119 - second water tank air breather, 120 - make-up water pipe, 121 - seventh pneumatic control valve, 122 - third water tank air breather, 123 - third water pump. Detailed implementation manners

[0017] Please refer to Figure 1 - the figure, wherein, Figure 1 Yes.

[0018] The present utility model provides a functional drinking water exchange device for releasing silicon dioxide ions, including a finished product tank 101 and a water treatment component 102. The water treatment component 102 includes a water inlet mechanism 103, a water inlet pipe 104, a first pneumatic control valve 105, an ion exchange equipment 106, a second pneumatic control valve 107, a buffer tank 108, a first water tank air breather 109, a third pneumatic control valve 110, a first water pump 111, a water outlet pipe 112, a fourth pneumatic control valve 113, a fifth pneumatic control valve 114, a third water tank air breather 122 and a third water pump 123; the water inlet mechanism 103 includes a high-temperature source water tank 116, a sixth pneumatic control valve 117, a second water pump 118, a second water tank air breather 119, a make-up water pipe 120 and a seventh pneumatic control valve 121; through the foregoing solution, drinking water mainly composed of silicon dioxide can be generated to provide the required silicon element for the human body.

[0019] For this specific implementation manner, the finished product tank 101 is used to store the generated drinking water mainly composed of silicon dioxide.

[0020] Among them, the water inlet pipe 104 is communicated with the water inlet mechanism 103, the first pneumatic control valve 105 is communicated with the water inlet pipe 104, the ion exchange device 106 is communicated with the first pneumatic control valve 105, the second pneumatic control valve 107 is communicated with the ion exchange device 106, the buffer tank 108 is communicated with the second pneumatic control valve 107, the first water tank air breather 109 is arranged on the side of the buffer tank 108, the third pneumatic control valve 110 is communicated with the buffer tank 108, the first water pump 111 is communicated with the third pneumatic control valve 110, the water outlet pipe 112 is communicated with the first water pump 111, the fourth pneumatic control valve 113 is respectively communicated with the water inlet pipe 104 and the water outlet pipe 112, the fifth pneumatic control valve 114 is communicated with the water outlet pipe 112, and the finished product tank 101 is communicated with the fifth pneumatic control valve 114. The silicate mineral rock is ground by ball milling to a powder with a particle size of ≥500 mesh, and then sintered at a high temperature of 1600 °C - 2000 °C to form an irregular lava structure. After cooling and crushing, it is made into 3 mm - 5 mm irregular crystal solid granular minerals capable of releasing silicon dioxide ions, and the solid particles capable of releasing silicon dioxide are put into the ion exchange device 106. When in use, the first pneumatic control valve 105 is opened, and the water inlet mechanism 103 introduces pure water at 80 - 100 °C into the ion exchange device 106. The drinking water exchanges ions with the mineral particles, so that the corresponding mineral elements are released and enter the water body. After the mineral element ions are mixed with the water body, the second pneumatic control valve 107 can be opened to directly input the drinking water into the buffer tank 108 through the pipeline. By opening the third pneumatic control valve 110, the first water pump 111 and the fifth pneumatic control valve 114, the drinking water can be transported to the finished product tank 101 for storage. A 160-mesh screen can be arranged at the water outlet of the ion exchange device 106 for filtering solid particles; by opening the fourth pneumatic control valve 113, the buffer tank 108 can reduce the unevenness of the flow rate in the pipeline and improve the stability of the water treatment work; the first water tank air breather 109 can balance the internal pressure of the buffer tank 108. The ion exchange device 106 of the present application adopts an existing product. Through the above method, functional drinking water rich in silicon dioxide ions can be generated. After being drunk by the human body, it can release silicon dioxide ions and provide the required silicon element for the human body.

[0021] Secondly, the sixth pneumatic control valve 117 is communicated with the high-temperature source water tank 116, and the second water pump 118 is respectively communicated with the sixth pneumatic control valve 117 and the water inlet pipe 104. By opening the sixth pneumatic control valve 117 and the second water pump 118, the pure water stored in the high-temperature source water tank 116 at 80-100 °C can be introduced into the ion exchange device 106.

[0022] Meanwhile, the second water tank air breather 119 is arranged on the side of the high-temperature source water tank 116. The second water tank air breather 119 can balance the internal pressure of the high-temperature source water tank 116.

[0023] In addition, the water replenishing pipe 120 is communicated with the second water pump 118, and the seventh pneumatic control valve 121 is communicated with the water replenishing pipe 120. By opening the seventh pneumatic control valve 121, water can be replenished into the ion exchange device 106 through the water replenishing pipe 120.

[0024] Secondly, the third water tank air breather 122 is arranged on the side of the finished product tank 101. The third water tank air breather 122 can balance the internal pressure of the finished product tank 101.

[0025] Finally, the third water pump 123 is communicated with the finished product tank 101. By opening the third water pump 123, the drinking water in the finished product tank 101 can be transported.

[0026] When using the present utility model, silicate mineral rocks are ball-milled to a powder with a particle size of ≥500 mesh, and then sintered at a high temperature of 1600 °C - 2000 °C to form an irregular lava structure. After cooling and crushing, it is made into 3 mm - 5 mm irregular crystal solid granular minerals that can release silicon dioxide ions. The solid particles that can release silicon dioxide are put into the ion exchange device 106. When in use, open the first pneumatic control valve 105, the sixth pneumatic control valve 117 and the second water pump 118, and introduce the pure water stored in the high-temperature source water tank 116 at 80 - 100 °C into the ion exchange device 106. The drinking water exchanges ions with the mineral particles, so that the corresponding mineral elements are released into the water body. After the mineral element ions are mixed with the water body, opening the second pneumatic control valve 107 can directly input the drinking water into the buffer tank 108 through a pipeline. Opening the third pneumatic control valve 110, the first water pump 111 and the fifth pneumatic control valve 114 can transport the drinking water to the finished product tank 101 for storage. Starting the third water pump 123 can transport the drinking water in the finished product tank 101. A 160-mesh sieve can be set at the water outlet of the ion exchange device 106 to filter solid particles; the buffer tank 108 can reduce the flow unevenness in the pipeline and improve the stability of the water treatment work; the first water tank air breather 109 can balance the internal pressure of the buffer tank 108, and the third water tank air breather 122 can balance the internal pressure of the finished product tank 101. Through the above method, functional drinking water rich in silicon dioxide ions can be generated to provide the required silicon element for the human body.

Claims

1. A functional drinking water exchange device for releasing silica ions, comprising a finished product tank, characterized in that: Also included are water treatment components; The water treatment assembly includes a water inlet mechanism, a water inlet pipe, a first pneumatic control valve, an ion exchange device, a second pneumatic control valve, a buffer tank, a first water tank air respirator, a third pneumatic control valve, a first water pump, a water outlet pipe, a fourth pneumatic control valve and a fifth pneumatic control valve; The water inlet pipe is connected to the water inlet mechanism, the first pneumatic control valve is connected to the water inlet pipe, the ion exchange device is connected to the first pneumatic control valve, the second pneumatic control valve is connected to the ion exchange device, the buffer tank is connected to the second pneumatic control valve, the first water tank air respirator is arranged on the side of the buffer tank, the third pneumatic control valve is connected to the buffer tank, the first water pump is connected to the third pneumatic control valve, the water outlet pipe is connected to the first water pump, the fourth pneumatic control valve is connected to the water inlet pipe and the water outlet pipe respectively, the fifth pneumatic control valve is connected to the water outlet pipe, and the finished product tank is connected to the fifth pneumatic control valve.

2. A functional drinking water exchange device for releasing silicon dioxide ions as claimed in claim 1, characterized in that: The water inlet mechanism includes a high-temperature source water tank, a sixth pneumatic control valve and a second water pump; the sixth pneumatic control valve is connected to the high-temperature source water tank, and the second water pump is connected to the sixth pneumatic control valve and the water inlet pipe respectively.

3. A functional drinking water exchange device for releasing silicon dioxide ions as claimed in claim 2, characterized in that: The water inlet mechanism also includes a second water tank air respirator; the second water tank air respirator is arranged on the side of the high temperature source water tank.

4. A functional drinking water exchange device for releasing silicon dioxide ions as claimed in claim 3, characterized in that: The water inlet mechanism also includes a water supply pipe and a seventh pneumatic control valve; the water supply pipe is connected to the second water pump, and the seventh pneumatic control valve is connected to the water supply pipe.

5. A functional drinking water exchange device for releasing silicon dioxide ions as claimed in claim 4, characterized in that: The water treatment component also includes a third water tank air respirator; the third water tank air respirator is arranged on the side of the finished product tank.

6. A functional drinking water exchange device for releasing silicon dioxide ions as claimed in claim 5, characterized in that: The water treatment component also includes a third water pump; the third water pump is connected to the finished product tank.

Images