CN201087441Y - Relay pressurization non-negative pressure secondary water supply equipment for super high-rise building - Google Patents

Abstract

The utility model provides relayed-pressurizing subpressure-free secondary water-supply equipment used for a super high-rise building and is characterized in that the water-supply equipment consists of at least two sets of subpressure-free water-supply equipment connected with each other in series, wherein, one set is subpressure-free water-supply equipment for a low-rise zone. The water inlet of the subpressure-free water-supply equipment for the low-rise zone is connected with a tap water network. In the two water outlets of the subpressure-free water-supply equipment for the low-rise zone, one is for the low-rise users and the other is connected with the water inlet of the other set of subpressure-free water-supply equipment. The water outlet of the other set of subpressure-free water-supply equipment is connected with the middle-rise or high-rise users. The subpressure-free water supply equipment for the low-rise zone is arranged at the low level of a building, and other subpressure-free water supply equipment is arranged above the low level of the building. The utility model can satisfy the water consumption of the super high-rise users. The utility model has reasonably and compactly configured equipment, convenient installation and lower energy consumption. Moreover, the utility model has no adverse effect on the tap water network, thereby avoiding a secondary pollution to the water quality. The equipment complex generates no noise or vibration, thereby having no influence upon users.

Description

Relay pressurized non-negative pressure secondary water supply equipment for super high-rise buildings

technical field

The utility model belongs to a secondary water supply system for high-rise buildings, in particular to a relay pressurized non-negative pressure secondary water supply equipment for super high-rise buildings.

Background technique

With the continuous development of my country's economy, high-rise buildings emerge in endlessly. However, more and more super high-rise buildings (generally, buildings with more than 30 floors are called super high-rise buildings) are constantly appearing, which is a challenge to the secondary water supply technology of high-rise buildings. At present, the generally adopted method is: tap water is stored in a water tank or a pool, then pressurized to a high-level water tank by a booster device, and then supplied to users. Or, the water tank and the non-negative pressure water supply equipment are used at the same time to meet the water supply problems of high-level users. The traditional secondary pressurized water supply method for high-rise buildings with underground pools and roof water tanks makes the tap water enter the open system connected to the atmosphere from the original closed system, which is prone to secondary pollution and affects the quality of drinking water for users; After tap water enters the pool, the original water supply pressure will be zero, and re-pressurization will increase energy consumption, high operating costs, large area occupied by facilities, increased construction load, and increased total project cost. With the promotion of non-negative pressure water supply technology, the deficiencies in secondary water supply can basically be solved. However, for super high-rise buildings, it is difficult for a set of non-negative pressure water supply equipment to meet the water requirements of users on the entire floor, and high-power water pumps are bound to be used. In this way, pressure reducing valves are added to the middle and low floors to reduce the pressurized water again. Compression causes energy waste, and it is difficult to install and occupies a large area; the noise of the water pump is also very large during operation; generally, high-power water pumps require a large flow rate, which will cause insufficient replenishment of tap water and also affect the water consumption of users .

Contents of the invention

In view of the above existing problems, the purpose of this utility model is to provide a super high-rise building relay pressurized non-negative pressure secondary water supply equipment, which can meet the water consumption of super high-rise building users. The equipment configuration is reasonable, compact, easy to install, and energy consumption Low, it will not have adverse effects on the water pipe network, and avoid secondary pollution of water quality. The further purpose of the utility model is: the whole set of equipment will not produce obvious noise and vibration.

The purpose of this utility model is achieved through the following technical solutions: a super high-rise building relay pressurization non-negative pressure secondary water supply equipment, characterized in that: the water supply equipment includes at least two sets of non-negative pressure water supply equipment, through series connection Connection, one of which is non-negative pressure water supply equipment in low area, the water inlet of non-negative pressure water supply equipment in low area is connected to the tap water pipe network, the two outlets of non-negative pressure water supply equipment in low area supply the low area users one way, and the other way is with The water inlet of another set of non-negative pressure water supply equipment is connected, and the water outlet of another set of non-negative pressure water supply equipment is connected to users in the middle area or high area. The equipment is located above the lower floors of the building.

The improvement of the water supply equipment of the utility model: the water supply equipment includes the water supply equipment without negative pressure in the low area, the water supply equipment without negative pressure in the middle area, the water supply equipment without negative pressure in the high area, the water inlet and the tap water of the water supply equipment without negative pressure in the low area Pipe network connection, one of the two water outlets is supplied to users in the low area, and the other is connected to the water inlet of the non-negative pressure water supply equipment in the middle area. The water inlet of the non-negative pressure water supply equipment is connected, and the water outlet of the non-negative pressure water supply equipment in the high area is connected to the user in the high area.

Further improvement of the water supply equipment of the present utility model: the low-area non-negative pressure water supply equipment includes low-area super high-rise building relay pressurization frequency conversion control cabinet, flow stabilization device, voltage stabilization device, water inlet confluence pipe, water outlet confluence pipe, negative Pressure suppressor, booster pump, filter, handle butterfly valve, check valve, pressure sensor, Y-type filter, anti-pollution isolation valve, bypass pipeline, tap water pipe network through handle butterfly valve, Y-type filter, anti-fouling The isolation valve is connected to the water inlet of the flow stabilization device, and the negative pressure suppressor and pressure sensor are connected to the flow stabilization device. The water outlet of the flow stabilization device is connected to the water inlet of the booster pump through the water inlet manifold, and the outlet of the booster pump passes through The butterfly valve and the check valve are connected to the water outlet confluence pipe, the two ends of the bypass pipeline are respectively connected to the water outlet confluence pipe and the water inlet confluence pipe, and the pressure stabilizing device and the pressure sensor are placed at the water outlet.

Further improvement of the water supply equipment of the present utility model: the non-negative pressure water supply equipment in the middle area includes a super-high-rise relay pressurization frequency conversion control cabinet in the middle area, a flow stabilization device, a voltage stabilization device, a control valve, a water inlet confluence pipe, and a water outlet confluence pipe , booster pump, handle butterfly valve, check valve, pressure sensor, negative pressure suppressor, bypass pipeline, the water inlet of the water supply equipment in the middle zone is first connected to the water outlet of the equipment in the low zone, and then connected to the steady flow through the control valve The water inlet of the device, and the pressure sensor is placed on the front-end pipeline of the control valve, the upper end of the flow stabilization device is connected with a negative pressure suppressor, and the water outlet of the flow stabilization device is connected to the water inlet of the booster pump through the water inlet manifold , the water outlet of the booster pump is connected to the water outlet manifold through the handle butterfly valve and check valve, and the bypass pipeline is connected to the water inlet manifold and the water outlet manifold. There is a check valve, a pressure stabilizing device and a pressure sensor are placed at the water outlet.

Further improvement of the water supply equipment of the utility model: the high-area non-negative pressure water supply equipment includes high-area super high-rise building relay pressurization frequency conversion control cabinet, steady flow device, voltage stabilizer, control valve, negative pressure suppressor, water inlet Confluence pipe, water outlet confluence pipe, booster pump, handle butterfly valve, check valve, pressure sensor, bypass pipeline; the water inlet of the non-negative pressure water supply equipment in the high area is first connected with the water outlet of the non-negative pressure water supply equipment in the middle area, Then it is connected to the water inlet of the flow stabilization device through the control valve, and the pressure sensor is placed on the front-end pipeline of the control valve. The upper end of the flow stabilization device is connected with a negative pressure suppressor. The water inlet of the booster pump is connected, the water outlet of the booster pump is connected to the outlet manifold through the handle butterfly valve and the check valve, the bypass pipeline is connected to the outlet manifold and the inlet manifold, the inlet manifold or the outlet manifold A check valve is connected to the connection with the bypass pipeline, and the pressure stabilizing device and the pressure sensor are connected to the water outlet.

Further improvement of the water supply equipment of the utility model: the booster pump is a silent booster pump, including a submersible pump and a submersible motor. The water outlet is connected with the water outlet of the silent pipe sleeve, so that the submersible pump is fixed in the silent pipe sleeve, and an exhaust valve, a cable outlet, a water inlet and a water outlet connected with the water supply equipment are arranged on the silent pipe sleeve.

Compared with the prior art, the utility model has the following advantages and positive effects:

1. The utility model realizes the linkage relay water supply of several sets of water supply equipment through the super high-rise building relay pressurization frequency conversion control cabinet.

2. The utility model can completely replace the water tank in super high-rise buildings, and completely avoid various disadvantages caused by the water supply of the water tank.

3. The whole set of equipment of the utility model uses a silent booster pump, which has no noise and vibration, and will not affect the normal work and life of the residents.

4. The utility model uses the non-negative pressure secondary water supply technology, which will not affect the tap water pipe network.

5. The utility model rationally utilizes the pressure of the incoming water, how much the difference is, how much to make up, and can save energy.

6. The whole set of equipment of the utility model has a compact structure and takes up very little space.

7. The whole set of equipment of the utility model can realize fully automatic operation without manual control.

Description of drawings

Fig. 1 is the connection structure diagram of the super high-rise building relay pressurization non-negative pressure secondary water supply equipment of the utility model.

Detailed ways

Below in conjunction with accompanying drawing and embodiment the utility model is described in further detail:

Referring to Fig. 1 , the embodiment of the utility model super high-rise building relay water supply pressurized non-negative pressure secondary water supply equipment includes low zone non-negative pressure water supply equipment, middle zone non-negative pressure water supply equipment and high zone non-negative pressure water supply equipment. The specific implementation is as follows:

The non-negative pressure water supply equipment in the low area is installed on the lower floors of the building (such as: the first and second floors or one of the negative first and second floors). For example, in a 50-story building, the non-negative pressure water supply equipment in the middle area is generally installed at 16 Or the 17th floor, and the non-negative pressure water supply equipment in the high area is generally installed on the 33rd or 34th floor.

The water inlet of the non-negative pressure water supply equipment in the low area is connected to the tap water pipe network 1, and one of the two water outlets supplies users 16 in the low area, and the other is connected to the water inlet 14 of the non-negative pressure water supply equipment in the middle area, and there is no negative pressure water supply equipment in the middle area The two water outlets of the two roads supply the user 28 in the middle area all the way, and are connected with the water inlet 29 of the non-negative pressure water supply equipment in the high area all the way, and the water outlet of the non-negative pressure water supply equipment in the high area is connected to the user 41 in the high area.

The non-negative pressure water supply equipment in the low area is composed of super high-rise buildings in the low area, relay pressurized frequency conversion control cabinet 15, flow stabilization device (flow stabilization tank) 7, pressure stabilization device (pressure stabilization tank) 13, water inlet manifold 17, and water outlet manifold 18. Negative pressure suppressor 6, silent booster pump 8, handle butterfly valve 2 and 9, check valve 10, pressure sensor 5 and 12, Y-type filter 3, anti-fouling isolation valve 4, bypass pipeline 11, etc. . The tap water pipe network 1 is connected to the water inlet of the flow stabilization device (stabilization tank) 7 through the handle butterfly valve 2, Y-type filter 3, and antifouling isolation valve 4, and the negative pressure suppressor is terminated on the flow stabilization device 7 (stabilization tank) 6 and the pressure sensor 5, the water outlet of the steady flow device (stabilizing tank) 7 is connected to the water inlet of the silent booster pump 8 through the water inlet manifold 17, and the water outlet of the silent booster pump 8 passes through the butterfly valve 9 and the check valve 10 Connected to the outlet manifold 18, the two ends of the bypass pipeline 11 are respectively connected to the outlet manifold 18 and the inlet manifold 17, and the pressure stabilizing device (stabilizing tank) 13 and the pressure sensor 12 are arranged at the water outlet of the equipment. The whole set of water supply equipment in the low zone is controlled by the relay pressurization frequency conversion control cabinet 15 of the super high-rise building in the low zone.

The non-negative pressure water supply equipment in the central area consists of super high-rise buildings in the central area, relay pressurized frequency conversion control cabinet 27, flow stabilization device (stabilization tank) 20, pressure stabilization device (pressure stabilization tank) 26, control valve 31, water inlet manifold 32 , Water outlet manifold 33, silent booster pump 21, handle butterfly valve 22, check valves 23 and 30, pressure sensors 19 and 25, negative pressure suppressor 34, bypass pipeline 24, etc. The water inlet 14 of the non-negative pressure water supply equipment in the middle area is first connected with the water outlet of the non-negative pressure water supply equipment in the low area, and then connected to the water inlet of the flow stabilization device (stabilization tank) 20 through the control valve 31, and the pressure sensor 19 Placed on the front end pipeline of the control valve 31, the upper end of the steady flow device (stabilizing tank) 20 is connected with a negative pressure suppressor 34, and the water outlet of the stabilizing device (stabilizing tank) 20 is connected to the mute amplifier through the water inlet manifold 32. The water inlet of the pressure pump 21 is connected, the water outlet of the silent booster pump 21 is connected to the water outlet manifold 33 through the handle butterfly valve 22 and the check valve 23, and the bypass pipeline 24 is connected to the water inlet manifold 32 and the water outlet manifold 33, There is a check valve 30 at the connection between the bypass pipeline 24 and the water inlet manifold 32, and the pressure stabilizing device (pressure stabilizing tank) 26 and the pressure sensor 25 are placed at the water outlet of the equipment. The entire set of water supply equipment in the central area is controlled by the relay pressurization frequency conversion control cabinet 27 of the super high-rise building in the central area.

The non-negative pressure water supply equipment in the high area consists of super high-rise buildings in the high area relay pressurized frequency conversion control cabinet 40, steady flow device (stabilizing tank) 45, voltage stabilizing device (pressure stabilizing tank) 39, negative pressure suppressor 49, control valve 43 , water inlet confluence pipe 46, water outlet confluence pipe 47, silent booster pump 48, handle butterfly valve 35, check valves 36 and 42, pressure sensors 44 and 37, bypass pipeline 38, etc. The water inlet 29 of the non-negative pressure water supply equipment in the high area is first connected to the water outlet of the equipment in the middle area, and then connected to the water inlet of the steady flow device (stabilizing tank) 45 through the control valve 43, and the pressure sensor 44 is placed on the control valve On the front end pipeline of 43, the upper end of the steady flow device (stabilizing tank) 45 is connected with a negative pressure suppressor 49, and the water outlet of the steady flow device (stabilizing tank) 45 passes through the water inlet manifold 46 and the silent booster pump 48. The water inlets are connected, the water outlet of the silent booster pump 48 is connected to the water outlet manifold 47 through the handle butterfly valve 35 and the check valve 36, the bypass pipeline 38 is connected to the water outlet manifold 47 and the water inlet manifold 46, and the outlet manifold 47 Or a check valve 42 is connected to the connection between the water inlet manifold 46 and the bypass pipeline 38, and the pressure stabilizing device (pressure stabilizing tank) 39 and the pressure sensor 37 are connected to the water outlet of the equipment. The whole set of water supply equipment in the high area is controlled by the relay pressurization frequency conversion control cabinet 40 of the super high-rise building in the high area.

The operation sequence of the three sets of non-negative pressure water supply equipment in low, medium and high areas is as follows: firstly, after the pressure of tap water reaches the set pressure, the non-negative pressure water supply equipment in the low area starts to operate, and then it is detected that the pressure of the water inlet in the middle area reaches the set pressure. After setting the pressure, the non-negative pressure water supply equipment in the middle area starts to operate, and finally detects that the pressure of the water inlet in the high area reaches the set pressure, and the non-negative pressure water supply equipment in the high area starts to operate.

When the water inlet of the non-negative pressure water supply equipment in the low area, that is, the tap water pressure meets the operating pressure, and when the required pressure setting value of the water outlet is higher than the inlet pressure of the municipal tap water pipe network 1, the pressure set on the equipment bypass pipe 11 The sensor 12 feeds back the collected signal to the relay pressurization frequency conversion control cabinet 15 of the super high-rise building in the low area, starts the silent booster pump 8 to maintain constant pressure water supply, and controls one or more silent booster pumps 8 to adapt to the users 16 and the central area. , Changes in water consumption of non-negative pressure water supply equipment in high areas.

When the incoming water in the municipal tap water pipe network 1 is less than the outgoing water in a short period of time, the pressure sensor 5 arranged on the steady flow device (stabilizing tank) 7 feeds back the collected signal to the low area super high-rise building relay pressurization frequency conversion control cabinet 15, The super high-rise building relay pressurization frequency conversion control cabinet 15 in the low district will start the negative pressure suppressor 6, control the mute booster pump 8 to stop working, ensure that the situation of negative pressure will not occur in the flow stabilization device (stabilization tank) 7, so that the Damage to the water supply network. When the municipal pipe network returns to normal water supply or the user reduces the water consumption, after the water level in the flow stabilization device (stabilization tank) 7 rises and is filled with water, the silent booster pump 8 resumes normal operation.

After the non-negative pressure water supply equipment in the low area operates normally, when the required pressure setting value of the water outlet of the non-negative pressure water supply equipment in the middle area is higher than the pressure of the water inlet 14, the pressure sensor 25 and the setting on the equipment bypass pipe 24 The pressure sensor 19 on the water inlet pipe feeds back the collected signal to the super high-rise building relay pressurization frequency conversion control cabinet 27 in the central area, and the super high-rise building relay pressurization frequency conversion control cabinet 27 in the central area will activate the control valve 31 and start the silent pressurization The pump 21 maintains constant-pressure water supply, and controls a single or multiple silent booster pumps 21 to adapt to changes in the water consumption of users 28 in the middle area and water supply equipment in the high area.

When the incoming water in the water inlet pipe of the non-negative pressure water supply equipment in the middle area is less than the outlet water in a short period of time, the pressure sensor 19 arranged in front of the water inlet pipe will feed back the collected signal to the relay pressurization frequency conversion control cabinet 27 of the super high-rise building in the central area, and the super high-rise building in the central area The building relay pressurization frequency conversion control cabinet 27 will start the control valve 31, and start the negative pressure suppressor 34, control the silent booster pump 21 to stop working, and ensure that there will be no negative pressure in the flow stabilization device (stabilization tank) 20, cause damage to the water supply network. The pressure of the water inlet pipe of the non-negative pressure water supply equipment in the middle area returns to normal, and after the water level in the flow stabilization device (stabilization tank) 20 rises and is filled with water, the super high-rise building relay pressurization frequency conversion control cabinet 27 in the middle area starts the control valve 31 and starts the mute booster. The pressure pump 21 resumes normal operation.

When the water outlet pressure is low, that is, the pressure of the water inlet pipe of the water supply equipment in the central area is greater than the pressure required by the user 28, the super high-rise building in the central area will relay pressurization and frequency conversion control cabinet 27 to control the silent booster pump 21 to be in a standby state, and the incoming water The consumers 28 and the equipment of the high zone will be supplied directly through the bypass pipe 24 .

After the non-negative pressure water supply equipment in the middle area is operating normally, when the pressure setting value required by the user 41 is higher than the water inlet pressure of the water inlet 29 of the high area non-negative pressure water supply equipment, set the water supply at the water outlet of the high area non-negative pressure water supply equipment. The pressure sensor 37 and the pressure sensor 44 arranged at the water inlet 29 will feed back the collected signals to the relay pressurization frequency conversion control cabinet 40 of the super high-rise building in the high area, and the relay pressurization frequency conversion control cabinet 40 of the super high-rise building in the high area will start the control valve 43 , and start the silent booster pump 48 to maintain constant pressure water supply, and control one or more silent booster pumps 48 to adapt to the change of the water consumption of the user 41.

When the incoming water at the equipment water inlet 29 in the high area is less than the water outlet in a short period of time, the pressure sensor 44 arranged in front of the control valve 43 will feed back the collected signal to the super high-rise building in the high area to relay pressurization and frequency conversion control cabinet 40, and the super high-rise building in the high area will The relay pressurization frequency conversion control cabinet 40 will start the control valve 43, and start the negative pressure suppressor 49, control the silent booster pump 48 to stop working, ensure that the situation of negative pressure will not occur in the flow stabilization device (stabilization tank) 45, so that damage to the water supply network. When the pressure at the water inlet 29 of the non-negative pressure water supply equipment in the high area returns to normal, after the water level rises in the steady flow device (stabilizing tank) 45 and is full of water, the relay pressurization frequency conversion control cabinet 40 of the super high-rise building in the high area will start the control valve 43, The silent booster pump 48 resumes normal operation.

When the water outlet pressure is low, that is, the pressure of the water inlet 29 of the high-level non-negative pressure water supply equipment is greater than the pressure required by the user 41, the high-rise super high-rise building relay pressurization frequency conversion control cabinet 40 will control the silent booster pump 48 to be on standby state, the incoming water will be directly supplied to the user 41 through the bypass pipe 38 .

The above-mentioned silent booster pumps 8 , 21 , 48 all include a silent pipe sleeve, on which a water inlet and a water outlet are arranged, and the water inlet is arranged at the bottom of the silent pipe sleeve 1 . The water outlet is arranged on the top of the silent pipe sleeve, and an exhaust valve is arranged next to the water outlet on the top of the silent pipe sleeve. When the silent booster pump is working, the air in the silent pipe sleeve can be discharged. In addition, a cable outlet is provided near the water outlet of the silent sleeve, and the cable outlet is designed to be sealed. The lower part of the submersible pump is integrated with the submersible motor, and the submersible pump and the submersible motor are placed in the silent pipe sleeve, and the water outlet of the submersible pump is connected with the water outlet of the silent pipe sleeve, so that the submersible pump is fixed in the silent pipe. The cables of the submersible motor lead to the outside of the silent pipe sleeve through the cable outlet.

A cylindrical elastic film is arranged near the position of the submersible motor on the inner wall of the silent pipe cover, the outer side of the elastic film is fixed on the inner wall of the silent pipe cover, and one end is fixed on the bottom of the silent pipe cover. The function of the elastic membrane is to form a directional flow channel inside the silent sleeve, which can relieve the instability of the incoming water pressure while preventing the fluctuation of the water flow, and can supplement the pressure when the incoming water pressure is insufficient.

When the silent booster pump is working, the silent pipe sleeve is filled with circulating water. The circulating water in the silent pipe sleeve can not only cool the submersible motor, but also shield the noise of the submersible motor and the noise generated by the submersible motor. vibration.

The silent pipe sleeve is cylindrical, and the top of the silent pipe sleeve is provided with a cover, and the silent pipe sleeve and the upper cover are connected as a whole by bolts or welding.

No matter how the water consumption of the water supply equipment in the three zones changes, the three sets of non-negative pressure water supply equipment in the high, medium and low zones will always maintain linkage. Observe the changes in the operating frequency of each set of equipment:

1. When the water consumption of users in the high area increases, the operating frequency of the three sets of non-negative pressure water supply equipment in the corresponding high, medium and low areas will change with the change of water consumption.

2. When the water consumption of users in the middle area increases, the operating frequency of water supply equipment in the low and middle areas will change with the change of water consumption of users in the low and middle areas. At this time, the operating frequency of the water supply equipment in the high area only changes with the change of the water consumption of the users in the high area.

3. When the water consumption of the users in the low area increases, the operating frequency of the equipment in the low area will change with the change of the water consumption of the users in the low area. At this time, the operating frequency of the equipment in the middle area will change with the change of water consumption of users in the middle area and high area, and the operating frequency of the equipment in the high area will only change with the change of water consumption of users in the high area.

Of course, the above description is not a limitation of the present utility model, and the present utility model is not limited to the above-mentioned examples. Those of ordinary skill in the art can make changes, modifications, additions or replacements within the essential scope of the present utility model. Should belong to the protection scope of the present utility model.

Claims (7)

1. A super high-rise building relay pressurization non-negative pressure secondary water supply equipment, characterized in that: said water supply equipment includes at least two sets of non-negative pressure water supply equipment connected in series, one of which is a low-level non-negative pressure Water supply equipment, the water inlet of the non-negative pressure water supply equipment in the low area is connected to the tap water pipe network. The water outlet of another set of non-negative pressure water supply equipment is connected to the users in the middle or high area, the non-negative pressure water supply equipment in the low area is set on the lower floor of the building, and the other non-negative pressure water supply equipment is set above the lower floor of the building. 2. According to claim 1, the relay pressurized non-negative pressure secondary water supply equipment for super high-rise buildings is characterized in that: said water supply equipment includes low area non-negative pressure water supply equipment, middle area non-negative pressure water supply equipment, high There is no negative pressure water supply equipment in the district, and the water inlet of the non-negative pressure water supply equipment in the low district is connected to the tap water pipe network. One of the two water outlets of the negative pressure water supply equipment supplies the users in the central area, and the other is connected to the water inlet of the non-negative pressure water supply equipment in the high area, and the water outlet of the non-negative pressure water supply equipment in the high area is connected to the users. 3. The relay pressurized non-negative pressure secondary water supply equipment for super high-rise buildings according to claim 1 or 2, characterized in that: the low area non-negative pressure water supply equipment includes a low area high-rise building relay pressurized frequency conversion control cabinet , flow stabilization device, pressure stabilization device, inlet manifold, outlet manifold, negative pressure suppressor, booster pump, filter, handle butterfly valve, check valve, pressure sensor, Y-type filter, antifouling partition valve, The bypass pipeline and the tap water pipe network are connected to the water inlet of the flow stabilization device through the handle butterfly valve, Y-type filter and anti-pollution isolation valve. The flow stabilization device is connected with a negative pressure suppressor and a pressure sensor. The water inlet manifold is connected to the water inlet of the booster pump, the outlet of the booster pump is connected to the outlet manifold through a butterfly valve and a check valve, the bypass pipeline is connected to the outlet manifold, and the pressure stabilizing device and pressure sensor are placed at the water outlet place. 4. According to the super high-rise building relay pressurization non-negative pressure secondary water supply equipment according to claim 2, it is characterized in that: the central area non-negative pressure water supply equipment includes the middle area high-rise building relay pressurization frequency conversion control cabinet, stabilizer Flow device, pressure stabilizing device, control valve, water inlet manifold, outlet manifold, booster pump, handle butterfly valve, check valve, pressure sensor, negative pressure suppressor, bypass pipeline, water inlet pipe of water supply equipment in the central area First connect to the water outlet of the equipment in the low area, pass through the control valve and then connect to the water inlet of the flow stabilization device, and place the pressure sensor on the front-end pipeline of the control valve. The upper end of the flow stabilization device is connected with a negative pressure suppressor to stabilize the flow The water outlet of the device is connected to the water inlet of the booster pump through the water inlet manifold, the water outlet of the booster pump is connected to the water outlet manifold through the handle butterfly valve and the check valve, and the bypass pipe is connected to the water inlet manifold and the water outlet There is a check valve at the connection between the bypass pipeline and the water inlet manifold, and the pressure stabilizing device and pressure sensor are placed at the water outlet. 5. According to the super high-rise building relay pressurization non-negative pressure secondary water supply equipment according to claim 4, it is characterized in that: said high-area non-negative pressure water supply equipment includes high-rise building relay pressurization frequency conversion control cabinet, stabilizer flow device, pressure stabilizing device, control valve, negative pressure suppressor, inlet manifold, outlet manifold, booster pump, handle butterfly valve, check valve, pressure sensor, bypass pipeline; high area non-negative pressure water supply equipment The water inlet pipe is first connected to the water outlet of the non-negative pressure water supply equipment in the central area, and then connected to the water inlet of the flow stabilization device through the control valve, and the pressure sensor is placed on the front end of the control valve. The upper end of the flow stabilization device is connected with Negative pressure suppressor, the water outlet of the flow stabilization device is connected to the water inlet of the booster pump through the water inlet manifold, the outlet of the booster pump is connected to the water outlet manifold through the handle butterfly valve and check valve, the bypass pipe is connected to the water outlet The confluence pipe and the water inlet confluence pipe are connected, a check valve is connected at the joint between the water inlet confluence pipe and the bypass pipeline, and the pressure stabilizing device and the pressure sensor are connected with the water outlet. 6. The relay pressurized non-negative pressure secondary water supply equipment for super high-rise buildings according to claim 3, characterized in that: the booster pump is a silent booster pump, including a submersible pump and a submersible motor, and the lower part of the submersible pump is connected to the The submersible motor is connected as a whole and installed in a silent pipe sleeve, and the water outlet of the submersible pump is connected with the water outlet of the silent pipe sleeve, so that the submersible pump is fixed in the silent pipe sleeve, and an exhaust valve is arranged on the silent pipe sleeve. Cable outlet, water inlet and outlet connected to water supply equipment. 7. According to the super high-rise building relay pressurization non-negative pressure secondary water supply equipment according to claim 5, it is characterized in that: the booster pump is a silent booster pump, including a submersible pump and a submersible motor, and the lower part of the submersible pump is connected to the The submersible motor is connected as a whole and installed in a silent pipe sleeve, and the water outlet of the submersible pump is connected with the water outlet of the silent pipe sleeve, so that the submersible pump is fixed in the silent pipe sleeve, and an exhaust valve is arranged on the silent pipe sleeve. Cable outlet, water inlet and outlet connected to water supply equipment.

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