Energy-saving condensation and climbing integrated rising aid

Abstract

The invention discloses an energy-saving condensation and climbing integrated lifting assisting device, and relates to the technical field of condensate water recovery, the internal space of a lifting assisting tank body is divided into an upper water storage cavity and a lower lifting cavity through a layering plate, subsequent lifting operation is facilitated, the position of an arranged traction assembly can be changed according to the liquid level change in the lower lifting cavity, and the lifting assisting device is convenient to operate. Therefore, the spherical chock plug and the choke plug are synchronously driven to move, opening and closing of the conical pipe and the breather pipe are achieved, stability of air pressure in the device and smoothness of flowing of condensate water are guaranteed, and then the power pipe is externally connected with an air conditioner rotating wheel dehumidification 6-bar steam condensate water pipeline in a modularized medical industry factory building or connected with a 6-bar steam or 6-bar compressed air pipeline to provide power. According to the device, the lifting of the condensate water is achieved, an independent pneumatic pump set or an electric pump set does not need to be arranged to complete the lifting of the condensate water, the whole device integrates the functions of storing, lifting and discharging the condensate water into one lifting-assisting tank body, the occupied space and the energy consumption are reduced, the working efficiency is improved, and the device is convenient to install and use.

Description

Technical Field

[0001] The present invention relates to the technical field of condensate recovery, and in particular to an energy-saving condensation climbing integrated booster. Background Art

[0002] Steam condensate is liquid water formed by the condensation of water vapor after cooling. In the chemical, pharmaceutical, food processing and other industries, after steam heating or reaction, condensate of different pressures may be used as process water or wastewater treatment. The air conditioning system in the production workshop also produces condensate of different pressures.

[0003] In the process of using, the steam condensate recovery devices in existing industrial plants such as food, medicine, and semiconductors are often installed by setting up one or more condensate collection tanks and equipping them with separate pneumatic pump groups or electric pump groups to complete the lifting of condensate. There are many pipes and valve groups between the pump groups and the collection tanks, which occupy a large space, and the hidden dangers of corrosion and leakage of the pipes and valve groups increase. The components are numerous and complex, the overall cost of the equipment is relatively expensive, and the power source required for lifting consumes a lot of energy. Based on the environment where space is very scarce in modular food, medicine, semiconductor and other industrial plants, the structure of installing multiple condensate collection tanks and equipping them with separate pneumatic pump groups or electric pump groups to complete the lifting of condensate will undoubtedly greatly increase the cost of plant construction, extend the project period, and in the later use, the cost of use for the enterprise is also high. Summary of the Invention

[0004] The purpose of the present invention is to provide an energy-saving condensation climbing integrated booster to solve the technical problems that the existing steam condensate recovery device needs to be equipped with a separate pneumatic pump group or an electric pump group to complete the lifting of the condensate during use, which occupies a large space, has many and complex components, and the overall cost of the equipment is relatively expensive.

[0005] The purpose of the present invention can be achieved through the following technical solutions:

[0006] The present invention proposes an energy-saving condensing climbing integrated booster, comprising a booster tank for storing condensed water;

[0007] A layered plate is provided inside the lifting tank body to separate the internal space of the lifting tank body into an upper water storage chamber and a lower lifting chamber;

[0008] A conical tube is provided on one side of the lower end surface of the layered plate, for connecting the upper water storage chamber and the lower lifting chamber, and a spherical plug is movably provided inside the conical tube;

[0009] An exhaust pipe is provided on the outer wall of the lifting tank body, and is used to connect the lower lifting chamber with the external environment. A plug is provided inside the exhaust pipe;

[0010] The traction assembly is arranged below the layered plate and is used to pull the spherical plug and the plug to synchronously realize the opening and closing of the tapered pipe and the exhaust pipe.

[0011] Preferably, the traction assembly includes:

[0012] A floating member connected to the layered plate via a rocker rod;

[0013] A lifting connecting rod, one end of which is rotatably mounted on the rocking arm and the other end of which is connected to the spherical plug;

[0014] A push-pull connecting rod, one end of which is rotatably mounted on the rocking arm and the other end of which is connected to the plug;

[0015] The lifting links and the push-pull links are staggered on both sides of the rocking arm;

[0016] In the initial state, the rocking arm is vertical.

[0017] Preferably, the rocking arm and the layered plate are connected via a traction steel rope, or the rocking arm and the layered plate are rotationally connected via a rotating seat.

[0018] Preferably, the traction assembly further comprises: a counterweight block arranged inside the floating member.

[0019] Preferably, the traction assembly further comprises: an elastic member provided on the outer wall of the floating member and connected to the inner wall of the lifting-assisting tank body, wherein the elastic member is a tension spring or an elastic rope.

[0020] Preferably, the rotating seat is connected to the fixed boom via an anti-slip steel rope, and the length of the anti-slip steel rope is greater than the distance between the fixing point of the anti-slip steel rope and the fixed boom and the fixing point of the anti-slip steel rope and the rotating seat.

[0021] Preferably, a ventilation pipe and a water inlet pipe 1 are provided on the top of the lifting-boosting tank body, and a water inlet pipe 2 connected to the upper water storage chamber is provided on the outer wall of the lifting-boosting tank body.

[0022] Preferably, the outer wall of the lifting-assisting tank body is provided with a power tube connected to the lower lifting chamber, and the power tube is located below the exhaust pipe.

[0023] Preferably, a water outlet pipe communicating with the lower lifting chamber is provided on a side of the outer wall of the lifting-assisting tank away from the power tube, and the water outlet pipe is located below the power tube.

[0024] Preferably, a sewage pipe is provided at the bottom of the lifting-boosting tank body, and a plurality of groups of supporting legs are symmetrically provided on the outer edge of the bottom of the lifting-boosting tank body, and a fixing seat is provided at the bottom end of the supporting legs.

[0025] In another aspect of the invention, the application of an energy-saving condensing climbing integrated booster in a multi-story building is proposed.

[0026] Preferably, the integrated lifting boosters are provided in multiple groups and distributed in a multi-story building, for lifting condensate water on each floor, and are connected to production equipment, recycling stations and power sources through pipelines.

[0027] Beneficial effects of the present invention:

[0028] 1. The present invention divides the internal space of the lifting tank into an upper water storage chamber and a lower lifting chamber through a layered plate, which facilitates subsequent lifting operations. The traction assembly can change its position according to the change of the liquid level in the lower lifting chamber, thereby synchronously driving the movement of the spherical plug and the plug, realizing the opening and closing of the tapered tube and the vent pipe, ensuring the stability of the internal air pressure of the device and the smooth flow of condensed water. The power pipe is then connected to the air conditioning rotor dehumidification steam condensate pipe in the modular pharmaceutical industrial plant, or connected to the steam or compressed air pipe to provide power to achieve the lifting of condensed water. There is no need to set up a separate pneumatic pump group or electric pump group to complete the lifting of condensed water. The entire device integrates the storage, lifting and discharge functions of condensed water into a lifting tank, reducing the occupied space and energy consumption, improving work efficiency, and facilitating installation and use.

[0029] Furthermore, a counterweight block can be added inside the floating part. The addition of the counterweight block makes the floating part more sensitive to changes in the liquid level, and can quickly respond to the rise and fall of the liquid level, drive the traction component to move, and improve the overall response speed of the device. The more sensitive response makes the opening and closing timing of the spherical plug and the plug more accurate, ensuring the accuracy of the condensate flow and air pressure control inside the device, and further improving the working performance of the device.

[0030] Furthermore, an elastic part can be provided on the outside of the floating part. The provision of the elastic part effectively reduces the shaking of the floating part as the liquid level changes, so that the floating part can work more stably and the probability of failure of the device due to shaking is reduced. The stable floating part can more accurately drive the movement of the traction component, making the opening and closing of the spherical plug and the plug more precise, ensuring the accuracy of the condensate flow and air pressure control inside the device, and improving the working quality and reliability of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] The present invention will be further described below with reference to the accompanying drawings.

[0032] Figure 1 This is a schematic structural diagram of the device in the low liquid level state in Example 1 of the present invention;

[0033] Figure 2 This is a schematic structural diagram of the device in the first embodiment of the present invention under high liquid level conditions;

[0034] Figure 3 1 is a schematic diagram of a top view of the structure of the device in Example 1 of the present invention;

[0035] Figure 4 This is a schematic diagram of the structure of the counterweight block in the second embodiment of the present invention;

[0036] Figure 5 This is a schematic diagram of the structure of the elastic member in the third embodiment of the present invention;

[0037] Figure 6 This is a schematic diagram of the configuration of the energy-saving condensing climbing integrated booster of the present invention applied to a multi-story building.

[0038] In the figure: 1. Lifting tank body; 2. Layered plate; 3. Conical pipe; 4. Exhaust pipe; 5. Fixed boom; 6. Traction steel rope; 61. Anti-slip steel rope; 7. Rotating seat; 8. Rocking arm; 9. Floating part; 10. Counterweight; 11. Lifting connecting rod; 12. Spherical plug; 13. Push-pull connecting rod; 14. Plug; 15. Elastic part; 16. Ventilation pipe; 17. Water inlet pipe 1; 18. Water inlet pipe 2; 19. Power pipe; 20. Water outlet pipe; 21. Sewage pipe; 22. Support leg; 23. Fixed seat; 24. Production equipment; 25. Recycling station; 26. Power source. DETAILED DESCRIPTION

[0039] The specific embodiments of the present invention are described in detail below, but it should be understood that the protection scope of the present invention is not limited by the specific embodiments.

[0040] Example 1

[0041] like Figures 1 to 3 As shown, this embodiment provides an energy-saving condensing climbing integrated booster, including: a booster tank body 1 for storing condensed water. The booster tank body 1 serves as the main structure of the entire device, and is used to store condensed water. While providing space for the lifting operation of the condensed water, it also provides an installation position for other structures to ensure stable operation of other structures.

[0042] The layered plate 2 is arranged inside the lifting tank body 1 to separate the internal space of the lifting tank body 1 into an upper water storage chamber and a lower lifting chamber;

[0043] The conical tube 3 is provided on one side of the lower end surface of the layered plate 2 and is used to connect the upper water storage chamber and the lower lifting chamber. A spherical plug 12 is movably provided inside the conical tube 3. The inner diameter of the conical tube 3 gradually decreases from top to bottom, and the diameter of the spherical plug 12 is larger than the minimum inner diameter of the conical tube 3. When the spherical plug 12 is raised and lowered in the conical tube 3, when the spherical plug 12 leaves the minimum inner diameter of the conical tube 3, the conical tube 3 is opened, and when the spherical plug 12 reaches the minimum inner diameter of the conical tube 3, the conical tube 3 is closed.

[0044] The exhaust pipe 4 is arranged on the outer wall of the lifting tank body 1 and is used to connect the lower lifting chamber with the external environment. A plug 14 is provided inside the exhaust pipe 4. The inner diameter of the exhaust pipe 4 gradually decreases from the outside to the inside, and the diameter of the plug 14 is larger than the minimum inner diameter of the exhaust pipe 4. When the plug 14 moves to the minimum inner diameter of the exhaust pipe 4, the exhaust pipe 4 is closed, otherwise it is opened.

[0045] The traction assembly is arranged below the layered plate 2 and is used to pull the spherical plug 12 and the plug 14 to synchronously open and close the tapered pipe 3 and the exhaust pipe 4.

[0046] like Figure 1-2 As shown, in this embodiment, the traction assembly includes a floating member 9, which is connected to the layered plate 2 through a rocking rod 8. According to the change of the liquid level in the lower lifting chamber, the position of the floating member 9 will also change synchronously.

[0047] The traction assembly also includes a lifting link 11, one end of which is rotatably set on the rocking arm 8 and the other end is connected to the spherical plug 12, and a push-pull link 13, one end of which is rotatably set on the rocking arm 8 and the other end is connected to the plug 14. The lifting link 11 and the push-pull link 13 are staggered on both sides of the rocking arm 8.

[0048] In the initial state, the rocking bar 8 is vertical.

[0049] Both the lifting link 11 and the push-pull link 13 can move synchronously according to the position change of the floating part 9, thereby controlling the lifting and lowering of the spherical plug 12 and the lateral movement of the plug 14 respectively. In the initial state, the lower lifting chamber is in a low liquid level state. Under the action of gravity, the rocking arm 8 and the floating part 9 are naturally vertical. The rocking arm 8 pushes the lifting link 11 upward through the positive force, forming a supporting force on the lifting link 11, thereby lifting the spherical plug 12 upward, so that the conical tube 3 is opened, and the condensed water in the upper water storage chamber can enter the lower lifting chamber through the conical tube 3. At the same time, the rocking arm 8 also pushes the push-pull link 13 to one side through the positive force, forming a thrust on the push-pull link 13, thereby opening the exhaust pipe 4, so that other contents in the lower lifting chamber during the water inflow process can be discharged normally.

[0050] When the liquid level in the lower lift chamber reaches the upper level, the condensed water creates buoyancy on the float 9, lifting it and the rocker arm 8 upward. At this point, the rocker arm 8 no longer supports the lift link 11. Under the weight of the spherical plug 12 and the lift link 11, the spherical plug 12 sinks back into the tapered tube 3, thereby sealing the tapered tube 3 and preventing the condensed water in the upper water storage chamber from entering the lower lift chamber. As the spherical plug 12 sinks, the lift link 11 exerts a thrust on one side of the rocker arm 8, causing it to rotate away from the spherical plug 12. As the rocker arm 8 rotates, it exerts a pulling force on the push-pull link 13 on the other side, further reducing its angle of extension, thereby pulling the push-pull link 13. This push-pull link 13 then simultaneously drives the plug 14 back into place, sealing the exhaust pipe 4. Therefore, when the lower lifting chamber reaches the high liquid level, the internal space thereof will be in an overall sealed state.

[0051] In this embodiment, the rocking arm 8 is connected to the layered plate 2 via a traction steel rope 6. The traction steel rope 6 pulls the rocking arm 8 and the floating member 9, so that the movement range of the rocking arm 8 and the floating member 9 is fixed.

[0052] It should be noted that in the initial state, the lifting link 11 is bent toward the side away from the rocker arm 8, and the push-pull link 13 is bent upward. This ensures that the lifting link 11 and the push-pull link 13 can move smoothly when the liquid level rises. The lifting link 11 passes through the bottom of the tapered tube 3. The tapered tube 3 forms a guide limit for the connection between the lifting link 11 and the spherical plug 12, so that the spherical plug 12 can only move up and down in the vertical direction, ensuring the accuracy of the reset.

[0053] In this embodiment, specifically, a vent pipe 16 and a water inlet pipe 17 are provided on the top of the lifting tank body 1. Each floor of the modular pharmaceutical industrial plant has several steam condensate discharge pipes of different pressures. Steam condensate pipes of different pressures, such as 1-2 bar and 2-3 bar, are connected to the water inlet pipe 17 through pipe back pressure, thereby allowing steam condensate of different pressures to enter the upper water storage chamber. The vent pipe 16 is connected to the atmosphere through an external connection to balance the ambient pressure within the upper water storage chamber. Furthermore, the non-condensable gas in the upper water storage chamber can form condensate through the vent pipe 16 connected to the external environment during its upward flow and then fall, thereby maximizing the recovery of condensate. A dustproof net can be provided at the end of the vent pipe 16 to prevent external dust or debris from falling into the condensate.

[0054] In this embodiment, specifically, the outer wall of the lifting tank body 1 is provided with a water inlet pipe 2 18 connected to the upper water storage chamber. The water inlet pipe 2 18 is externally connected to a tap water pipe, and the condensed water with required recovery temperature can be mixed and cooled by adding tap water.

[0055] In this embodiment, specifically, the outer wall of the lifting-boosting tank body 1 is provided with a power pipe 19 connected to the lower lifting chamber, and the power pipe 19 is located below the exhaust pipe 4. The outer wall of the lifting-boosting tank body 1 is provided with a water outlet pipe 20 connected to the lower lifting chamber on the side away from the power pipe 19, and the water outlet pipe 20 is located below the power pipe 19. The power pipe 19 can be externally connected to the 6-bar steam condensate pipe of the air-conditioning rotary dehumidification in the modular pharmaceutical industrial plant, or connected to a 6-bar steam or 6-bar compressed air pipe, and the existing exhaust equipment in the plant is used as a power source. In this way, the high-level condensate in the lower lifting chamber in a closed state can be blown and lifted from the water outlet pipe 20 to the steam condensate main pipe in the outdoor pipe rack to the terminal recovery point, thereby realizing the final lifting and recovery.

[0056] In this embodiment, specifically, a sewage pipe 21 is provided at the bottom of the lifting-boosting tank body 1, and several groups of support legs 22 are symmetrically provided on the outer edge of the bottom of the lifting-boosting tank body 1. A fixed seat 23 is provided at the bottom end of the support legs 22. When the inside of the equipment is cleaned, the cleaning waste water or the condensed water remaining in the inner cavity can be discharged to the ground through the bottom sewage pipe 21. The fixed seat 23 can be fixedly welded to the ground in the modular pharmaceutical factory by welding. The support legs 22 form a stable support for the lifting-boosting tank body 1 to ensure the stability of the overall operation of the device.

[0057] Among them, the outer wall of the lifting tank body 1 can be set as a sandwich structure, so that the inside of the sandwich can be filled with insulation material to achieve insulation of the tank body and meet the characteristics of stable condensate water recovery and lifting.

[0058] Example 2

[0059] like Figure 4 As shown, based on the first embodiment, the difference between the second embodiment and the first embodiment is at least that:

[0060] The rocking arm 8 is rotatably connected to the layered plate 2 via the rotating seat 7 .

[0061] The rotating seat 7 is connected to the fixed boom 5 through an anti-slip steel rope 61 , and the length of the anti-slip steel rope 61 is greater than the distance between the fixing point of the anti-slip steel rope 61 and the fixed boom 5 and the fixing point of the anti-slip steel rope 61 and the rotating seat 7 .

[0062] A counterweight 10 is provided inside the floating member 9 , and the counterweight 10 is distributed on one side of the floating member 9 close to the lifting link 11 .

[0063] Since a counterweight block 10 is provided on the side of the floating member 9 close to the lifting connecting rod 11, when the floating member 9 floats up under the action of the buoyancy of the condensed water, due to the imbalance of the gravity of the floating member 9, the floating member 9 will tend to flip counterclockwise. Since the floating member 9 is rotatably connected to the fixed suspension rod 5 through the rocking arm 8 and the rotating seat 7, when the floating member 9 flips counterclockwise, it will synchronously drive the rocking arm 8 to rotate toward the side away from the spherical plug head 12. This design ensures that in the initial state, the lifting link 11 and the push-pull link 13 do not need to be bent in a specific direction, thereby facilitating the movement of the lifting link 11 and the push-pull link 13 by flipping the rocking arm 8. The anti-slip steel rope 61 is connected to the rotating seat 7 to act as a safety to prevent the rocking arm 8 and the floating part 9 from falling off during subsequent use. The length of the anti-slip steel rope 61 is greater than the distance between the fixing point of the anti-slip steel rope 61 and the fixed boom 5 and the fixing point of the anti-slip steel rope 61 and the rotating seat 7, which meets the requirement of the rotating seat 7 for the length of the anti-slip steel rope 61 when rotating, thereby ensuring the smooth rotation of the rotating seat 7.

[0064] Example 3

[0065] like Figure 5 As shown, based on the first embodiment, the third embodiment is further improved. The difference between the third embodiment and the first embodiment is at least that:

[0066] The rocking arm 8 is rotatably connected to the layered plate 2 via the rotating seat 7 .

[0067] The rotating seat 7 is connected to the fixed boom 5 through an anti-slip steel rope 61 , and the length of the anti-slip steel rope 61 is greater than the distance between the fixing point of the anti-slip steel rope 61 and the fixed boom 5 and the fixing point of the anti-slip steel rope 61 and the rotating seat 7 .

[0068] The side of the outer wall away from the lifting connecting rod 11 is connected to the inner wall of the lifting tank body 1 through an elastic member 15 .

[0069] As an example, the elastic member 15 is a tension spring or an elastic cord.

[0070] In the initial state, the floating member 9 is in a vertical position, stretching the elastic member 15. This creates a tensile force on the corresponding side of the floating member 9. When the floating member 9 rises due to the buoyancy of the condensed water, the tension of the elastic member 15 causes the rocker arm 8 and the floating member 9 to rotate toward the side closer to the push-pull link 13. This design eliminates the need for the lifting link 11 and the push-pull link 13 to bend in a specific direction in the initial state, thereby facilitating the movement of the lifting link 11 and the push-pull link 13 by the tilting of the rocker arm 8. The anti-slip cable 61, connected to the rotating base 7, acts as a safety device to prevent the rocker arm 8 and the floating member 9 from falling off during subsequent use. The length of the anti-slip cable 61 is greater than the distance between the fixing point of the anti-slip cable 61 and the fixing point of the anti-slip cable 61 and the rotating base 7. This satisfies the required length of the anti-slip cable 61 during rotation of the rotating base 7 and ensures smooth rotation of the rotating base 7.

[0071] Example 4

[0072] This embodiment describes a method for using the energy-saving condensing climbing integrated booster of the present invention, which can be implemented based on any of the above structures and specifically includes the following steps:

[0073] Step 1. When the equipment is in use, first fix the fixing seat 23 to the ground in the modular pharmaceutical factory by welding, and then connect the steam condensate pipes with different pressures such as 1-2 bar and 2-3 bar to the water inlet pipe 1 17 through the form of pipe back pressure, the ventilation pipe 16 is connected to the external environment, and the water inlet pipe 2 18 is connected to the tap water pipe.

[0074] Step 2: The power pipe 19 is externally connected to the 6-bar steam condensate pipe of the air-conditioning rotary dehumidification in the modular pharmaceutical industrial plant, or is connected to the 6-bar steam or 6-bar compressed air pipe, and is used as a power source through the existing exhaust equipment in the plant.

[0075] Step 3: In the initial state, the rocker arm 8 and the floating member 9 are naturally perpendicular. The rocker arm 8 pushes the lifting link 11 upward through the positive force, thereby lifting the spherical plug 12, opening the tapered tube 3. The condensed water in the upper water storage chamber can enter the lower lifting chamber through the tapered tube 3. At the same time, the rocker arm 8 exerts a thrust on the push-pull link 13, thereby opening the exhaust pipe 4, allowing the other contents of the lower lifting chamber to be discharged normally during the water inflow process.

[0076] Step 4: When the liquid level in the lower lifting chamber reaches the high level, the condensed water creates buoyancy on the floating member 9, lifting it and the rocker arm 8 upward. At this point, the rocker arm 8 no longer supports the lifting link 11. Under the weight of the spherical plug 12 and the lifting link 11, the spherical plug 12 sinks back into the tapered tube 3, thereby sealing the tapered tube 3. The condensed water in the upper water storage chamber no longer enters the lower lifting chamber.

[0077] Step 5. When the spherical plug 12 sinks, the lifting link 11 will generate a thrust on one side of the rocking arm 8, thereby driving the rocking arm 8 to rotate toward the side away from the spherical plug 12. When the rocking arm 8 rotates, the rocking arm 8 will generate a pulling force on the push-pull link 13 movably arranged on the other side, so that the bending angle of the push-pull link 13 is further reduced, thereby playing the role of pulling the push-pull link 13. At this time, the push-pull link 13 synchronously drives the plug 14 to reset, thereby blocking the exhaust pipe 4. Therefore, when the lower lifting chamber reaches the high liquid level, its internal space will be in an overall sealed state. At this time, the power source in the modular pharmaceutical industrial plant connected to the power pipe 19 can easily achieve the lifting of the condensed water in the lower lifting chamber. When the condensed water level in the lower lifting chamber drops to the low liquid level, the relevant structure is reset again. The cycle can achieve multiple lifting and recovery of the condensed water.

[0078] Example 5

[0079] The following is a specific example, Figure 6 As shown, for example, an integrated lifting device is installed in a multi-story building.

[0080] In this embodiment, multiple groups of integrated lifting boosters are provided and distributed in multi-story buildings. They can be set according to the number of floors in the building and specific usage needs. The condensate generated by the production equipment 24 on the lower floor or the same floor can be lifted. The power source 26 is used to lift the condensate collected in the integrated lifting booster to the recycling station 25. A pressure gauge and related flow control valve are provided on the pipes connecting the integrated lifting booster and the production equipment 24, the recycling station 25 and the power source 26, so as to facilitate the staff to monitor the operating status of the device in real time and flexibly adjust the flow of related steam or condensate as needed. The sewage pipe 21 in the integrated lifting booster is connected to the floor drain in the multi-story building through a pipe to conveniently discharge sewage. The ventilation pipe 16 in the integrated lifting booster is connected to the ventilation cap in the multi-story building to achieve communication with the outside world. Therefore, the condensate generated by the production equipment 24 on the lower floor or the same floor can be lifted by the integrated lifting booster provided in the multi-story building.

[0081] The contents not described in detail in this specification belong to the prior art known to those skilled in the art.

[0082] The above disclosures are only a few specific embodiments of the present invention. However, the embodiments of the present invention are not limited thereto. Any changes that can be conceived by those skilled in the art should fall within the scope of protection of the present invention.

Claims

1. Energy-saving condensing climbing integrated booster, characterized by: The lifting tank (1) is used to store condensed water; A layered plate (2) is arranged inside the lifting tank (1) to separate the internal space of the lifting tank (1) into an upper water storage chamber and a lower lifting chamber; A conical tube (3) is provided on one side of the lower end surface of the layered plate (2) and is used to connect the upper water storage chamber and the lower lifting chamber. A spherical plug (12) is movably provided inside the conical tube (3); An exhaust pipe (4) is provided on the outer wall of the lifting tank (1) and is used to connect the lower lifting chamber with the external environment. A plug (14) is movably provided inside the exhaust pipe (4); A traction assembly is arranged below the layered plate (2) and is used to pull the spherical plug (12) and the plug (14) to synchronously open and close the tapered pipe (3) and the exhaust pipe (4).

2. The energy-saving condensing climbing integrated booster according to claim 1 is characterized in that: The traction assembly includes: A floating member (9) connected to the layered plate (2) via a rocking rod (8); A lifting connecting rod (11), one end of which is rotatably mounted on the rocking rod (8) and the other end of which is connected to the spherical plug (12); A push-pull connecting rod (13), one end of which is rotatably mounted on the rocking rod (8) and the other end of which is connected to the plug (14); The lifting connecting rod (11) and the push-pull connecting rod (13) are staggeredly distributed on both sides of the rocking rod (8); In the initial state, the rocking bar (8) is vertical.

3. The energy-saving condensing climbing integrated booster according to claim 2 is characterized in that: The rocking arm (8) is connected to the layered plate (2) via a traction steel rope (6), or the rocking arm (8) is rotationally connected to the layered plate (2) via a rotating seat (7).

4. The energy-saving condensing climbing integrated booster according to claim 3 is characterized in that: The traction assembly further comprises a counterweight block (10) arranged inside the floating member (9).

5. The energy-saving condensing climbing integrated booster according to claim 3 is characterized in that: The traction assembly further comprises an elastic member (15) arranged on the outer wall of the floating member (9) and connected to the inner wall of the lifting tank (1); the elastic member (15) is a tension spring or an elastic rope.

6. The energy-saving condensing climbing integrated booster according to claim 4 or 5, characterized in that: The rotating seat (7) is connected to the fixed suspension rod (5) via an anti-slip steel rope (61), and the length of the anti-slip steel rope (61) is greater than the distance between the fixing point of the anti-slip steel rope (61) and the fixed suspension rod (5) and the fixing point of the anti-slip steel rope (61) and the rotating seat (7).

7. The energy-saving condensing climbing integrated booster according to claim 1 is characterized in that: The top of the lifting-assisting tank body (1) is provided with a vent pipe (16) and a first water inlet pipe (17), and the outer wall of the lifting-assisting tank body (1) is provided with a second water inlet pipe (18) connected to the upper water storage chamber.

8. The energy-saving condensing climbing integrated booster according to claim 1 is characterized in that: The outer wall of the lifting-assisting tank (1) is provided with a power pipe (19) communicating with the lower lifting chamber, and the power pipe (19) is located below the exhaust pipe (4).

9. The energy-saving condensing climbing integrated booster according to claim 8, characterized in that: A water outlet pipe (20) communicating with the lower lifting chamber is provided on a side of the outer wall of the lifting-assisting tank body (1) away from the power pipe (19), and the water outlet pipe (20) is located below the power pipe (19).

10. The energy-saving condensing climbing integrated booster according to claim 1, characterized in that: A sewage discharge pipe (21) is provided at the bottom of the lifting-assisting tank body (1), and a plurality of groups of supporting legs (22) are symmetrically provided on the outer edge of the bottom of the lifting-assisting tank body (1), and a fixing seat (23) is provided at the bottom end of the supporting legs (22).

11. Use of the energy-saving condensing climbing integrated booster according to any one of claims 1 to 10 in a multi-story building.

12. Application of the energy-saving condensing climbing integrated booster in multi-story buildings according to claim 11, characterized in that: The integrated lifting boosters are provided in multiple groups and distributed in a multi-story building for lifting condensed water on each floor and are connected to production equipment (24), a recycling station (25) and a power source (26) through pipelines.

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