CN118441733A - Anti-floating system capable of preventing water from being blocked and draining automatically and adjusting water quantity, control method and building - Google Patents

Anti-floating system capable of preventing water from being blocked and draining automatically and adjusting water quantity, control method and building Download PDF

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Publication number
CN118441733A
CN118441733A CN202410650652.3A CN202410650652A CN118441733A CN 118441733 A CN118441733 A CN 118441733A CN 202410650652 A CN202410650652 A CN 202410650652A CN 118441733 A CN118441733 A CN 118441733A
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China
Prior art keywords
water
storage tank
basement
water storage
port
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Pending
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CN202410650652.3A
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Chinese (zh)
Inventor
石挺丰
胡晓燕
彭学忠
黄少鹏
武玉洁
李丽琴
胡培婉
李旭强
程同林
李启明
卢仲明
黄志伟
黄杰聪
黄俊光
李伟科
李磊
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Guangzhou Design Institute Group Co ltd
Guangzhou Haigang Real Estate Group Co ltd
Guangzhou Port Group Co Ltd
Original Assignee
Guangzhou Design Institute Group Co ltd
Guangzhou Haigang Real Estate Group Co ltd
Guangzhou Port Group Co Ltd
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Application filed by Guangzhou Design Institute Group Co ltd, Guangzhou Haigang Real Estate Group Co ltd, Guangzhou Port Group Co Ltd filed Critical Guangzhou Design Institute Group Co ltd
Priority to CN202410650652.3A priority Critical patent/CN118441733A/en
Publication of CN118441733A publication Critical patent/CN118441733A/en
Pending legal-status Critical Current

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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02ATECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A20/00Water conservation; Efficient water supply; Efficient water use
    • Y02A20/20Controlling water pollution; Waste water treatment

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Abstract

The invention provides an anti-floating system with an automatic overflow type anti-blocking drainage function and adjustable water quantity, which comprises a water storage tank, a water storage tank lifting device, a water inlet hose, a first drainage hose, a plurality of water diversion communicating pipes and a controller, wherein the water storage tank lifting device is connected with the water storage tank lifting device; the bottom of the water storage tank is provided with a water inlet, and a first water outlet is arranged at a position higher than the water inlet of the water storage tank; one port of the water diversion communicating pipe is positioned in the basement and is communicated with one port of the water inlet hose, the other port of the water diversion communicating pipe is communicated with the blind ditch, and the other port of the water inlet hose is communicated with the water inlet of the water storage tank, so that underground water from the blind ditch automatically flows into the water storage tank; the water storage tank lifting device is used for controlling and adjusting the height of the water storage tank relative to the basement bottom plate; one port of the first drainage hose is communicated with the first drainage port, and the water outlet direction of the other port of the first drainage hose is communicated with the water collecting well. The invention provides an anti-floating control method capable of automatically preventing water from blocking and draining and adjusting water quantity. The invention provides a building using the anti-floating system. The invention improves the active anti-floating capability of the building and the safety in extreme conditions.

Description

Anti-floating system capable of preventing water from being blocked and draining automatically and adjusting water quantity, control method and building
Technical Field
The invention relates to the technical field of building anti-floating design, in particular to an anti-floating system capable of automatically overflowing, preventing blocking and draining and adjusting water quantity, a control method and a building.
Background
For river-facing buildings, because of higher groundwater level, the buildings usually need to be subjected to anti-floating design, and common anti-floating measures are mainly divided into two types, namely a passive anti-floating method for directly increasing the anti-floating capability of the building, such as anti-floating piles, anti-floating anchors and the like, which are most mature and most applied. Another is an active anti-floating method for reducing the buoyancy of the building, such as relief wells, drainage galleries, etc. Compared with a passive anti-floating method mainly comprising 'anti', an active anti-floating method mainly comprising 'row' can reduce or cancel the use of anti-floating piles and anti-floating anchors, reduce the thickness of side walls and bottom plates, save the construction period and have remarkable economic benefits.
For river facing buildings, coastal buildings are often affected by flood in flood season, and the underground water level of the river facing buildings is affected by flood and has the characteristic of greatly rising in a short period. Different from other buildings, the water level of the river-facing building is obviously influenced by the water level of river water, and the anti-floating building has the characteristic of obvious flood control and flood control. In the flood season, the river water level is greatly raised and is far higher than the normal water level, and for the conventional passive anti-floating design, the ground surface elevation is often adopted as the anti-floating water level, and the river-facing building in the flood season is at risk of anti-floating failure. For a common river-facing building, if the passive anti-floating design is carried out by adopting the water level of 50 years to 100 years to flood, the cost of the anti-floating pile or the anti-floating anchor and other measures is quite high, and the anti-floating measures cannot play a role in most of the time due to the very short action time of the flood, which is obviously quite uneconomical.
On the other hand, with current active anti-floating methods, the anti-floating water level is usually lowered directly below the basement floor, and this approach itself has a number of problems. If the groundwater level is lowered below the basement floor, there may be an excessive amount of water to be discharged even under the normal water level condition, and the excessive amount of water to be discharged may cause a series of problems such as sedimentation of the surrounding ground, overload of the drainage system, clogging of the drainage members, etc. At present, for the current active anti-floating method, the person skilled in the art can think that the water discharge amount flowing into the basement is controlled through the flow limiting valve, but the design scheme is easy to cause valve pipeline siltation, and once the underground water reaches the flood level, the flow limiting valve cannot be automatically opened up once power is cut off; in addition, those skilled in the art can also think of arranging the immersible pump in the water collecting tank of the building peripheral underground space, pumping groundwater to the water collecting well of the building basement through the water pump in a controllable flow, but this design scheme easily produces water pump impeller and twines or pump chamber jam by the foreign matter, especially once the outage appears the building anti-floating ability to lose efficacy or stay to the groundwater flow of water collecting well uncontrollable, because the municipal outage appears comparatively easily during the flood emergence, need rely on the inside emergency generator of building, but building anti-floating ability only can rely on the reliability of emergency generator and the immersible pump of water collecting tank, so still increased emergency generator's power supply burden.
Disclosure of Invention
In view of the above, there is a need to provide an anti-floating system, a control method and a building with an overflow type anti-blocking drainage and a stable and adjustable water amount, which overcome several disadvantages in the prior art and solve the following technical problems:
how to improve the active anti-floating capacity of a building and the safety in extreme cases of waterlogging and/or power failure.
In order to achieve the above purpose, the present invention adopts the following technical scheme:
The invention provides a self-overflow type anti-blocking drainage and water quantity adjustable anti-floating system which is applied to a building provided with a basement for preventing underground water leakage, wherein a water collecting well is arranged at the bottom of the basement, a water draining layer and a blind ditch are arranged below the basement and are positioned in foundation pits of the corresponding building, underground water from the water draining layer is gathered in the blind ditch, and the anti-floating system comprises a water storage tank, a water storage tank lifting device, a water inlet hose, a first water outlet hose and a plurality of water diversion communicating pipes, wherein the water storage tank is arranged in the basement and is higher than the water collecting well, the water storage tank lifting device, the water inlet hose, the first water outlet hose and the plurality of water diversion communicating pipes are used for guiding the underground water to flow into the water storage tank from the water storage tank, and a controller is electrically connected with the water storage tank lifting device; the bottom of the water storage tank is provided with a water inlet, and a first water outlet is arranged at a position higher than the water inlet of the water storage tank; one port of the water diversion communicating pipe is positioned in the basement and is communicated with one port of the water inlet hose, the other port of the water diversion communicating pipe is communicated with the blind ditch, and the other port of the water inlet hose is communicated with the water inlet of the water storage tank, so that underground water from the blind ditch automatically flows into the water storage tank; the water storage tank is arranged on the water storage tank lifting device; the lifting device of the water storage tank is used for controlling and adjusting the height of the water storage tank relative to the basement bottom plate, namely, the current height difference between the water level of the underground water head outside the basement and the first water outlet; one port of the first drainage hose is communicated with the first drainage port, and the water outlet direction of the other port of the first drainage hose is communicated with the water collecting well; the water diversion communicating pipe penetrates through the basement, and the pipe wall of the water diversion communicating pipe is sealed with the hole wall of the basement;
When the water storage tank is lifted and the height of the first water outlet is lower than the current height of the water level of the underground water head outside the basement, the flow rate of the water inlet of the water storage tank is reduced, and the flow rate of the other port of the first water outlet hose is increased;
when the water storage tank is lowered and the height of the first water outlet is lower than the current height of the water level of the underground water head outside the basement, the flow rate of the water inlet of the water storage tank is increased, and the flow rate of the other port of the first water outlet hose is decreased.
Further, the anti-floating system comprises a water pump; the water inlet of the water pump is communicated with the water storage of the water collecting well, and the water storage of the water collecting well is discharged from the basement through the water outlet of the water pump.
Further, the anti-floating system also comprises a second drain hose; a second water outlet is arranged at the position of the water storage tank, which is higher than the first water outlet; one port of the second drain hose is communicated with the second drain outlet, and the water outlet direction of the other port of the second drain hose is communicated with the water collecting well; the first water outlet is used as a water outlet of a constant water level of the water storage tank; the second water outlet is used as a water outlet of the flood level of the water storage tank.
Further, a third water outlet is arranged at the position, higher than the second water outlet, of the water storage tank; the third water outlet is used as an emergency water outlet of the water storage tank; the top of the water storage tank is provided with a vent hole.
Further, the water tank lifting device comprises a driving device, a lifting guide mechanism and an intermediate connecting piece; the driving device enables the water storage tank to be borne on the lifting guide mechanism through the middle connecting piece, so that the water storage tank is driven to do lifting motion.
Further, the driving device is a winch; the lifting guide mechanism comprises a pulley block positioned above the water storage tank; the middle connecting piece is a steel wire rope with one end wound by the winding machine and connected with the water storage tank.
Further, a water inlet of the water storage tank is provided with a first water flow parameter detection sensor; the first water flow parameter detection sensor is used for detecting the water inlet flow speed/water pressure parameter; the first water flow parameter detection sensor is connected with the controller.
Further, the first water flow parameter detection sensor is a first water pressure sensor, and the anti-floating system further comprises a water head pressure sensor arranged in the blind ditch and a second water pressure sensor arranged at one port of the water inlet hose; the water head pressure sensor is used for detecting water head pressure in the blind drain; the second water pressure sensor is used for detecting the water pressure of one port of the water inlet hose; the controller is respectively connected with the water head pressure sensor and the second water pressure sensor.
The invention provides a self-overflow type anti-blocking drainage and water quantity adjustable anti-floating control method, which is applied to the self-overflow type anti-blocking drainage and water quantity adjustable anti-floating system, and comprises the following steps:
Step one, obtaining detection parameters of a first water flow parameter detection sensor; and step two, adjusting the height of the water storage tank according to the detection parameters of the first water flow parameter detection sensor.
The invention also provides a building, which comprises a building main body, a basement which is positioned below the building main body and is rigidly connected with the building main body, a water collecting well which is positioned below the basement and is rigidly connected with the basement, and the self-overflow anti-blocking drainage anti-floating system with adjustable water quantity, wherein the self-overflow anti-blocking drainage anti-floating system is characterized in that the self-overflow anti-blocking drainage anti-floating system is arranged on the lower side of the building main body; a waterproof curtain is arranged between the basement and the inner wall of the foundation pit, and the longitudinal bottom of the waterproof curtain extends to a waterproof soil stratum below the foundation pit; the current groundwater outside the basement is groundwater between the basement and the waterproof curtain of the foundation pit.
The beneficial effects of the invention are as follows:
According to the invention, by means of self-overflow drainage, anti-blocking drainage and stable and adjustable drainage amount of groundwater outside the basement of the building, the active anti-floating capacity of the building and the safety of the building in extreme conditions of waterlogging and power failure are improved, and the risks of peripheral ground subsidence, overlarge system load of a drainage system and blocking of drainage components are reduced; the invention also has the following advantages:
The invention can reduce or cancel the common passive anti-floating design setting, and the anti-floating water level reaches the vicinity of the ground surface by utilizing the self weight of the building or adding a small amount of passive anti-floating measures; according to the invention, the underground water outside the basement of the building is subjected to self-overflow drainage, so that the water head height of the underground water is controlled to be at any height of the basement, the water head height below the bottom plate can be freely adjusted, the pressure of a water collecting system and a drainage system can be reduced, the related technical requirements can be reduced, stable drainage amount can be provided, and the water collecting system can be used for water in the interior of the building; compared with the conventional passive anti-floating measure, the invention controls the groundwater head at the surface, and can control the water level below the top plate of the basement for flood water level in flood season; in addition, even if extreme conditions of urban waterlogging and power failure of the water suction pump occur, the invention can ensure that the building does not float up in a manner of submerging the basement, thereby greatly improving the safety of the building in various extreme conditions; the invention can set the building anti-floating water level near the top of the basement or control the water head height of the groundwater at any height position between the top plate and the bottom plate of the basement, and can reduce or cancel the common passive anti-floating measures such as anti-floating piles, anti-floating anchors and the like by utilizing the self weight of the building, thereby greatly reducing the anti-floating cost and the construction period; compared with a passive anti-floating method such as a simple anti-floating pile anti-floating anchor, the method can save the measure cost of the anti-floating water level exceeding the height of the ground surface and ensure the anti-floating safety of the building; compared with an active anti-floating method for maintaining the groundwater level below the basement bottom plate, the invention makes full use of the self weight of the building, reduces the water quantity of water pumping and draining, and reduces the long-term maintenance cost of the later-stage drainage of the building; the invention can ensure that the building water level is maintained near the top plate of the basement during flood season, and ensure the building safety, especially under the extreme condition that the water accumulated in the basement cannot be discharged, such as urban waterlogging, long-time power failure, water suction pump failure and the like, the basement can be allowed to be submerged, and the building safety is ensured; compared with passive anti-floating measures for controlling the groundwater head on the ground surface, the invention can effectively improve the anti-floating effect of the building during flood season flood and prevent the occurrence of anti-floating failure accidents of the building.
Drawings
FIG. 1 is a schematic diagram of a self-overflow anti-blocking drainage anti-floating system with adjustable water quantity;
FIG. 2 is a schematic view of a structure of a building provided with a basement to prevent leakage of groundwater according to the present invention;
FIG. 3 is a top view distribution diagram of a water collection well and a waterproof curtain of a building according to the present invention;
Reference numerals illustrate:
A building main body 100; a basement 200; a water collection well 300; a waterproof curtain 400; a hydrophobic layer 500; blind drain 600; a water storage tank 1; a water tank lifting device 2; a water inlet hose 3; a first drain hose 4; a water diversion communicating pipe 5; a water pump 6; a second drain hose 7; a first drain port 11; a second drain port 12; a third drain port 13; a vent 14; a driving device 21; a lifting guide mechanism 22; an intermediate connection 23; a first water flow parameter detection sensor 8; a head pressure sensor 9; a second water pressure sensor 10.
Detailed Description
In order to make the objects, technical solutions and advantages of the present invention more apparent, the technical solutions of the present invention will be further clearly and completely described in the following in conjunction with the embodiments of the present invention. It should be noted that the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.
It is to be understood that the terms "upper," "lower," "front," "rear," "left," "right," and the like indicate an orientation or positional relationship based on that shown in the drawings, and are merely for convenience in describing the present invention and simplifying the description, and do not indicate or imply that the apparatus or element in question must have a specific orientation, be constructed and operated in a specific orientation, and thus should not be construed as limiting the present invention.
The terms "first," "second," "third," "fourth," and the like are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a definition of "a first", "a second", "a third" or a fourth "feature may explicitly or implicitly include one or more of such features.
Example 1
As shown in fig. 1-3:
The embodiment provides a self-overflow type anti-blocking drainage anti-floating system with adjustable water quantity, which is applied to a building provided with a basement 200 for preventing underground water leakage, wherein a water collecting well 300 is arranged at the bottom of the basement 200, a hydrophobic layer 500 and a blind ditch 600 are arranged below the basement 200, the hydrophobic layer 500 and the blind ditch 600 are positioned in foundation pits of the corresponding building, underground water from the hydrophobic layer 500 is gathered in the blind ditch 600, and the anti-floating system comprises a water storage tank 1, a water storage tank lifting device 2, a water inlet hose 3, a first water drainage hose 4, a plurality of water diversion communicating pipes 5 for guiding underground water to flow into the water storage tank 1 and a controller electrically connected with the water storage tank lifting device 2, wherein the water storage tank 1 is arranged in the basement 200; the bottom of the water storage tank 1 is provided with a water inlet, and a first water outlet 11 is arranged at a position of the water storage tank 1 higher than the water inlet of the water storage tank 1; one port of the water diversion communicating pipe 5 is positioned in the basement 200 and is communicated with one port of the water inlet hose 3, the other port of the water diversion communicating pipe 5 is communicated with the blind ditch 600, and the other port of the water inlet hose 3 is communicated with the water inlet of the water storage tank 1, so that the underground water from the blind ditch 600 flows into the water storage tank 1; the water storage tank 1 is arranged on the water storage tank lifting device 2; the water tank lifting device 2 is used for controlling and adjusting the height of the water tank 1 relative to the bottom plate of the basement 200, namely, the current height difference between the water level of the underground water head outside the basement 200 and the first water outlet 11; one port of the first drain hose 4 is communicated with the first drain port 11, and the water outlet direction of the other port of the first drain hose 4 is communicated with the water collecting well 300; the water diversion communicating pipe 5 penetrates through the basement 200, and the pipe wall of the water diversion communicating pipe 5 is sealed with the hole wall of the basement 200;
when the water storage tank 1 is lifted and the height of the first water outlet 11 is lower than the current height of the groundwater head water level outside the basement 200, the flow speed of the water inlet of the water storage tank 1 is reduced and the flow speed of the other port of the first water discharge hose 4 is increased;
When the water storage tank 1 is lowered and the height of the first drain opening 11 is lower than the current ground water head level outside the basement 200, the flow rate of the water inlet of the water storage tank 1 is increased and the flow rate of the other port of the first drain hose 4 is decreased.
Specifically, the other port of the first drain hose 4 may also be docked to the water collection well 300 by providing a hard pipe, the other port of the first drain hose 4 being close to the top surface of the floor of the basement 200.
Specifically, the water storage tank 1 transfers groundwater below the bottom plate of the basement 200 into the water collection well 300 in a self-overflow mode, and controls the groundwater head below the bottom plate of the basement 200 to be kept at a set position; if the basement 200 is divided into two floors, the water collection well 300 is located in the floor space of the second floor, and the groundwater head is maintained near the ceiling of the floor space of the second floor of the basement 200 or at an arbitrary height of the basement.
Specifically, a hydrophobic layer 500 is arranged below the bottom plate of the basement 200, and the hydrophobic layer 500 gathers underground water entering the foundation pit into the blind ditch 600 and then enters the water storage tank 1 through the water diversion communicating pipe 5; the hydrophobic layer 500 is paved by materials such as broken stone, coarse sand and the like; the blind ditches 600 may be multiple, and each blind ditch 600 is communicated with each other in a well-shaped distribution on a plane.
Optimally, the anti-floating system comprises a water pump 6; the water inlet of the water suction pump 6 is communicated with the water storage of the water collection well 300, and the water storage of the water collection well 300 is discharged from the basement 200 by the water outlet of the water suction pump 6; specifically, the water in the water collection well 300 is pumped out of the basement by the water pump 6 and its water pipe.
Optimally, the anti-floating system further comprises a second drain hose 7; a second water outlet 12 is arranged at a position higher than the first water outlet 11 of the water storage tank 1; one port of the second drain hose 7 is communicated with the second drain port 12, and the water outlet direction of the other port of the second drain hose 7 is communicated with the water collecting well 300; the first water outlet 11 is used as a water outlet of the water storage tank 1 at a constant water level; the second drain opening 12 serves as a drain opening for the flood level of the water storage tank 1.
Specifically, the other port of the second drain hose 7 may also be docked to the water collection well 300 by providing another hard pipe, the other port of the second drain hose 7 being close to the top surface of the floor of the basement 200.
Optimally, a third water outlet 13 is arranged at the position of the water storage tank 1 higher than the second water outlet 12; the third water outlet 13 is used as an emergency water outlet of the water storage tank 1; the top of the water storage tank 1 is provided with a vent hole 14 communicated with the atmosphere; therefore, the anti-floating system can ensure the safety of the building in an emergency drainage mode.
Specifically, the vent hole 14 is used for ensuring that the underground water flows into the water collecting well 300 through the first drainage hose 4 in a self-overflow mode after entering the water storage tank 1 through the water inlet hose 3 from the blind drain 600; specifically, when flood is performed in the flood season, after the water storage tank 1 rises to the highest position, if the drainage speed of the first drainage port 11 cannot meet the requirement, the second drainage port 12 and the third drainage port 13 can automatically drain, the drainage speed can be greatly improved through the second drainage port 12 and the third drainage port 13, and the groundwater level is prevented from exceeding the anti-floating design water level; specifically, the vent hole 14 can prevent siphon effect, ensure water in the water storage tank 1 to drain in a self-overflow mode, and the vent hole 14 is positioned at the top edge of the water storage tank 1.
Specifically, the third water outlet 13 of the water storage tank 1 is positioned at the top of the side wall of the water storage tank 1, and the opening is downward, so that emergency water drainage can be performed when the water storage tank 1 is full, and the water can be directly discharged into a basement; during flood season, the first water outlet 11 and the second water outlet 12 are matched to drain water.
Optimally, the water tank lifting device 2 comprises a driving device 21, a lifting guide mechanism 22 and an intermediate connecting piece 23; the driving device 21 enables the water storage tank 1 to be borne on the lifting guide mechanism 22 through the intermediate connecting piece 23, so that the water storage tank 1 is driven to move up and down.
Optimally, the driving device 21 is a winch; the lifting guide mechanism 22 comprises a pulley block positioned above the water storage tank 1; the middle connecting piece 23 is a steel wire rope with one end wound by the winding machine and connected with the water storage tank 1.
Specifically, the lifting guide mechanism 22 further comprises a plurality of vertically arranged guide rods, and the water storage tank 1 is movably connected with the guide rods and moves up and down along the guide rods.
Alternatively, the driving device 21 includes a motor and a speed reducer; the lifting guide mechanism 22 comprises a vertically arranged screw rod; the intermediate connector 23 is a connector screwed to a wire rod.
Optimally, a water inlet of the water storage tank 1 is provided with a first water flow parameter detection sensor 8; the first water flow parameter detection sensor 8 is used for detecting the water inlet flow speed/water pressure parameter; the first water flow parameter detection sensor 8 is connected with the controller.
Optimally, the first water flow parameter detection sensor 8 is a first water pressure sensor, and the anti-floating system further comprises a water head pressure sensor 9 arranged in the blind ditch 600 and a second water pressure sensor 10 arranged at one port of the water inlet hose 3; the head pressure sensor 9 is used for detecting the head pressure in the blind drain 600; the second water pressure sensor 10 is used for detecting the water pressure of one port of the water inlet hose 3; the controller is respectively connected with a water head pressure sensor 9 and a second water pressure sensor 10.
Specifically, the head pressure sensor 9 is in wired or wireless communication with the controller.
Specifically, when the groundwater head on the blind drain 600 is higher than the height of the first drain port 11, the groundwater of the blind drain 600 may overflow through the first drain port 11 and then flow into the water collection well 300 through the first drain hose 4; the controller is connected with a first water flow parameter detection sensor 8 at the bottom of the water storage tank 1 to test the water discharge, and the controller is connected with the water storage tank lifting device 2 to control the position height of the water storage tank 1 in the basement 200; the control threshold corresponding to the first water flow parameter detection sensor 8 is set in the controller, and the water discharge can be controlled by controlling the lifting mode of the water storage tank 1; the first water flow parameter detecting sensor 8 may employ a water pressure sensor or a flow rate sensor or a water pressure and flow rate integrated detecting sensor.
Further optimally, a flood level detection switch is arranged on the inner wall of the water tank which is positioned between the first water outlet 11 and the second water outlet 12 and is close to the second water outlet 12; the water outlet channel of the second water outlet 12 is provided with a flood level pipeline switch valve which is electrically connected with the controller; when the flood level detection switch detects that the water tank liquid level is close to the flood level, the flood level pipeline switch valve is controlled to be opened; the flood line switching valve may also be set to a normally open state.
Example 2
As shown in fig. 1-3:
The embodiment also provides a self-overflow anti-blocking drainage and water volume adjustable anti-floating control method, which is applied to the self-overflow anti-blocking drainage and water volume adjustable anti-floating system as described in the embodiment 1, and the anti-floating control method comprises the following steps:
Step one, obtaining detection parameters of a first water flow parameter detection sensor 8; and step two, adjusting the height of the water storage tank 1 according to the detection parameters of the first water flow parameter detection sensor 8.
Example 3
As shown in fig. 1-3:
The present embodiment also proposes a building, comprising a building main body 100, a basement 200 positioned below the building main body 100 and rigidly connected to the building main body 100, a water collecting well 300 positioned below the basement 200 and rigidly connected to the basement 200, and a self-overflow anti-blocking drainage anti-floating system with adjustable water volume according to any one of the embodiments 1; a waterproof curtain 400 is arranged between the basement 200 and the inner wall of the foundation pit, and the longitudinal bottom of the waterproof curtain 400 extends to a waterproof soil stratum below the foundation pit; the present groundwater outside the basement 200 is groundwater between the basement 200 and the waterproof curtain 400 of the foundation pit.
Example 4
Embodiment 4 is an optimized design of any one or several combination of the technical solutions in embodiment 1;
As shown in fig. 1-3:
The water collection well 300 is a standing structure of a basement, and there will be a plurality of water collection wells under the basement 200 or in the bottom space of the second floor of the basement 200, so that one basement may be provided with a plurality of anti-floating systems with self-overflow anti-blocking drainage and adjustable water quantity as described above.
Further optimally, the self-overflow anti-blocking water-draining and water-quantity-adjustable anti-floating system also comprises a water pressure display, wherein the water pressure display is used for displaying the water pressure parameter of a water inlet arranged at the bottom of the water storage tank 1; the hydraulic pressure display can assist the staff in checking the displacement.
Further optimally, the size of the water storage tank 1 is kept approximately cubic, the volume is 1-2m 3, the bottom of the water storage tank is conical, noise generated in the water storage tank 1 when groundwater is gushed out is kept at a low level, and the water level of the water storage tank 1 is stable.
Further optimally, the water inlet hose 3 is made of telescopic materials, can adapt to the lifting of the water storage tank 1, and has the diameter of 6-12cm; the position of the water inlet hose 3 is positioned at the geometric center of the bottom of the water storage tank 1; the first water outlet 11 is positioned at the bottom of the side surface of the water storage tank 1, so that water can be conveniently discharged; the second drain opening 12 is activated when the water level is high.
Example 5
As shown in fig. 1-3:
The embodiment also provides a self-overflow anti-blocking drainage and water volume-adjustable anti-floating control method, which is applied to a self-overflow anti-blocking drainage and water volume-adjustable anti-floating system, the anti-floating system is applied to a building provided with a basement 200 for preventing underground water leakage, a water collecting well 300 is arranged at the bottom of the basement 200, a hydrophobic layer 500 and a blind ditch 600 are arranged below the basement 200, the hydrophobic layer 500 and the blind ditch 600 are both positioned in foundation pits of the corresponding building, underground water from the hydrophobic layer 500 is gathered in the blind ditch 600, and the anti-floating system comprises a water storage tank 1, a water storage tank, The water storage tank lifting device 2, the water inlet hose 3, the first water outlet hose 4, a plurality of water diversion communicating pipes 5 for guiding underground water to flow into the water storage tank 1 from the water storage tank and a controller electrically connected with the water storage tank lifting device 2; The bottom of the water storage tank 1 is provided with a water inlet, and a first water outlet 11 is arranged at a position of the water storage tank 1 higher than the water inlet of the water storage tank 1; one port of the water diversion communicating pipe 5 is positioned in the basement 200 and is communicated with one port of the water inlet hose 3, the other port of the water diversion communicating pipe 5 is communicated with the blind ditch 600, and the other port of the water inlet hose 3 is communicated with the water inlet of the water storage tank 1, so that the underground water from the blind ditch 600 flows into the water storage tank 1; the water storage tank 1 is arranged on the water storage tank lifting device 2; the water tank lifting device 2 is used for controlling and adjusting the height of the water tank 1 relative to the bottom plate of the basement 200, namely, the current height difference between the water level of the underground water head outside the basement 200 and the first water outlet 11; one port of the first drain hose 4 is communicated with the first drain port 11, and the water outlet direction of the other port of the first drain hose 4 is communicated with the water collecting well 300; the water diversion communicating pipe 5 penetrates through the basement 200, and the pipe wall of the water diversion communicating pipe 5 is sealed with the hole wall of the basement 200; the anti-floating system also comprises a water suction pump 6 and a second water discharge hose 7; the water inlet of the water suction pump 6 is communicated with the water storage of the water collection well 300, and the water storage of the water collection well 300 is discharged from the basement 200 by the water outlet of the water suction pump 6; a second water outlet 12 is arranged at a position higher than the first water outlet 11 of the water storage tank 1; one port of the second drain hose 7 is communicated with the second drain port 12, and the water outlet direction of the other port of the second drain hose 7 is communicated with the water collecting well 300; The first water outlet 11 is used as a water outlet of the water storage tank 1 at a constant water level; the second water outlet 12 is used as a water outlet of the flood level of the water storage tank 1; a water inlet of the water storage tank 1 is provided with a first water flow parameter detection sensor 8; the first water flow parameter detection sensor 8 is used for detecting a water pressure parameter; the first water flow parameter detection sensor 8 is connected with the controller; the first water flow parameter detection sensor 8 is a first water pressure sensor, and the anti-floating system further comprises a water head pressure sensor 9 arranged in the blind ditch 600 and a second water pressure sensor 10 arranged at one port of the water inlet hose 3 (namely, the water inlet of the water inlet hose 3); the head pressure sensor 9 is used for detecting the head pressure in the blind drain 600; The second water pressure sensor 10 is used for detecting the water pressure of one port of the water inlet hose 3; the controller is respectively connected with a water head pressure sensor 9 and a second water pressure sensor 10; when the water storage tank 1 is lifted and the height of the first water outlet 11 is lower than the current height of the groundwater head water level outside the basement 200, the flow speed of the water inlet of the water storage tank 1 is reduced and the flow speed of the other port of the first water discharge hose 4 is increased; when the water storage tank 1 is lowered and the height of the first water outlet 11 is lower than the current height of the groundwater head water level outside the basement 200, the flow speed of the water inlet of the water storage tank 1 is increased, and the flow speed of the other port of the first water discharge hose 4 is decreased;
The anti-floating control method comprises the following steps:
Step one, respectively obtaining detection parameters of a first water flow parameter detection sensor 8, a water head pressure sensor 9 and a second water pressure sensor 10; and step two, adjusting the height of the water storage tank 1 according to the detection parameters of the first water flow parameter detection sensor 8, and judging whether the blind drain 600 is blocked or not according to the water pressure difference value between the detection parameters of the water head pressure sensor 9 and the detection parameters of the second water pressure sensor 10.
Further preferably, in the second step, when the detected parameter of the first water flow parameter detecting sensor 8 exceeds a parameter control value range, the water storage tank 1 is controlled to rise until the detected parameter of the first water flow parameter detecting sensor 8 is within the parameter control value range; when the detected parameter of the first water flow parameter detecting sensor 8 is lower than a parameter control value range, the water storage tank 1 is controlled to be lowered until the detected parameter of the first water flow parameter detecting sensor 8 is within the parameter control value range.
Further preferably, in the second step, when the hydraulic pressure difference between the detection parameter of the water head pressure sensor 9 and the detection parameter of the second water pressure sensor 10 exceeds a threshold, it is determined that the blind drain 600 is not blocked, and when the hydraulic pressure difference between the detection parameter of the water head pressure sensor 9 and the detection parameter of the second water pressure sensor 10 is less than or equal to the threshold, it is determined that the blind drain 600 is blocked.
The foregoing examples illustrate only a few embodiments of the invention and are described in detail herein without thereby limiting the scope of the invention. It should be noted that it will be apparent to those skilled in the art that several variations and modifications can be made without departing from the spirit of the invention, which are all within the scope of the invention. Accordingly, the scope of protection of the present invention is to be determined by the appended claims.

Claims (10)

1. The utility model provides a prevent stifled drainage by oneself and adjustable anti floating system of water yield, is applied to the building that is equipped with basement (200) of preventing groundwater seepage, basement (200) bottom is equipped with sump pit (300), is equipped with hydrophobic layer (500) and french drain (600) below basement (200) and hydrophobic layer (500) and french drain (600) all are located the foundation ditch of corresponding building, and the groundwater from hydrophobic layer (500) gathers in french drain (600), characterized in that, this anti floating system includes storage water tank (1) that is higher than sump pit (300) that locates in basement (200), storage water tank lifting device (2), intake hose (3), first drainage hose (4), a plurality of diversion communicating pipe (5) and the controller of being used for guiding groundwater to flow into storage water tank (1) from electricity connection with lifting device (2); the bottom of the water storage tank (1) is provided with a water inlet, and a first water outlet (11) is arranged at a position higher than the water inlet of the water storage tank (1); one port of the water diversion communicating pipe (5) is positioned in the basement (200) and is communicated with one port of the water inlet hose (3), the other port of the water diversion communicating pipe (5) is communicated with the blind ditch (600), and the other port of the water inlet hose (3) is communicated with the water inlet of the water storage tank (1), so that groundwater from the blind ditch (600) automatically flows into the water storage tank (1); the water storage tank (1) is arranged on the water storage tank lifting device (2); the water storage tank lifting device (2) is used for controlling and adjusting the height of the water storage tank (1) relative to the bottom plate of the basement (200), namely, the height difference between the current groundwater head water level outside the basement (200) and the first water outlet (11); one port of the first water discharge hose (4) is communicated with the first water discharge port (11), and the water outlet direction of the other port of the first water discharge hose (4) is communicated with the water collecting well (300); the water diversion communicating pipe (5) penetrates through the basement (200) and the pipe wall of the water diversion communicating pipe (5) is sealed with the hole wall of the basement (200);
when the water storage tank (1) is lifted, and the height of the first water outlet (11) is lower than the current height of the water level of the underground water head outside the basement (200), the flow rate of the water inlet of the water storage tank (1) is reduced, and the flow rate of the other port of the first water discharge hose (4) is increased;
When the water storage tank (1) is lowered and the height of the first water outlet (11) is lower than the current height of the groundwater head water level outside the basement (200), the flow speed of the water inlet of the water storage tank (1) is increased, and the flow speed of the other port of the first water discharge hose (4) is decreased.
2. The self-overflow anti-blocking drainage and water quantity adjustable anti-floating system according to claim 1, characterized in that it comprises a water pump (6); the water inlet of the water pump (6) is communicated with the water storage of the water collecting well (300), and the water storage of the water collecting well (300) is discharged from the basement (200) through the water outlet of the water pump (6).
3. The anti-floating system with self-overflow anti-blocking drain and adjustable water volume according to claim 1, characterized in that it further comprises a second drain hose (7); a second water outlet (12) is arranged at the position of the water storage tank (1) higher than the first water outlet (11); one port of the second water discharge hose (7) is communicated with the second water discharge port (12), and the water outlet direction of the other port of the second water discharge hose (7) is communicated with the water collecting well (300); the first water outlet (11) is used as a water outlet of the water storage tank (1) at the normal water level; the second water outlet (12) is used as a water outlet of the flood level of the water storage tank (1).
4. A self-overflow anti-blocking drainage and water volume adjustable anti-floating system according to claim 3, characterized in that a third drainage outlet (13) is arranged at a position higher than the second drainage outlet (12) of the water storage tank (1); the third water outlet (13) is used as an emergency water outlet of the water storage tank (1); the top of the water storage tank (1) is provided with a vent hole (14).
5. The self-overflow anti-blocking drainage and water volume adjustable anti-floating system according to claim 1, wherein the water tank lifting device (2) comprises a driving device (21), a lifting guide mechanism (22) and an intermediate connecting piece (23); the driving device (21) enables the water storage tank (1) to be borne on the lifting guide mechanism (22) through the middle connecting piece (23), so that the water storage tank (1) is driven to do lifting movement.
6. The self-overflow anti-blocking drainage anti-floating system with adjustable water quantity according to claim 5, characterized in that the driving device (21) is a winch; the lifting guide mechanism (22) comprises a pulley block positioned above the water storage tank (1); the middle connecting piece (23) is a steel wire rope with one end wound by the winding machine connected with the water storage tank (1).
7. The self-overflow anti-blocking drainage anti-floating system with adjustable water quantity according to any one of claims 1-6, characterized in that a water inlet of the water storage tank (1) is provided with a first water flow parameter detection sensor (8); the first water flow parameter detection sensor (8) is used for detecting the water inlet flow speed/water pressure parameter; the first water flow parameter detection sensor (8) is connected with the controller.
8. The anti-floating system with the self-overflow anti-blocking water discharge and adjustable water quantity according to claim 7, wherein the first water flow parameter detection sensor (8) is a first water pressure sensor, and the anti-floating system further comprises a water head pressure sensor (9) arranged in a blind ditch (600) and a second water pressure sensor (10) arranged at one port of the water inlet hose (3); the water head pressure sensor (9) is used for detecting water head pressure in the blind ditch (600); the second water pressure sensor (10) is used for detecting the water pressure of a port of the water inlet hose (3); the controller is respectively connected with a water head pressure sensor (9) and a second water pressure sensor (10).
9. The anti-floating control method with the adjustable self-overflow anti-blocking drainage is applied to the anti-floating system with the adjustable self-overflow anti-blocking drainage according to claim 7, and is characterized by comprising the following steps:
Step one, obtaining detection parameters of a first water flow parameter detection sensor (8); and step two, adjusting the height of the water storage tank (1) according to the detection parameters of the first water flow parameter detection sensor (8).
10. A building comprising a building body (100), a basement (200) located below the building body (100) and rigidly connected to the building body (100), a water collection well (300) located below the basement (200) and rigidly connected to the basement (200), and a self-overflow anti-blocking drainage and water volume-adjustable anti-floating system according to any one of claims 1-8; a waterproof curtain (400) is arranged between the basement (200) and the inner wall of the foundation pit, and the longitudinal bottom of the waterproof curtain (400) extends to a waterproof soil stratum below the foundation pit; the current groundwater outside the basement (200) is groundwater between the basement (200) and the waterproof curtain (400) of the foundation pit.
CN202410650652.3A 2024-05-24 2024-05-24 Anti-floating system capable of preventing water from being blocked and draining automatically and adjusting water quantity, control method and building Pending CN118441733A (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN118671309A (en) * 2024-08-20 2024-09-20 成都理工大学 Seepage drainage model test device and method under active anti-floating measure condition

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN118671309A (en) * 2024-08-20 2024-09-20 成都理工大学 Seepage drainage model test device and method under active anti-floating measure condition

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