CN211773381U - Bidirectional system of double-control flap valve - Google Patents
Bidirectional system of double-control flap valve Download PDFInfo
- Publication number
- CN211773381U CN211773381U CN201921951283.2U CN201921951283U CN211773381U CN 211773381 U CN211773381 U CN 211773381U CN 201921951283 U CN201921951283 U CN 201921951283U CN 211773381 U CN211773381 U CN 211773381U
- Authority
- CN
- China
- Prior art keywords
- flap valve
- double
- limiting
- driving
- control
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Active
Links
Images
Landscapes
- Barrages (AREA)
Abstract
A bidirectional system of a double-control flap valve comprises a double-control flap valve system, a flap valve translation system and a flap valve translation limiting system, wherein in the double-control flap valve system, the double-control flap valve is positioned on a flap valve support, the upper end of the double-control flap valve is arranged on the flap valve support, and the double-control flap valve is connected with a flap valve fixed shaft rotation locking device; the flap valve translation system comprises a driving device, a driving walking support rail, a driving limiting device and a translation coupling beam; the flap valve support is arranged on a translational coupling beam, two ends of the translational coupling beam are connected to the driving walking support track in a sliding manner, and the translational coupling beam is connected with a driving device for driving the translational coupling beam to move and a driving limiting device for limiting; the left and right limit positions of the driving walking support track correspond to the flap valve positions of two liquid flow passages where the double-control flap valve system is located; the flap valve translation limiting system comprises a limiting device, and the limiting device is positioned between the two liquid flow channels. The utility model discloses a around the rotation of support and the following current of support to the translation, realize fluidic bilateral control: drainage or diversion function.
Description
Technical Field
The utility model belongs to irrigation and water conservancy, municipal administration, traffic, mechanical equipment device and fluid field, especially a two-way two accuse system of clapping. Bidirectional, means that one flap valve is controlled to realize two flow states of water diversion (diversion from outside water to inside river) or drainage (drainage from inside river to outside river); the double control refers to that the flap valve has the function of closing and opening under the high pressure of internal water.
Background
The gate and the opening and closing device are control devices arranged on various overflowing pore canals of the overflowing building and are important components of the overflowing building. The gate can adjust the flow and the water level when opened or closed so as to achieve the purposes of flood control, irrigation, power generation, navigation, wood passing, sand discharge, ice discharge, floating discharge and the like. The shape of the gate commonly used is plane, arc, sector and the like.
The plane gate has simple structure and convenient and reliable operation, and is the most common gate for hydraulic buildings. Dividing the whole plane into a whole plate and a beam grid type gate according to the shape of the gate; the panel may be in the form of a flat or curved surface. Depending on the moving mode, there are vertical lift type, horizontal (push) pull type, rotary type, floating box type, and horizontal lift type plane gate. The horizontal pulling type plane gate can move transversely along the track and is only suitable for being operated under still water conditions. The rotary plane gate is divided into horizontal axis rotation (flap gate, flap gate and flap gate) and vertical axis rotation (straight gate and herringbone gate). The buoyancy tank type plane gate can only be operated under still water condition, and is generally used as an overhaul gate.
In hydraulic and hydroelectric engineering, the main requirements for opening and closing equipment are as follows: the work is safe and reliable, high in efficiency, simple in structure, light in weight, low in manufacturing cost and maintenance cost, convenient to operate, neat in appearance, small in size, small in occupied area and the like. When selecting the opening and closing device, the following factors should be considered: the type, size and operation of the gate, the number of openings, the opening and closing forces, and sometimes the holding force, the opening and closing stroke, the opening and closing speed, the number and spacing of the lifting points, the power conditions, the space size of the installation site, and the building conditions are also considered. The type of the gate determines the structural scheme of the lock chamber, the opening and closing mode, the flow state of the overflowing, the management and operation facilities and personnel allocation, the traffic on the gate and the foundation treatment scheme, and the construction and safety cost and the management and operation are greatly influenced.
According to the first national water conservancy general survey bulletin, the standard time point of general survey is 12 months and 31 days in 2011, and the general survey period is 2011. The sluice flow rate is 1 cubic meter per second or more, 268476 seats of sluice and 2685 seats of rubber dam.
According to 2017 statistical data (2018.6) of the Living department of Zhejiang province, the water gates 13221 are arranged on a larger scale, wherein the water gates 18, 344 and 12859 are arranged on the large-scale water gate, and the water gates in the small-scale water gate account for more than 99.9%. The width of the single-hole gate is less than or equal to 6m and accounts for 95.5%, less than or equal to 5m and accounts for 92.7%, and the width of the single-hole gate accounts for 65.5%. Therefore, the study on the gate with the single-hole clear width less than or equal to 6m has universality and universality.
The prior art is as follows:
1. the fulcrum rotates. The typical application is that a transverse shaft rotates (a flap door, a flap door and a flap door), and the flap door is divided into an upper flap and a lower flap; vertical axis rotation (straight and miter gates); an arc (fan) shaped gate.
2. Straight up and straight down (Z-axis motion trajectory). Typical applications include fixed wheels, sliding wheels, chain wheels, and reverse hooks; the motion trail of the special plane gate with lifting and horizontal type is vertical lifting, rotation and translation.
3. Push-pull (X-axis, motion trajectory perpendicular to the direction of water flow), a typical application is a cross-pull gate. Occupies more space for opening and closing the walking track.
4. The Y-axis (motion trajectory in the direction of water flow) is less useful, and a typical application is a float box gate.
5. Translation in the Y-axis direction and rotation of a fulcrum are not applied.
The movement track of the gate is mostly pivot rotation, straight up and straight down (Z-axis movement track) or push-pull (X-axis and movement track vertical to the water flow direction), and more space for opening and closing the walking track is occupied; the Y-axis (motion trajectory in the direction of water flow) is less useful, and a typical application is a float box type flat gate. The gate with the motion track of translation in the Y-axis direction and rotation of the fulcrum has no relevant research and application.
The general gate adopts steel and reinforced concrete, has heavy dead weight and needs large opening and closing equipment. With the research and development and wide application of composite materials of large airplanes and domestic wind turbine sets (impeller diameter 126m, blade length 61.5m and single blade mass 18 tons) in the aviation field, the time of the gate adopting the composite materials is mature, and the application of the gate of the composite materials of the middle and small water gates is not common at present.
The double-control flap valve overcomes the defect that the traditional flap valve can only operate in one direction (namely can be opened), and has the double-control function of still closing and opening under a high liquid level. The double-control flap valve cover is closed in the original state, and under the condition that the double-control flap valve cover is closed, the flap valve cover is still closed and can be opened under the high-pressure state of the inner side of the flap valve through the control system according to the locking relation of the flap valve cover and the flap valve seat, so that the double-control flap valve cover has two control functions. The double-control flap valve can only realize the one-way drainage or water diversion function in the aspect of flow state control, and the opening degree of the flap valve cannot be controlled.
Disclosure of Invention
In order to overcome the defect that the existing flap valve cannot simultaneously have the two-way functions of controlling drainage and diversion, the utility model provides a two-way double-control flap valve system simultaneously having the two-way functions of controlling drainage and diversion.
The utility model provides a technical scheme that its technical problem adopted is:
a bidirectional system of double-control flap valves comprises a double-control flap valve system, a flap valve translational system and a flap valve translational limiting system, wherein the double-control flap valve system comprises a double-control flap valve, a flap valve support, a flap valve seat and a flap valve fixed shaft rotation locking device for driving the double-control flap valve to rotate;
the flap valve translation system comprises a driving device, a driving walking support rail, a driving limiting device and a translation coupling beam; the flap valve support is arranged on the translational coupling beam, two ends of the translational coupling beam are respectively connected to the driving walking support rails in a sliding manner, and the translational coupling beam is connected with a driving device for driving the translational coupling beam to move and a driving limiting device for limiting; the left limit position and the right limit position on the driving walking support track correspond to the flap valve positions of the two liquid flow passages where the double-control flap valve system is located;
the flap valve translation limiting system comprises a limiting device, and the limiting device is positioned between the two liquid flow channels.
Further, the flap valve dead axle rotation locking device comprises a locking hole, a locking pin, a reinforced cellular board and a dead axle vibration-proof instant stop assembly; the locking hole and the reinforced honeycomb plate are arranged on the flap valve; the locking pin is arranged on the runner pier and is a telescopic device, and the locking pin is matched with the locking hole to realize vibration prevention and locking when the fixed shaft rotates;
the dead axle vibration-proof instant stop assembly comprises a driving device and a damping device, and when the damping device is a sliding block, the instant stop assembly is connected with the flap valve; when the damping device is an air bag, the stop at any time component can be connected with the flap valve and also can be connected with the runner pier; the damping device realizes vibration prevention and locking when the fixed shaft rotates under the action of the driving device and the damping action of the runner pier or the flap valve. Preferably, the dead axle anti-vibration instant stop assembly is in an air bag damping mode or a sliding block damping mode.
Still further, the stop device is a limit floating ball, and the limit floating ball comprises a floating body and a sliding rod thereof. The floating body is suspended at a certain high position of the cavity of the runner pier under the action of buoyancy, the cavity is communicated with the runner liquid, and the lifting of the floating body is automatically coordinated with the liquid level buoyancy. The sliding rod is connected with the floating body and exposed outside the runner pier. Of course, other schemes are possible.
Still further, the flap valve translation limiting system further comprises finger limiting components, the finger limiting components are distributed between the flap valve and the limiting device, and the finger limiting components are matched with two sides of the double-control flap valve.
Preferably, the finger limiting assembly comprises a driving device and a telescopic device, the finger limiting assembly is fixed in the runner pier, the driving device is driven by hydraulic pressure, mechanical pressure, pneumatic pressure or electromagnetic pressure or in multiple driving modes, the telescopic device can freely stretch out and draw back inside and outside the runner pier under the action of the driving device, and is connected with the flap valve during limiting to prevent the flap valve from moving upwards.
The flap valve fixed shaft rotation locking device adopts a hydraulic, mechanical, pneumatic, electromagnetic driving or hydraulic single or multiple driving modes.
The dead axle vibration-proof stop-at-time assembly adopts a slide block damping mode, the dead axle vibration-proof stop-at-time assembly comprises an upper slide block, a lower slide block and a telescopic sealed water stop and driving device, the slide blocks are arranged on two sides of the flap valve, a pneumatic or hydraulic mechanical telescopic driving device and the like are arranged in or outside the slide blocks, and the dead axle vibration-proof stop-at-time is realized through the friction force between the slide block telescopic motion and the flow channel pier.
Or the following steps: the fixed shaft anti-vibration instant stop assembly adopts an air bag damping mode, comprises an air bag and a built-in spring and is tightly attached to the fixed side when no air exists; when the air bag is inflated, the gate pier or the flap valve moving relative to the air bag generates friction force with the air bag which is relatively static, so that fixed-shaft vibration prevention is realized, the flap valve is stopped at any time and vibration is reduced, the air bag can be fixed with the flap valve, the size of the air bag is smaller, and the weight of the flap valve is increased; the air bag can be fixed with the runner pier, and the flap valve has the minimum weight at the moment, which is a preferred scheme.
The driving walking support rail is provided with a stretching device, and when the stretching device is lowered to the runner bottom plate, the flap valve is horizontally arranged on the runner bottom plate, so that the passing function of ships is realized; when the lifting device rises to a flood high point, the function of the maximum flood-running and overflowing capacity can be met.
A vertical upright post or a component is arranged in the middle of the flow channel; when the outside of the vertical supports at the two sides of the flap valve is provided with a chute and a foldable component. The two schemes provide lateral force resisting support for the flap valve, and the flap valve is not directly arranged on the flap valve, so that the stress and deformation of the flap valve can be greatly improved on the premise of not increasing the weight of the flap valve, the plane size and the flow passage size of the flap valve are increased, and the flow capacity is increased; the lower part of the double-control flap door is provided with a flap door pull lug, and under special conditions, power-assisted opening can be realized by matching the flap door pull lug with an automatic grabbing beam (a certain type of gate is usually provided with a mechanical lifting device).
The technical conception of the utility model is as follows: the utility model discloses on two accuses flap valve research basis, increase the function of stopping at any time after the one-way opening again, control flap valve opening degree realizes the flow control function.
The utility model discloses on two accuses research basis of clapping a door, increase two-way function again: a limiting device (such as a floating cylinder limiting device) is arranged on the flap valve which translates along the Y-axis direction and rotates along the pivot, and one flap valve has a bidirectional function of controlling drainage or water diversion.
The utility model discloses a around the rotation of support and the following current of support to the translation, fluidic bilateral control can be realized to the single flap valve, controls fluidic introduction or discharge promptly.
The beneficial effects of the utility model are that: meanwhile, the bidirectional functions of drainage and diversion are controlled; with the research and development and wide application of composite materials of large airplanes and domestic wind turbine sets (impeller diameter 126m, blade length 61.5m and single blade mass 18 tons) in the aviation field, the door-clapping time of the composite materials is mature. The composite material double-control bidirectional flap valve reduces the self weight of the flap valve, and realizes the opening and closing functions of the sluice gate by utilizing the hydraulic condition, the plane walking device and the locking device.
Drawings
Fig. 1 is a schematic structural diagram of a two-way system of a double-control flap valve.
Fig. 2 is a plan view of a chamber of the bi-directional double slap door.
Fig. 3 is a structural view of a bi-directional double slap door, in which (a) is a front view, (b) is a side view, and (c) is a top view.
FIG. 4 is a plan view of a dead axle vibration-proof instant stop scheme, which adopts a slide block damping mode.
FIG. 5 is a plan view of the dead axle vibration-proof instant stop, which adopts the air bag damping mode.
Detailed Description
The present invention will be further described with reference to the accompanying drawings.
Referring to fig. 1 to 5, a bi-directional system of a double-control flap valve comprises a double-control flap valve system 1, a flap valve translation system 2 and a flap valve translation limit system 3, wherein the double-control flap valve system 1 comprises a double-control flap valve 11, a flap valve support 12, a flap valve seat 13, a flap valve fixed shaft rotation locking device 14, an anti-collision pad 15 and a flap valve pull lug 16, and the flap valve fixed shaft rotation locking device 14 comprises a locking hole 141, a locking pin 142, a reinforced honeycomb panel 143 and a fixed shaft anti-vibration instant stop assembly 144; the flap valve translation system 2 comprises a driving device 21, a driving walking support track 22, a driving limiting device 23 and a translation linkage beam 24; the flap valve translation limiting system 3 comprises a limiting device 31 (movable) and a 32-35 finger limiting component, wherein the limiting device 31 comprises a floating body 311 and a sliding rod 312. The flap valve has 6 working positions including PMWZ 1-PMWZ 6. Fig. 4 and 5 show two typical examples of the fixed-axis anti-vibration stop-and-go assembly 144, specifically, a slider damping manner and an airbag damping manner. The slide block damping fixed-shaft anti-vibration instant stop assembly comprises an upper slide block 101, a lower slide block 102, a telescopic sealing water stop 103 and a driving device 104. The air bag damping dead axle anti-vibration instant stop assembly comprises an air bag and a built-in spring 202.
The double-control flap valve of the embodiment rotates with a fixed shaft to respectively complete the basic functions of drainage or diversion. Belonging to the double-control category of flap valve. See utility model patent, the name "two accuse clap door" for details, patent number: ZL 201410777814.6.
Draining stagnant water: when the inland river water level is higher than the inland river water level, the double-control flap valve can be in a closed state under the combined action of the locking hole 141 of the flap valve fixed-shaft rotation locking device 14, the locking pin 142 or the fixed-shaft vibration-proof instant stop assembly 144, and the river channel is cut off. When the double-control flap valve is unlocked, the flap valve is automatically opened under the action of water power, and when the flap valve is positioned at PMWZ2, the finger limiting component 32 or 33 and the 144 dead-axle vibration-proof instant stop component act, so that the flap valve is locked under the opening working condition, and the function of controlling the drainage flow is realized. In special cases, power-assisted opening can also be realized by matching the flap door pull lug 16 with an automatic grabbing beam (a certain type of common gate mechanical lifting device).
Water diversion: when the water level of the external river is higher than that of the internal river, the method is in a closed state or controls the diversion flow under the combined action of the locking hole, the locking pin and the anti-vibration stop damping block at any time or the limiting device under the same drainage working condition.
On the basis of double-control flap valve research, a function of stopping at any time after unidirectional opening is added. A fixed shaft anti-vibration instant stop assembly 144 is arranged on the side of the flap valve, so that the opening degree of the flap valve can be controlled at any time, and the flow control and flap valve anti-vibration functions are realized.
The driving mode of the fixed-axis anti-vibration stop-and-go assembly 144 can be a single or multiple driving and locking mode such as hydraulic, mechanical, pneumatic, electromagnetic driving, hydraulic, etc. The typical vibration prevention is stopped at any time by a slide damping mode and an air bag damping mode.
A slide block damping mode: comprises an upper slide block 101, a lower slide block 102, a telescopic sealing water stop 103 and a driving device 104. The sliding blocks are arranged on two sides of the flap valve, and pneumatic or hydraulic mechanical telescopic driving devices are arranged in or outside the sliding blocks. Of course, the driving device 104 may also be an external mechanical telescopic driving device. The fixed shaft vibration prevention can be stopped at any time through the expansion of the sliding block and the friction force of the runner pier.
Air bag damping mode: including the bladder and internal spring 202. Clinging to the fixed side when no air exists; when the air bag is inflated, the gate pier or the flap valve moving relative to the air bag generates friction force with the air bag which is relatively static, so that the fixed shaft vibration prevention can be realized, and the flap valve vibration can be reduced. The air bag can be fixed with the flap valve, and the air bag has smaller volume but the flap valve has increased weight; the air bag can be fixed with the runner pier, and the flap valve has the smallest weight at the moment, which is a priority mode.
The double-control flap valve moves in parallel to complete the bidirectional conversion between the functions of drainage or diversion or complete the automatic closing under the action of water power. After the flap valve is shifted by translation, one flap valve has a bidirectional function of controlling drainage or water diversion at the same time, and can be used as a substitute of a traditional gate, particularly a small and medium-sized sluice gate.
The first two-way double control function is as follows: the 'PMWZ 1' is moved to 'PMWZ 6', so that the functions of closing drainage, starting drainage, controlling drainage flow, closing drainage and closing water diversion are realized.
Drainage can be closed: when the PMWZ1, inland river water level > the inland river water level, the double-control flap valve can still be in a closed state under the combined action of the locking hole 141, the locking pin 142 or the fixed-shaft anti-vibration instant stop assembly 144 of the flap valve fixed-shaft rotation locking device 14, and the flow channel is cut off.
And (3) draining waterlogging and starting: and PMWZ1, when the double-control flap door lock 14 is released or the vibration-proof stop-motion part is released, the flap door is automatically or slowly opened under the action of water power. In special cases, power-assisted opening can also be realized by matching the flap door pull lug 16 with an automatic grabbing beam (a certain type of common gate mechanical lifting device).
The drainage flow is controllable: when the 'finger limiting component 32 or 33' and the '144 dead axle anti-vibration anytime stopping component' positioned in the 'PMWZ 2' act, the flap valve starts the locking or damping function, and the function of controlling the drainage flow is realized.
And (3) draining and closing waterlogging: the 2 flap valve translational system is driven to be opened, the flap valve moves to 'PMWZ 3' under the action of 22 driving walking support tracks and water power, the flap valve rotates around the slide rod 312 under the limitation of a floating body 311 and a slide rod 312 of a 31 limiting device (movable) of a 3 flap valve translational limiting system, the flap valve continues to translate after moving to 'PMWZ 4', the flap valve is separated from the slide rod, the inland river water level is greater than the inland river water level, the flap valve falls down and is influenced by 34/35 finger limiting, the flap valve reaches 'PMWZ 5', 23 driving limiting is opened, and a 12 flap valve support and a 24 translational connecting beam are fixed at a limiting position of a water diversion working condition. 144 is stopped and opened at any time in a vibration-proof way, and the flap valve is automatically or slowly closed at 'PMWZ 6' under the action of water power because the water level of the inland river is greater than the water level of the inland river.
The diversion can be closed: when the PMWZ6 and the flap valve fixed-axis rotation locking device 14 act, even if the conditions of the internal water level and the external water level change, the flap valve is still closed when the external water level is greater than the internal water level, the function of closing the water diversion is realized, and the flow channel is cut off.
A two-way double control function II: the PMWZ6 is moved to PMWZ1 to realize the functions of water diversion closing, water diversion opening, water diversion flow rate control, water diversion closing and drainage closing.
The two functional principles are the same, the flap door is also the same, but the flap door motion is in reverse symmetry. And particularly, a first function is taken as a representative to continuously supplement and explain the operating system of the bidirectional utility model.
When the double-control flap valve is positioned at PMWZ1 and PMWZ2, the double-control flap valve belongs to 3 states before the drainage flow is controllable, namely drainage can be closed, drainage is opened and drainage is controllable. The latter two states are two-way dual control processes. The driving device 21 is required to be opened, the flap valve is positioned at the PMWZ3 by driving the walking support track 22 and the translational coupling beam 24, and the flap valve walks to the PMWZ4 and then to the PMWZ5 under the action of the limiting device 31 (activity). Since the inland river water level is greater than the inland river water level, the flap valve can be prevented from falling rapidly when the finger limiting assemblies 34 and 35 are started. The flap valve automatically drains waterlogging and closes under the action of water power, drives the limit 23 to act, and is fixed on the PMWZ 6; the flap valve fixed shaft rotation locking device 14 is started to realize the function of water diversion and closeability. The function of draining the stagnant water by the rotation of the fixed shaft of the double-control flap valve is converted into the basic function of water diversion.
The two-way system of the double-control flap valve is mainly applied to a two-way water level liquid flow passage, and one flap valve finishes the functions of drainage and water diversion. The core of the bidirectional system is a 2-flap valve translation system which comprises linear translation and curvilinear translation, and the drive can be a single or multiple drive modes such as hydraulic, mechanical, pneumatic, electromagnetic drive and the like, so that the hydraulic automatic flap valve can realize a bidirectional water level function. The 3-flap valve translation limiting system is an auxiliary device for completing a bidirectional water level function.
On the basis of double-control flap valve research, a function of stopping at any time after unidirectional opening is added. The fixed shaft is arranged on the side of the flap valve to prevent vibration and stop at any time, so that the opening degree of the flap valve can be controlled at any time, and the flow control and flap valve vibration prevention functions are realized. The driving mode of the fixed shaft vibration prevention and stop at any time can be a single or multiple driving and locking modes such as hydraulic, mechanical, pneumatic, electromagnetic driving, hydraulic and the like, and a typical vibration prevention and stop at any time is provided with a slide block damping mode and an air bag damping mode.
In order to reduce the hydraulic loss of the automatic opening of the flap valve and increase the buoyancy of the flap valve, the flap valve can be filled with helium.
Maximum flood flow and vessel traffic examples: the '22-drive walking support rail' is allowed to be provided with the vertical extension and descent device, and when the extension and descent device descends to the runner bottom plate, the flap valve is horizontally arranged on the runner bottom plate, so that the ship passing function is realized; when the lifting device rises to a flood high point, the function of the maximum flood-running and overflowing capacity can be met.
Embodiment for increasing overcurrent capacity: when a vertical upright post or a component is arranged in the middle of the flow channel; when the outside of the vertical supports at the two sides of the flap valve is provided with a chute and a foldable component. The two schemes provide lateral force resisting support for the flap valve, and the flap valve is not directly arranged on the flap valve, so that the stress and deformation of the flap valve can be greatly improved on the premise of not increasing the weight of the flap valve, the plane size and the flow passage size of the flap valve are increased, and the flow capacity is increased.
Claims (10)
1. A bidirectional system of a double-control flap valve is characterized by comprising a double-control flap valve system, a flap valve translational system and a flap valve translational limiting system, wherein the double-control flap valve system comprises a double-control flap valve, a flap valve support, a flap valve seat and a flap valve fixed shaft rotation locking device for driving the double-control flap valve to rotate;
the flap valve translation system comprises a driving device, a driving walking support rail, a driving limiting device and a translation coupling beam; the flap valve support is arranged on the translational coupling beam, two ends of the translational coupling beam are respectively connected to the driving walking support rails in a sliding manner, and the translational coupling beam is connected with a driving device for driving the translational coupling beam to move and a driving limiting device for limiting; the left limit position and the right limit position on the driving walking support track correspond to the flap valve positions of the two liquid flow passages where the double-control flap valve system is located;
the flap valve translation limiting system comprises a limiting device, and the limiting device is positioned between the two liquid flow channels.
2. A bi-directional system of dual slap door control as claimed in claim 1 wherein said slap door dead axle rotation locking means comprises locking holes, locking pins, reinforced cellular panels and dead axle anti-vibration lost motion assemblies; the locking hole and the reinforced honeycomb plate are arranged on the flap valve; the locking pin is arranged on the runner pier and is a telescopic device; the locking pin is matched with the locking hole to realize vibration prevention and locking when the fixed shaft rotates;
the dead axle vibration-proof instant stop assembly comprises a driving device and a damping device, and when the damping device is a sliding block, the instant stop assembly is connected with the flap valve; when the damping device is an air bag, the stop at any time component can be connected with the flap valve and also can be connected with the runner pier; the damping device realizes vibration prevention and locking when the fixed shaft rotates under the action of the driving device and the damping action of the runner pier or the flap valve.
3. The bi-directional system of the double control flap valve according to claim 1 or 2, wherein the position limiting device is a position limiting floating ball, the position limiting floating ball comprises a floating body and a sliding rod thereof, the floating body is suspended at a certain high position in a cavity of the flow channel pier under the action of buoyancy, the cavity is communicated with the flow channel liquid, the floating body is lifted and automatically coordinated with the liquid level buoyancy, and the sliding rod is connected with the floating body and exposed outside the flow channel pier.
4. The bi-directional system of a double control flap valve according to claim 1 or 2, wherein the flap valve translation limiting system further comprises finger limiting components, the finger limiting components are distributed between the flap valve and the limiting device, and the finger limiting components are matched with two sides of the double control flap valve.
5. The bi-directional system of a double control flap valve according to claim 4, wherein said finger position-limiting assembly comprises a driving device and a telescopic device, said finger position-limiting assembly is fixed in the runner block, and said telescopic device can freely extend and retract inside and outside the runner block under the action of the driving device.
6. The bi-directional system of double slap door of claim 5 wherein said drive means is hydraulic, mechanical, pneumatic or electromagnetic.
7. A bi-directional system of double slap door as claimed in claim 1 or 2, characterized in that said slap door dead axle rotation locking means is hydraulic, mechanical, pneumatic, electromagnetic or hydraulic single or multiple drive.
8. The bi-directional system of the double-control flap valve as claimed in claim 2, wherein the fixed shaft vibration-proof instant stop assembly adopts a slide block damping mode, and comprises an upper slide block, a lower slide block and a retractable sealing water stop and driving device, wherein the slide blocks are arranged at two sides of the flap valve, and a pneumatic or hydraulic mechanical retractable driving device is arranged in or outside the slide blocks, so that the fixed shaft vibration-proof instant stop is realized through the friction force between the extension of the slide blocks and the flow passage piers;
or the following steps: the fixed shaft anti-vibration instant stop assembly adopts an air bag damping mode, comprises an air bag and a built-in spring and is tightly attached to the fixed side when no air exists; when the air bag is inflated, the gate pier or the flap valve moving relative to the air bag generates friction force with the air bag which is relatively static, so that the fixed shaft vibration prevention can be realized, and the flap valve vibration can be reduced; the air bag can be fixed with the flap valve, and the air bag has smaller volume but the flap valve has increased weight; the bladder may be secured to the flow pier.
9. The bi-directional system of double slap door of claim 1 or 2, characterized in that the walking-driving support rail is equipped with vertical lowering and extending means.
10. The bi-directional system of a double control flap valve according to claim 1 or 2, wherein a vertical pillar or member is provided in the middle of the flow path; the outer sides of the vertical supports at the two sides of the flap valve are provided with a sliding chute and a foldable component; the lower part of the double-control flap door is provided with a flap door pull lug.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN201921951283.2U CN211773381U (en) | 2019-11-12 | 2019-11-12 | Bidirectional system of double-control flap valve |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN201921951283.2U CN211773381U (en) | 2019-11-12 | 2019-11-12 | Bidirectional system of double-control flap valve |
Publications (1)
Publication Number | Publication Date |
---|---|
CN211773381U true CN211773381U (en) | 2020-10-27 |
Family
ID=72962949
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
CN201921951283.2U Active CN211773381U (en) | 2019-11-12 | 2019-11-12 | Bidirectional system of double-control flap valve |
Country Status (1)
Country | Link |
---|---|
CN (1) | CN211773381U (en) |
-
2019
- 2019-11-12 CN CN201921951283.2U patent/CN211773381U/en active Active
Similar Documents
Publication | Publication Date | Title |
---|---|---|
CN201158814Y (en) | Layered water drawing structure | |
CN112253488B (en) | Novel two-stage flexible flap valve device suitable for bidirectional pump station and operation method thereof | |
CN201495529U (en) | Steel gate locking device | |
CN109989384A (en) | A kind of fluid pressure type automatic lifting anti-flood wall | |
CN110552328B (en) | Stoplog type gate with layered water taking function and working method thereof | |
CN210975746U (en) | Arc stoplog gate with layering water intaking function | |
CN211773381U (en) | Bidirectional system of double-control flap valve | |
CN113048104B (en) | Energy recovery system of hydraulic load operation platform | |
CN111254883A (en) | Bidirectional system of double-control flap valve | |
CN201162208Y (en) | Floater horizontal opening door | |
CN220079924U (en) | Gate convenient to adjust for water use | |
CN204626351U (en) | Transverse axis waterpower self-control rotary gate | |
CN108760272A (en) | A kind of water-pump valve simulation experiment system and its simulation experiment method | |
CN213571809U (en) | Diversion tunnel inlet tower frame bypass structure for ecological drainage | |
CN213867692U (en) | Can prevent split type hydraulic pressure lift dam that shocks resistance of torrent | |
CN204403463U (en) | Dual control flap valve | |
CN210684631U (en) | Floating type sluice structure based on landscape river channel | |
CN208201802U (en) | Convenient for the water gate of unlatching | |
CN208870008U (en) | A kind of prostrate plate-turning door | |
CN206143736U (en) | Novel rise horizontal sluice | |
CN208870016U (en) | A kind of scissor-type machinery ship lift | |
CN207567734U (en) | A kind of direct-push steel dam | |
CN201915362U (en) | Rubber filling block gate | |
CN212270856U (en) | Open type horizontal brake device | |
CN220767954U (en) | Hydraulic lifting dam capable of automatically opening and closing |
Legal Events
Date | Code | Title | Description |
---|---|---|---|
GR01 | Patent grant | ||
GR01 | Patent grant |