Energy-saving lighting drainage pumping station

Abstract

The invention relates to the technical field of rotor pumps, in particular to an energy-saving lighting drainage pumping station which comprises a supporting frame and a rotor pump mechanism, and the supporting frame and the rotor pump mechanism are both installed on a supporting carrier. The lighting mechanism is mounted on the supporting frame; the cooling mechanism is mounted on the lighting mechanism and is used for cooling the rotor pump mechanism; the lighting mechanism comprises a connecting assembly, a driving assembly, a detection assembly, a gas storage assembly, a reciprocating assembly, a lighting assembly, a first cylinder and a second cylinder. The cylinder I is mounted on the support frame; the rotating end of the rotor pump mechanism is sleeved with the driving assembly. According to the invention, the illuminating lamp for illumination is driven to shake in a reciprocating manner, so that a worker is reminded of faults of the motor and the rotor pump body at the position, fault points are quickly found, the maintenance efficiency is improved, then illumination can be performed from the upper parts of the motor and the rotor pump body through the illuminating lamp, and the worker can conveniently maintain the motor and the rotor pump body.

Description

Technical Field

[0001] This invention relates to the field of rotor pump technology, and more specifically to an energy-saving lighting drainage pump station. Background Technology

[0002] Drainage pumps are frequently used in outdoor applications, water pumping stations, and industrial production to transport water. They are often equipped with lighting to facilitate worker movement and maintenance. These pumps typically use rotary piston liquid displacement machinery, such as rotor pumps, which are suitable for irrigation or flood drainage.

[0003] Chinese patent CN223359392U discloses a rotary pump comprising a pump body, a pump cover, a pump shaft, and a rotor. The pump shaft and rotor are housed within the pump body, with the rotor mounted on the pump shaft and rotating with it. The pump cover is fixed to one end of the pump body. The pump shaft has an extended portion that extends beyond the pump body. A mounting mechanism is provided between the extended portion of the pump shaft and the pump cover, serving to support and seal the extended portion. This prior art increases the pressure-bearing capacity of the rotary pump and extends the service life of the pump shaft to meet the requirements of various high-pressure conveying conditions. By opening the drain pan, the condition of the mechanical seal can be observed at any time to check for leaks and perform timely maintenance.

[0004] However, when a rotor pump malfunctions, the vibration frequency may increase. In some outdoor scenarios, rotor pumps may be located far from maintenance personnel, which means that some faulty rotor pumps cannot be quickly detected by inspection personnel, resulting in prolonged malfunction and more serious damage. Summary of the Invention

[0005] The purpose of this invention is to address the problems existing in the background technology by proposing an energy-saving lighting drainage pumping station.

[0006] The technical solution of this invention: An energy-saving lighting drainage pumping station, comprising a support frame and a rotor pump mechanism, both mounted on a support carrier; further comprising: a lighting mechanism mounted on the support frame; a cooling mechanism mounted on the lighting mechanism and used for cooling the rotor pump mechanism; the lighting mechanism includes a connecting component, a driving component, a detection component, a gas storage component, a reciprocating component, a lighting component, a first cylinder, and a second cylinder; the first cylinder is mounted on the support frame; the driving component is sleeved on the rotating end of the rotor pump mechanism; the connecting component is sleeved inside the first cylinder and moves up and down with the driving component; the detection component is mounted inside the first cylinder and communicates with the second cylinder; the gas storage component is mounted inside the second cylinder; the reciprocating component is mounted on the second cylinder and moves after the second cylinder is filled with gas; the lighting component is mounted on the second cylinder and meshes with the reciprocating component; when the rotor pump mechanism malfunctions, the vibration amplitude increases, the connecting component moves up and down within the first cylinder more, the detection component supplies gas to the second cylinder until it is full, and the reciprocating component drives the lighting component to oscillate for illumination.

[0007] Preferably, the connecting assembly includes a piston shaft, a sliding part, a sliding part, and a lifting sleeve; the piston shaft is fitted inside the cylinder; the sliding part is installed at the bottom of the piston shaft; the sliding part is slidably connected inside the sliding part; and the lifting sleeve is movably connected inside the sliding part.

[0008] Preferably, the drive assembly includes a sleeve, a first spring, a first snap-fit ​​rod, a second snap-fit ​​rod, and a rotating rod; the sleeve is installed on the rotating end of the rotor pump mechanism; the two ends of the first spring are respectively connected to the sleeve and the first snap-fit ​​rod; the first snap-fit ​​rod is snapped into the second snap-fit ​​rod; the rotating rod is installed at the bottom of the second snap-fit ​​rod; and the lifting sleeve is sleeved on the rotating rod.

[0009] Preferably, the detection assembly includes an elastic element one, a piston shaft two, a one-way exhaust pipe and a one-way intake pipe; the two ends of the elastic element one are respectively connected to a cylinder one and a piston shaft two; the piston shaft two is sleeved in the inner cavity of the cylinder one; the one-way exhaust pipe is connected to the output end at the top of the cylinder one; the one-way intake pipe is connected to the input end at the top of the cylinder one; air enters the inner cavity of the cylinder one above the piston shaft two from the one-way intake pipe, and then enters the cylinder two from the one-way exhaust pipe.

[0010] Preferably, the gas storage assembly includes a second spring, a third piston shaft, a slow gas outlet, and a blocking part; the two ends of the second spring are respectively connected to the side of the inner cavity of the second cylinder away from the third piston shaft and the third piston shaft; the slow gas outlet and the blocking part are both installed on the side of the second cylinder connected to the detection assembly.

[0011] Preferably, the reciprocating assembly includes a circular tube, a second elastic element, a piston plate, a flexible locking rod, a blocking part, a pressing rod, and a first circular rod. The circular tube is installed at the bottom of the second cylindrical tube, and the two ends of the second elastic element are respectively connected to the bottom of the inner cavity of the circular tube and the piston plate. The fixed end of the flexible locking rod is installed inside the piston plate, and its movable end is engaged with the blocking part. The blocking part is sleeved inside the piston plate and covers the through hole opened in the piston plate. The pressing rod is installed at the top of the circular tube and presses down the blocking part. The first circular rod is installed at the bottom of the inner cavity of the circular tube and is located on the descending path of the blocking part.

[0012] Preferably, the lighting assembly includes a rack, a gear, a lighting lamp, positive and negative poles, and positive and negative rings; the rack is installed at the bottom of the piston plate and moves up and down with the piston plate; the gear is sleeved on the bottom of the second cylinder and meshes with the rack; the lighting lamp is connected to the gear; the positive and negative poles are installed on the moving end of the gas storage assembly; the positive and negative rings are installed on the second cylinder; gas rushes into the second cylinder and pushes the gas storage assembly to move the positive and negative poles toward the positive and negative rings.

[0013] Preferably, the cooling mechanism includes a one-way liquid inlet pipe, a one-way liquid outlet pipe, a spray pipe, a cylinder, a triangular block, and a second round rod; the one-way liquid inlet pipe and the one-way liquid outlet pipe are respectively installed on both sides of the first cylinder; the spray pipe is installed at the output end of the one-way liquid outlet pipe; the cylinder is installed on the rotor pump mechanism; the triangular block is installed at the output end of the cylinder; and the second round rod is connected to the rotating rod.

[0014] Preferably, the rotor pump mechanism includes a motor, two drive shafts, a mounting frame, a rotor pump body, and two connecting pipes; the motor, mounting frame, and rotor pump body are all mounted on a support carrier; the two drive shafts are respectively mounted on the output shaft of the motor and the rotating end of the rotor pump body; the two connecting pipes are respectively mounted on the input end and the output end of the rotor pump body; the drive shaft on the rotating end of the rotor pump body is sleeved in the mounting frame; the two drive shafts are connected by a rotating rod; the motor drives the drive shafts to rotate, thereby driving the rotor pump body and the rotating rod to rotate.

[0015] Compared with the prior art, the above-mentioned technical solution of the present invention has the following beneficial technical effects: The motor drives the drive shaft and rotating rod to rotate, which in turn drives the piston inside the rotor pump body to rise and fall. When the piston falls, the volume of the working chamber increases, and liquid is drawn in through the connecting pipe at the input end of the rotor pump body. When the piston rises, the volume decreases, and the liquid is discharged from the connecting pipe at the output end of the rotor pump body, thus completing the water delivery.

[0016] When the rotating rod rotates, it drives the lifting sleeve rod to rise and fall. The lifting sleeve rod drives the piston shaft to rise and fall inside the cylinder, drawing the coolant into the cylinder from the one-way inlet pipe. Then, the coolant is delivered to the spray pipe from the one-way outlet pipe. The coolant drips from the spray pipe onto the surface of the motor and rotor pump body, thus cooling the motor and rotor pump body during daily operation. This prevents overheating of the motor and rotor pump body under high-intensity operating conditions and cleans the surface of the motor and rotor pump body, preventing excessive outdoor dust from affecting heat dissipation.

[0017] When the motor and rotor pump body malfunction, the vibration amplitude increases, and the range of motion of piston shaft one within cylinder one increases. Piston shaft one contacts the bottom end of piston shaft two, pushing piston shaft two to move up and down. This draws in external air through the one-way inlet pipe and delivers it to cylinder two through the one-way outlet pipe, thus pushing piston shaft three to move within cylinder two. If the malfunction is temporary, the air inside cylinder two will slowly exit through the slow outlet. If the malfunction is persistent, piston shaft three will be pushed towards the positive and negative electrode rings and past the top of the circular tube. At this point, piston shaft three cannot move further, the positive and negative electrode rods connect to the positive and negative electrode rings, and the external controller receives the signal, activating the lighting for illumination. The air inside cylinder two pushes the piston plate down through the circular tube. Then, the circular rod pushes the obstruction upward, allowing some of the air inside cylinder two to escape through the through hole of the piston plate and the circular tube. At this time, the piston plate rises due to the elasticity of the circular rod. When it rises to the top of the circular tube, the obstruction is pressed down by the pressing rod, blocking the through hole of the piston plate. This continuously drives the rack and pinion to rise and fall. Through the meshing of the rack and pinion and the gear, the lighting lamp swings back and forth, thus alerting the staff to the fault in the motor and rotor pump body, quickly finding the fault point and improving maintenance efficiency. The lighting lamp can then illuminate the motor and rotor pump body from above, making it easier for the staff to perform maintenance.

[0018] When the positive and negative poles and the positive and negative pole rings are connected, the external controller receives a signal and starts the cylinder to move the triangular block towards the second round rod. When the rotating rod drives the second round rod to rotate, the second round rod moves along the inclined surface of the triangular block, which pulls the rotating rod and causes the second locking rod to move to the outside of the sleeve and then lock with the first locking rod. When the total length of the first and second locking rods increases, the range of motion of the rotating rod driving the lifting sleeve increases, which in turn increases the range of motion of the piston shaft one within the cylinder one. This allows the piston shaft one to draw more liquid into the cylinder one and discharge it along the one-way outlet pipe, increasing the spray volume and thus increasing the cooling capacity in the event of motor or rotor pump failure. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the structure of the present invention; Figure 2This is a schematic diagram of the structure of the motor proposed in this invention; Figure 3 This is a schematic diagram of the structure of the cylinder proposed in this invention; Figure 4 For the present invention Figure 3 Enlarged view of point A in the middle; Figure 5 This is a schematic diagram of the structure of the lighting lamp proposed in this invention; Figure 6 For the present invention Figure 5 Enlarged view of point B in the middle; Figure 7 For the present invention Figure 5 Enlarged view of point C in the middle; Figure 8 This is a schematic diagram of the piston shaft three proposed in this invention; Figure 9 This is a schematic diagram of the rack structure proposed in this invention; Figure 10 For the present invention Figure 9 Enlarged view of point D; Reference numerals: 1. Support frame; 2. Motor; 3. Drive shaft; 4. Mounting frame; 5. Rotor pump body; 6. Cylinder 1; 7. Piston shaft 1; 8. Sliding part 1; 9. Sliding part 2; 10. Lifting sleeve; 11. Sleeve; 12. Spring 1; 13. Clamping rod 1; 14. Clamping rod 2; 15. Rotating rod; 16. Elastic element 1; 17. Piston shaft 2; 18. One-way exhaust pipe; 19. One-way intake pipe; 20. Cylinder 2; 21. Spring 2; 22. Vibrating element; 23. Plug shaft three; 24. Slow air outlet section; 25. Round tube; 26. Elastic element two; 27. Piston plate; 28. Elastic locking rod; 29. ​​Blocking part; 30. Pressing rod; 31. Round rod one; 32. Rack; 33. Gear; 34. Lighting lamp; 35. Positive and negative poles; 36. Positive and negative pole rings; 37. One-way liquid inlet pipe; 38. One-way liquid outlet pipe; 39. Spray pipe; 40. Cylinder; 41. Triangular block; 42. Round rod two; 43. Connecting pipe; 44. Blocking part. Detailed Implementation

[0020] Example 1, as Figures 1-10As shown, the present invention proposes an energy-saving lighting drainage pumping station, comprising a support frame 1 and a rotor pump mechanism, both of which are mounted on a support carrier; it also includes: a lighting mechanism mounted on the support frame 1; and a cooling mechanism mounted on the lighting mechanism and used for cooling the rotor pump mechanism; the lighting mechanism includes a connecting component, a driving component, a detection component, an air storage component, a reciprocating component, a lighting component, a first cylinder 6, and a second cylinder 20; the first cylinder 6 is mounted on the support frame 1; the driving component is sleeved on the rotating end of the rotor pump mechanism; the connecting component... The connecting component is fitted inside cylinder 6 and moves up and down with the drive component; the detection component is installed inside cylinder 6 and connected to cylinder 20; the gas storage component is installed inside cylinder 20; the reciprocating component is installed on cylinder 20 and moves after cylinder 20 is filled with gas; the lighting component is installed on cylinder 20 and meshes with the reciprocating component; when the rotor pump mechanism fails, the vibration amplitude increases, the connecting component moves up and down within cylinder 6, the detection component delivers gas into cylinder 20 until it is full, and the reciprocating component drives the lighting component to shake and illuminate.

[0021] The connecting assembly includes a piston shaft 7, a sliding part 8, a second sliding part 9, and a lifting sleeve 10. The piston shaft 7 is fitted inside the cylinder 6. The sliding part 8 is installed at the bottom of the piston shaft 7. The second sliding part 9 is slidably connected inside the sliding part 8. The lifting sleeve 10 is movably connected inside the sliding part 9. The piston shaft 7 will not leave the inner cavity of the cylinder 6 during the lifting process. The length of the cylinder 6 can be selected according to actual needs. The top ends of the second sliding part 9 and the lifting sleeve 10 are both equipped with T-shaped round rods. The second sliding part 9 is slidably connected inside the sliding part 8 through the T-shaped round rods. The lifting sleeve 10 is slidably connected inside the second sliding part 9 through the T-shaped round rods. When the motor 2 drives the rotating rod 15 to vibrate left and right and back and forth, the vibration can be offset by the sliding connection of the first sliding part 8, the second sliding part 9, and the lifting sleeve 10, so that only the vibration of lifting is utilized.

[0022] The drive assembly includes a sleeve 11, a spring 12, a locking rod 13, a locking rod 2 14, and a rotating rod 15. The sleeve 11 is installed on the rotating end of the rotor pump mechanism. The two ends of the spring 12 are connected to the sleeve 11 and the locking rod 13, respectively. The locking rod 13 is locked to the locking rod 2 14. The rotating rod 15 is installed at the bottom of the locking rod 2 14. The lifting sleeve 10 is sleeved on the rotating rod 15. By locking the locking rod 2 14 with the locking rod 13, the total length of the locking rod 13 and the locking rod 2 14 is limited. At this time, when the drive shaft 3 drives the rotating rod 15 to rotate, the rotation of the rotating rod 15 drives the piston shaft 7 to rise and fall by a small amount. When a malfunction occurs, the cylinder 39 drives the triangular block 40 to move to the circle. On the rotation path of rod 41, when rod 41 descends, it moves along the surface of triangular block 40, causing rod 41 to be pulled towards the outside of sleeve 11 by triangular block 40. This, in turn, causes snap-fit ​​rod 14 to be pulled towards the outside of sleeve 11 and snap-fit ​​with snap-fit ​​rod 13. At this time, the lifting range of rod 15 increases, allowing piston shaft 7 to draw more liquid into cylinder 6 and deliver more liquid to spray pipe 38. A pull ring is connected to snap-fit ​​rod 13. After the maintenance of motor 2 and rotor pump body 5 is completed, the pull ring can be pulled to separate snap-fit ​​rod 13 and snap-fit ​​rod 14. Then, snap-fit ​​rod 14 is pushed back into sleeve 11 to reset.

[0023] The detection assembly includes an elastic element 16, a piston shaft 17, a one-way outlet pipe 18, and a one-way inlet pipe 19. The two ends of the elastic element 16 are connected to the cylinder 6 and the piston shaft 17, respectively. The piston shaft 17 is fitted into the inner cavity of the cylinder 6. The one-way outlet pipe 18 connects to the output end at the top of the cylinder 6. The one-way inlet pipe 19 connects to the input end at the top of the cylinder 6. Air enters the inner cavity of the cylinder 6 above the piston shaft 17 from the one-way inlet pipe 19, and then enters the cylinder 20 from the one-way outlet pipe 18. Because the cylinder 6 is mounted on a support carrier, rather than connected to the bottom of the motor 2 and the rotor pump body 5, this allows the motor 2... When the rotor pump body 5 malfunctions and vibrates, it will not affect the cylinder 6. However, when the motor 2 and the rotor pump body 5 malfunction and operate, the vibration amplitude will increase. At this time, the rotation amplitude of the rotating rod 15 will increase, so the piston shaft 7 rises more within the cylinder 6, which will push the piston shaft 17 to rise. Furthermore, the elasticity of the elastic element 16 will cause the piston shaft 17 to fall as well. The falling piston shaft 17 draws external air into the inner cavity of the cylinder 6 through the one-way air inlet pipe 19. Above the piston shaft 17, when the piston shaft 17 rises, it delivers air to the cylinder 20 along the one-way air outlet pipe 18.

[0024] The air storage assembly includes a second spring 21, a third piston shaft 22, a slow air outlet 23, and a blocking part 43. The two ends of the second spring 21 are respectively connected to the side of the inner cavity of the second cylinder 20 away from the third piston shaft 22 and the third piston shaft 22. The slow air outlet 23 and the blocking part 43 are both installed on the side of the second cylinder 20 connected to the detection assembly. The air entering the second cylinder 20 will push the third piston shaft 22 to move towards the positive and negative pole rings 35. The slow air outlet 23 can be a throttle valve. If the fault is only temporary, the air in the inner cavity of the second cylinder 20 will be slowly discharged through the slow air outlet 23. If the air is continuously entering, the third piston shaft 22 will move continuously, passing over the circular tube 24. When the staff arrives at the faulty motor 2, they will repair the motor 2 and the rotor pump body 5. After the repair is completed, the blocking part 43 will be opened to allow the air in the inner cavity of the second cylinder 20 to be discharged.

[0025] The reciprocating assembly includes a circular tube 24, a second elastic element 25, a piston plate 26, an elastic locking rod 27, a blocking part 28, a pressing rod 29, and a circular rod 30. The circular tube 24 is installed at the bottom of the second cylinder 20, and the two ends of the second elastic element 25 are respectively connected to the bottom of the inner cavity of the circular tube 24 and the piston plate 26. The fixed end of the elastic locking rod 27 is installed inside the piston plate 26, and its movable end is engaged with the blocking part 28. The blocking part 28 is sleeved inside the piston plate 26 and covers the through hole opened in the piston plate 26. The pressing rod 29 is installed on the top of the circular tube 24 and holds the blocking part 28. 8. Press; the round rod 30 is installed at the bottom of the inner cavity of the round tube 24 and is located on the descent path of the blocking part 28; the elastic locking rod 27 is composed of the elastic element 3 and the locking rod 3, and the two ends of the elastic element 3 are respectively connected to the elastic locking rod 27 and the locking rod 3; the blocking part 28 is composed of the locking rod 4 and the round plate, and the locking rod 4 is movably sleeved in the piston plate 26; after the piston shaft 3 22 passes the round tube 24, the air entering the round cylinder 2 20 will enter the round tube 24, thereby pushing the piston plate 26 to descend in the round tube 24, and the piston plate 26 drives the rack 31 to descend.

[0026] The lighting assembly includes a rack 31, a gear 32, a lighting lamp 33, positive and negative poles 34, and positive and negative rings 35. The rack 31 is installed at the bottom of the piston plate 26 and moves up and down with the piston plate 26. The gear 32 is sleeved on the bottom of the second cylinder 20 and meshes with the rack 31. The lighting lamp 33 is connected to the gear 32. The positive and negative poles 34 are installed on the moving end of the gas storage assembly. The positive and negative rings 35 are installed on the second cylinder 20. Gas rushes into the second cylinder 20 and pushes the gas storage assembly. The positive and negative poles 34 move towards the positive and negative rings 35; the positive and negative rings 35 are electrically connected to the lighting lamp 33 and the cylinder 39; when the piston plate 26 rises and falls, it drives the rack 31 to rise and fall. At this time, through the meshing of the rack 31 and the gear 32, the lighting lamp 33 is driven to swing back and forth. And through the connection of the positive and negative poles 34 and the positive and negative rings 35, the lighting lamp 33 is started to provide illumination. The lighting lamp 33 is only used for illumination when there is a fault, saving electricity and realizing energy-saving lighting.

[0027] Example 2, as Figures 1-3 , Figure 5 and Figure 8 As shown, the present invention proposes an energy-saving lighting drainage pumping station. Compared with Embodiment 1, the cooling mechanism of this embodiment includes a one-way inlet pipe 36, a one-way outlet pipe 37, a spray pipe 38, a cylinder 39, a triangular block 40, and a round rod 41. The one-way inlet pipe 36 and the one-way outlet pipe 37 are respectively installed on both sides of the cylinder 6. The spray pipe 38 is installed at the output end of the one-way outlet pipe 37. The cylinder 39 is installed on the rotor pump mechanism. The triangular block 40 is installed on the output end of the cylinder 39. The round rod 41 is connected to the rotating rod 15. When the positive and negative poles 34 and the positive and negative pole rings 35 are connected, the cylinder 39 drives the triangular block 40 to move onto the rotation path of the round rod 41. During daily use, the piston shaft 7 will not block the connection between the one-way inlet pipe 36 and the cylinder 6 when it is raised or lowered.

[0028] Example 3, as Figures 1-4 As shown, the present invention proposes an energy-saving lighting drainage pumping station. Compared with Embodiment 2, the rotor pump mechanism of this embodiment includes a motor 2, two drive shafts 3, a mounting frame 4, a rotor pump body 5, and two connecting pipes 42. The motor 2, mounting frame 4, and rotor pump body 5 are all mounted on a support carrier. The two drive shafts 3 are respectively mounted on the output shaft of the motor 2 and the rotating end of the rotor pump body 5. The two connecting pipes 42 are respectively mounted on the input end and the output end of the rotor pump body 5. The drive shaft 3 on the rotating end of the rotor pump body 5 is sleeved in the mounting frame 4. The two drive shafts 3 are connected by a rotating rod 15. The motor 2 drives the drive shafts 3 to rotate, thereby driving the rotor pump body 5 and the rotating rod 15 to rotate.

[0029] Elastic element 25 and elastic element 3 are composed of spring 3 and telescopic rod. Spring 3 is sleeved on the outer periphery of the telescopic rod or installed inside the telescopic rod as needed; elastic element 16 is composed of spring 4 and guide rod.

[0030] In summary, in this invention, the support frame 1, motor 2, mounting frame 4, and rotor pump body 5 are installed on the support carrier. Then, the motor 2 is started to drive the drive shaft 3 to rotate, and the drive shaft 3 drives the rotating rod 15 to rotate. The liquid enters the input end of the rotor pump body 5 through the connecting pipe 42. Through the volume change of the working chamber inside the rotor pump body 5, the liquid is discharged from the connecting pipe 42 at the output end of the rotor pump body 5, thus completing the liquid transportation. Furthermore, the external water source is connected to the input end of the one-way liquid inlet pipe 36.

[0031] When the drive shaft 3 rotates, it drives the rotating rod 15 to operate. The rotating rod 15 drives the piston shaft 7 at the top of the sliding part 8 to rise and fall inside the cylinder 6, drawing external liquid into the cylinder 6 through the one-way inlet pipe 36. When the piston shaft 7 rises inside the cylinder 6, it transports the liquid inside the cylinder 6 from the one-way outlet pipe 37 to the spray pipe 38. Then, the liquid drips onto the surface of the motor 2 and the rotor pump body 5 through the spray pipe 38 to dissipate heat and cool the motor 2 and the rotor pump body 5.

[0032] When motor 2 and rotor pump body 5 malfunction, the vibration amplitude of rotor 15 increases. When piston shaft 17 rises inside cylinder 6, it pushes piston shaft 27 to rise. Furthermore, the elasticity of elastic element 16 causes piston shaft 27 to descend, thus completing the lifting and lowering of piston shaft 27. The descent of piston shaft 27 draws in external air through one-way inlet pipe 19. The rise of piston shaft 27 transports air from inside cylinder 6 to cylinder 20 along one-way outlet pipe 18, thereby pushing piston shaft 32 towards the positive and negative electrode rings 3. 5. Movement: If the malfunction is temporary, the air inside cylinder 20 will be discharged slowly through the exhaust port 23. If the malfunction is persistent, piston shaft 32 will move past the circular tube 24 and insert the positive and negative poles 34 into the positive and negative rings 35, connecting the poles 34 and rings 35, and the lighting lamp 33 will activate. At this time, the air entering cylinder 20 will enter the circular tube 24, pushing piston plate 26 downwards. The downward movement of piston plate 26 causes rod 30 to push the blocking part 28 upwards, at which point the elastic locking rod 27... The engagement with the blocking part 28 positions the aforementioned blocking part 28, allowing air inside the circular tube 24 to escape through the through hole on the piston plate 26. At this time, the piston plate 26 rises and resets elastically via the elastic element 25. When the piston plate 26 rises to the top of the circular tube 24, the pressing rod 29 presses against the top of the blocking part 28, pressing the blocking part 28 downwards to reset and seal the through hole on the piston plate 26. Subsequently, the air again causes the piston plate 26 to descend, thus completing the lifting and lowering of the piston plate 26 within the circular tube 24. The rack 31 is raised and lowered, and the meshing of the rack 31 with the gear 32 causes the gear 32 to rotate, thereby causing the lighting lamp 33 to sway. The swaying of the light from the lighting lamp 33 allows the staff to quickly locate the faulty motor 2. Then, when the lighting lamp 33 is pointing towards the motor 2, the staff can stop the operation of the motor 2 and the rotor pump body 5, and use the light from the lighting lamp 33 to repair the motor 2 and the rotor pump body 5. Furthermore, by using the lighting lamp 33 only when there is a fault, electricity is saved, achieving energy-saving lighting.

[0033] When the positive and negative poles 34 are connected to the positive and negative pole rings 35, the starting cylinder 39 drives the triangular block 40 to move onto the moving path of the second round rod 41. When the second round rod 41 rotates, it moves along the surface of the triangular block 40, causing the rotating rod 15 to be pulled. At this time, it moves to the outside of the sleeve 11 through the locking rod 14, and is locked by the locking rod 13 and the locking rod 14. The moved locking rod 14 is locked, thereby increasing the total length of the locking rod 14 and the locking rod 13. This increases the lifting range of the rotating rod 15 driving the lifting sleeve rod 10, thereby increasing the lifting range of the piston shaft 7 in the inner cavity of the cylinder 6, increasing the amount of water pumped into the cylinder 6 each time, and increasing the amount of water discharged from the spray pipe 38.

[0034] The embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited thereto. Various changes can be made within the scope of knowledge possessed by those skilled in the art without departing from the spirit of the present invention.

Claims

1. An energy-saving lighting drainage pumping station, comprising a support frame (1) and a rotor pump mechanism, both the support frame (1) and the rotor pump mechanism being mounted on a support carrier; characterized in that, Also includes: The lighting mechanism is mounted on the support frame (1); A cooling mechanism, which is installed on the lighting mechanism and is used for cooling the rotor pump mechanism; The lighting mechanism includes a connecting component, a driving component, a detection component, a gas storage component, a reciprocating component, a lighting component, a cylinder one (6), and a cylinder two (20); the cylinder one (6) is mounted on a support frame (1); the driving component is sleeved on the rotating end of the rotor pump mechanism; the connecting component is sleeved inside the cylinder one (6) and moves up and down with the driving component; the detection component is mounted inside the cylinder one (6) and communicates with the cylinder two (20); the gas storage component is mounted inside the cylinder two (20); the reciprocating component is mounted on the cylinder two (20) and moves after the cylinder two (20) is filled with gas; the lighting component is mounted on the cylinder two (20) and meshes with the reciprocating component. When the rotor pump mechanism malfunctions, the vibration amplitude increases, the connecting component increases the lifting amplitude in cylinder one (6), the detection component delivers gas to cylinder two (20) until it is full, and the reciprocating component drives the lighting component to shake the lighting.

2. The energy-saving lighting drainage pumping station according to claim 1, characterized in that, The connecting assembly includes piston shaft one (7), sliding part one (8), sliding part two (9) and lifting sleeve (10); piston shaft one (7) is sleeved inside cylinder one (6); sliding part one (8) is installed at the bottom of piston shaft one (7); sliding part two (9) is slidably connected inside sliding part one (8); lifting sleeve (10) is movably connected inside sliding part two (9).

3. An energy-saving lighting drainage pumping station according to claim 2, characterized in that, The drive assembly includes a sleeve (11), a spring (12), a snap-fit ​​rod (13), a snap-fit ​​rod (2) (14), and a rotating rod (15); the sleeve (11) is installed on the rotating end of the rotor pump mechanism; the two ends of the spring (12) are connected to the sleeve (11) and the snap-fit ​​rod (13) respectively; the snap-fit ​​rod (13) is snapped with the snap-fit ​​rod (2) (14); the rotating rod (15) is installed at the bottom of the snap-fit ​​rod (2) (14); the lifting sleeve (10) is sleeved on the rotating rod (15).

4. An energy-saving lighting drainage pumping station according to claim 1, characterized in that, The detection assembly includes an elastic element 1 (16), a piston shaft 2 (17), a one-way exhaust pipe (18), and a one-way intake pipe (19); the two ends of the elastic element 1 (16) are connected to the cylinder 1 (6) and the piston shaft 2 (17) respectively; the piston shaft 2 (17) is sleeved in the inner cavity of the cylinder 1 (6); the one-way exhaust pipe (18) is connected to the output end at the top of the cylinder 1 (6); the one-way intake pipe (19) is connected to the input end at the top of the cylinder 1 (6); air enters the inner cavity of the cylinder 1 (6) above the piston shaft 2 (17) from the one-way intake pipe (19), and then enters the cylinder 2 (20) from the one-way exhaust pipe (18).

5. An energy-saving lighting drainage pumping station according to claim 1, characterized in that, The gas storage assembly includes a second spring (21), a third piston shaft (22), a slow gas outlet (23), and a blocking part (43); the two ends of the second spring (21) are respectively connected to the side of the inner cavity of the second cylinder (20) away from the third piston shaft (22) and the third piston shaft (22); the slow gas outlet (23) and the blocking part (43) are both installed on the side of the second cylinder (20) connected to the detection assembly.

6. An energy-saving lighting drainage pumping station according to claim 1, characterized in that, The reciprocating assembly includes a round tube (24), an elastic element two (25), a piston plate (26), an elastic locking rod (27), a blocking part (28), a pressing rod (29), and a round rod one (30). The round tube (24) is installed at the bottom of the round tube two (20), and the two ends of the elastic element two (25) are respectively connected to the bottom of the inner cavity of the round tube (24) and the piston plate (26). The fixed end of the elastic locking rod (27) is installed inside the piston plate (26), and its movable end is engaged with the blocking part (28). The blocking part (28) is sleeved inside the piston plate (26) and covers the through hole opened in the piston plate (26). The pressing rod (29) is installed at the top of the round tube (24) and presses the blocking part (28). The round rod one (30) is installed at the bottom of the inner cavity of the round tube (24) and is located on the descending path of the blocking part (28).

7. An energy-saving lighting drainage pumping station according to claim 6, characterized in that, The lighting assembly includes a rack (31), a gear (32), a lighting lamp (33), positive and negative poles (34), and positive and negative pole rings (35); the rack (31) is installed at the bottom of the piston plate (26) and moves up and down with the piston plate (26); the gear (32) is sleeved on the bottom of the second cylinder (20) and meshes with the rack (31); the lighting lamp (33) is connected to the gear (32); the positive and negative poles (34) are installed on the moving end of the gas storage assembly; the positive and negative pole rings (35) are installed on the second cylinder (20); gas rushes into the second cylinder (20) and pushes the gas storage assembly to move the positive and negative poles (34) toward the positive and negative pole rings (35).

8. An energy-saving lighting drainage pumping station according to claim 7, characterized in that, The cooling mechanism includes a one-way liquid inlet pipe (36), a one-way liquid outlet pipe (37), a spray pipe (38), a cylinder (39), a triangular block (40), and a round rod (41); the one-way liquid inlet pipe (36) and the one-way liquid outlet pipe (37) are respectively installed on both sides of the cylinder (6); the spray pipe (38) is installed at the output end of the one-way liquid outlet pipe (37); the cylinder (39) is installed on the rotor pump mechanism; the triangular block (40) is installed at the output end of the cylinder (39); the round rod (41) is connected to the rotating rod (15).

9. An energy-saving lighting drainage pumping station according to claim 3, characterized in that, The rotor pump mechanism includes a motor (2), two drive shafts (3), a mounting bracket (4), a rotor pump body (5), and two connecting pipes (42); the motor (2), the mounting bracket (4), and the rotor pump body (5) are all mounted on a support carrier; the two drive shafts (3) are respectively mounted on the output shaft of the motor (2) and the rotating end of the rotor pump body (5); the two connecting pipes (42) are respectively mounted on the input end and the output end of the rotor pump body (5); the drive shaft (3) on the rotating end of the rotor pump body (5) is sleeved in the mounting bracket (4); the two drive shafts (3) are connected by a rotating rod (15); the motor (2) drives the drive shaft (3) to rotate, thereby driving the rotor pump body (5) to run and the rotating rod (15) to run.

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