Condensate water recycling treatment equipment for data center machine room

Abstract

The invention discloses a data center machine room condensate water recycling treatment device which comprises a water inlet, the bottom of the water inlet is connected with a treatment chamber, the treatment chamber is communicated with the inner space of the water inlet, the top of the water inlet is connected with a water inlet pipe, a treatment assembly is arranged in the treatment chamber, and a water outlet pipe is arranged in the treatment assembly. The treatment assembly comprises a flow dividing cavity formed in the water inlet, a hydrodynamic impeller and a switch sleeve, the interior of the treatment chamber is connected with a coagulant discharge pipe for storing a coagulant, and the switch sleeve is slidably connected to the exterior of the coagulant discharge pipe; the hydrodynamic impeller is suitable for driving the extrusion device to act to drive the switch sleeve to longitudinally slide on the peripheral surface of the coagulant discharge pipe so as to control automatic quantitative discharge of the coagulant in the coagulant discharge pipe; the coagulant is driven to be automatically and quantitatively fed into the condensate water through the power of the condensate water when the condensate water enters, and the overall recycling efficiency is improved through the pretreatment mode.

Description

Technical Field

[0001] The present invention relates to the technical field of condensate treatment, and in particular to a condensate recovery and utilization treatment device for a computer room of a data center. Background Art

[0002] At present, in the operation of data center computer rooms, with the continuous increase in data processing volume, the heat density of equipment in the computer room has also increased significantly, which has put forward higher requirements on the air-conditioning and refrigeration system of the computer room. Traditional air-conditioning and refrigeration systems will produce a large amount of condensed water during operation. These condensed water are usually discharged directly through drainage pipes, resulting in waste of water resources and increasing the environmental burden. In order to respond to the call for energy conservation, emission reduction and sustainable development, the recycling and utilization of condensed water in data center computer rooms has gradually become a research hotspot.

[0003] After searching, it was found that the Chinese utility model patent with announcement number CN213454183U discloses a condensate water recycling treatment equipment for a data center computer room. The patent treats the air conditioning condensate water through ultraviolet disinfection technology and stores it in a water collection tank for direct use by people, effectively reducing water resource waste and improving the recycling efficiency of condensate water; however, the patent cannot effectively treat impurities such as particulate matter and dust in the condensate water only through ultraviolet disinfection, and the ultraviolet rays cannot irradiate the same condensate water for a long time during the flow of water, so the ultraviolet rays cannot effectively play a role in disinfection. Summary of the invention

[0004] The technical problem to be solved by the present invention is to overcome the defects in the prior art, and to drive the coagulant to automatically and quantitatively enter the condensed water through the power of the condensed water itself when it enters, and to improve the overall recycling efficiency through this pretreatment method.

[0005] In order to solve the above technical problems, the technical solution of the present invention is a condensate recycling and processing equipment for a data center computer room, comprising a water inlet, a processing chamber connected to the bottom of the water inlet, the processing chamber and the internal space of the water inlet are communicated, the top of the water inlet is connected to a water inlet pipe, and a processing component is arranged inside the processing chamber, the processing component includes a diverter chamber, a hydrodynamic impeller and a switch sleeve opened inside the water inlet, the liquid flowing out of the diverter chamber is suitable for driving the hydrodynamic impeller to rotate, the inside of the processing chamber is connected to a coagulant discharge pipe for storing coagulant, the switch sleeve is slidably connected to the outside of the coagulant discharge pipe, and the hydrodynamic impeller is suitable for driving the extrusion device to drive the switch sleeve to slide longitudinally on the outer peripheral surface of the coagulant discharge pipe, thereby controlling the automatic quantitative discharge of the coagulant in the coagulant discharge pipe.

[0006] Furthermore, a water drive shaft is rotatably installed inside the treatment chamber, the water power impeller is fixedly sleeved on the outer peripheral surface of the water drive shaft, the water power impeller is located directly below the outlet of the diversion chamber, the liquid flowing out of the outlet of the diversion chamber is suitable for driving the water power impeller to rotate and then driving the water drive shaft to rotate, and the water power impeller is suitable for buffering the liquid entering the interior of the treatment chamber;

[0007] The switch sleeve is connected to the bottom of the water inlet through at least two extrusion springs, a telescopic rod is arranged inside the extrusion spring, and the two ends of the telescopic rod are respectively connected to the bottom of the water inlet and the top of the switch sleeve, the coagulant discharge pipe is provided with a plurality of water outlet holes, the water outlet holes are suitable for allowing the coagulant to flow out, the switch sleeve is provided with a square groove running through the switch sleeve, and during the longitudinal movement of the switch sleeve on the outer peripheral surface of the coagulant discharge pipe, the square groove is suitable for overlapping with the water outlet holes to discharge the coagulant, the top of the coagulant discharge pipe is connected to a coagulant inlet pipe, and one end of the coagulant inlet pipe extends out of the interior of the water inlet;

[0008] The extrusion device comprises a cam, the cam fixing sleeve is arranged on the outer peripheral surface of the water drive shaft, the cam is suitable for contacting the top of the switch sleeve, and the cam cooperates with the extrusion spring to control the longitudinal reciprocating movement of the switch sleeve.

[0009] Furthermore, a rotating assembly is provided inside the processing chamber, and the rotating assembly includes a driving motor, a driving gear and a driven gear, the driving gear and the driven gear are meshed, the driving motor is connected to the driving gear to drive the driving gear to rotate, the driving motor is located outside the processing chamber, the top of the driven gear is connected to a turntable, the turntable and the driven gear are both hollow, the top of the turntable is connected to at least one rotating arm, the rotating arm is suitable for being driven to rotate to stir and mix the condensed water and the coagulant, a discharge port is provided at the center of the bottom of the processing chamber, an electrically controlled valve is installed on the discharge port, and the electrically controlled valve is suitable for controlling the switch of the discharge port.

[0010] Further, a rotatable cleaning block is mounted on one end of the rotating arm close to the inner wall of the processing chamber through a movable shaft, a prismatic portion is provided at one end of the cleaning block, and two opposite sides are provided at the other end of the cleaning block, which are a first side and a second side, respectively, an arc portion is provided on the first side, and a limiting portion is provided on the second side, the arc portion enables the cleaning block to deflect toward the first side, and the limiting portion prevents the cleaning block from deflecting toward the second side;

[0011] The cleaning block is provided with a plurality of water channels, and the rotating arm rotates clockwise and water flows through the water channels so that the cleaning block and the rotating arm are in a horizontal state to cooperate with the rotating arm to stir the liquid in the treatment chamber;

[0012] When the rotating arm rotates counterclockwise, the water flow pushes the prismatic portion to drive the movable shaft to rotate until the arc portion is perpendicular to the rotating arm. After the cleaning block rotates, it is suitable to abut against the inner wall of the processing chamber to cooperate with the rotation of the rotating arm to clean the inner wall of the processing chamber.

[0013] Furthermore, the condensate water recovery and treatment equipment also includes a filter assembly connected to the discharge port, the bottom of the treatment chamber is connected to the filter chamber, the filter assembly is located inside the filter chamber, the filter assembly includes a filter cartridge, the interior of the filter cartridge is provided with movable coarse filter screen 1 and coarse filter screen 2 and a fixed fine filter screen and an activated carbon filter layer, a movable groove is provided on the inner wall of the filter cartridge at the coarse filter screen 1 and the coarse filter screen 2, the coarse filter screen 1 and the coarse filter screen 2 are both slidably connected to the interior of the movable groove, the movable groove is suitable for providing space for the coarse filter screen 1 and the coarse filter screen 2 to move horizontally, a plurality of vibration springs are provided inside the movable groove, one end of the vibration spring is connected to the corresponding coarse filter screen 1 and the coarse filter screen 2, the movable coarse filter screen 1 and the coarse filter screen 2 shake under the impact of liquid to avoid clogging.

[0014] Furthermore, the bottoms of the coarse filter screen 1 and the coarse filter screen 2 are both connected to an extension plate, and the inner wall of the filter cylinder is connected to two groups of fixed plates, the fixed plates correspond to the extension plates, and the fixed plates are located below the extension plates. A spring block is rotatably installed inside the fixed plates, and a return spring is arranged on the outside of the spring block, and both ends of the return spring are respectively connected to the fixed block and the spring block, and the return spring is suitable for driving the spring block to provide a reaction force to the extension plate, so that the coarse filter screen 1 and the coarse filter screen 2 shake to avoid blockage.

[0015] Furthermore, sealing assemblies are provided at both upper and lower ends of the filter cartridge, and the sealing assemblies are suitable for sealing after the filter cartridge is docked with other devices. The sealing assembly includes two bidirectional screws, and the bidirectional screws are rotatably installed in the interior of the filter chamber. The exteriors of the two bidirectional screws are equipped with two sealing extrusion sleeves that can move toward each other through ball nuts. The sealing extrusion sleeves are suitable for docking the filter cartridge with other devices by clamping. An upper limit plate is connected to the sealing extrusion sleeve located above, and a lower limit plate is connected to the sealing extrusion sleeve located below. Both the upper limit plate and the lower limit plate are suitable for preventing the sealing extrusion sleeve from rotating on its own. The upper limit plate is slidably connected to the top inner wall of the filter chamber, and a slide rail is provided inside the filter chamber, and the lower limit plate is slidably connected to the slide rail.

[0016] Furthermore, it also includes a switching component, which is located inside the filter chamber, and the switching component includes a cleaning cylinder. A slide rail is provided inside the filter chamber, and a movable sleeve is connected to the outside of the cleaning cylinder. The movable sleeve is slidably connected to the inside of the slide rail. A cylinder is installed inside the filter chamber, and the telescopic end of the cylinder is connected to the movable sleeve. The cylinder is suitable for pushing the cleaning cylinder to move inside the slide rail. The cleaning cylinder is suitable for moving to the filter cylinder to store cleaned sewage when the treatment chamber needs to be cleaned, and the cleaning cylinder is a structure with an open upper end and a closed lower end.

[0017] Furthermore, the switching assembly also includes a replacement cylinder and a changing plate, and a limiting sleeve is provided on the outer circumferential surface of the replacement cylinder and the filter cylinder, and the limiting sleeve is suitable for moving the replacement cylinder and the filter cylinder in the internal groove of the changing plate, and two linear motors are installed inside the filter chamber, and the two linear motors respectively drive the corresponding threaded rods to rotate, and the two threaded rods are rotatably installed inside the filter chamber, and the outsides of the two threaded rods are equipped with transmission sleeves through ball nuts, and a slide groove is opened inside the transmission sleeve, and a slider is respectively provided on the outer circumferential surface of the cleaning cylinder and the replacement cylinder, and the two sliders are respectively slidably connected to the corresponding slide grooves, and the transmission sleeve is suitable for replacing the replacement cylinder and the cleaning cylinder by pushing.

[0018] Furthermore, the condensate water recycling and treatment equipment also includes a disinfection component, the bottom of the filter chamber is connected to a sterilization chamber, the disinfection component is located inside the sterilization chamber, the disinfection component includes a disinfection box, the top of the disinfection box is provided with an opening suitable for allowing filtered liquid to pass through, the disinfection box is connected to a water outlet pipe, at least one ultraviolet lamp group is installed inside the disinfection chamber, the ultraviolet lamp group is suitable for sterilizing the liquid inside the disinfection box, a groove is provided inside the sterilization chamber, the groove is located between the ultraviolet lamp group and the disinfection box, a threaded rod 2 is rotatably installed inside the groove, the threaded rod 2 is driven by a rotating motor, the outside of the threaded rod 2 is equipped with a linkage plate through a ball nut, the top of the linkage plate is rotatably installed with a linkage gear, the top of the linkage gear is fixedly connected to a cleaning roller, the inside of the sterilization chamber is fixedly connected with a rack, the rack meshes with the linkage gear and is suitable for driving the cleaning roller to rotate and clean the ultraviolet lamp group.

[0019] By adopting the above technical solution, the present invention has the following beneficial effects:

[0020] 1. The hydrodynamic impeller can buffer the entry of condensed water, which can effectively reduce the direct scouring of water on the inner wall of the treatment chamber, thereby reducing the wear and damage of the inner wall of the equipment. When the condensed water rushes to the hydrodynamic impeller, the impeller will convert the kinetic energy of the water flow into its own rotational force, thereby slowing down the speed and impact of the water flow. This buffering effect can protect the inner wall of the equipment from the impact of direct scouring and increase the overall service life of the equipment.

[0021] 2. The cam is rotated by the power of the condensed water itself to realize the automatic and quantitative discharge of the coagulant, avoiding the possible loss of control of the electronic control and the problem that the amount of discharge cannot be proportional to the condensed water to be treated.

[0022] 3. The counterclockwise rotation of the rotating arm can effectively mix the condensed water and the coagulant. At the same time, a vortex can be generated when the electric control valve is opened, and the pre-treated condensed water can be quickly sucked into the interior of the filter cartridge, thereby improving the overall work efficiency. In the vortex, the condensed water is affected by the centrifugal force. When it is sucked into the filter net, the particles will be centrifugally separated and deposited on the filter net, thereby achieving the filtration of tiny particles and suspended matter.

[0023] 4. When the equipment is not in operation, the filter cartridge can be moved to the rightmost side of the filter chamber, the cleaning bucket can be docked with the equipment as a whole, the cleaning water can be filled into the treatment chamber, and the rotating arm can be started to rotate clockwise to make the cleaning block contact the inner wall of the treatment chamber to scrape the dirt on the inner wall, and finally discharged into the cleaning cartridge for automatic cleaning.

[0024] 5. When the pre-treated condensate water passes into the filter cartridge, it will impact coarse filter screen 1 and coarse filter screen 2. At this time, the vibration spring and the reset spring are subjected to force at the same time. After the condensate water passes completely, the reset of the two springs will drive the vibration of the filter screen itself, thereby avoiding the problem of larger impurities clogging the filter screen.

[0025] 6. After long-term use, the filter cartridge needs to be replaced or cleaned. To avoid stagnation of the overall work, two linear motors respectively drive the filter cartridge to disconnect from the overall equipment and the replacement cartridge to connect with the overall equipment.

[0026] 7. The filtered condensed water is finally passed into the interior of the disinfection box, where the condensed water is in a non-flowing state. At this time, the ultraviolet lamp group can effectively irradiate it for a long time to play a role in disinfection. The ultraviolet lamp group can be cleaned as a whole by the drivable cleaning roller to improve the effect of ultraviolet irradiation disinfection. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a schematic diagram of the overall structure of the present invention on the left side;

[0028] Figure 2 The right side schematic diagram of the overall structure of the present invention;

[0029] Figure 3 It is a schematic diagram of the overall internal structure of the present invention;

[0030] Figure 4 It is a schematic diagram of the internal structure of the processing chamber of the present invention;

[0031] Figure 5 It is a schematic diagram of the bottom structure of the processing chamber of the present invention;

[0032] Figure 6 For the present invention Figure 4 Enlarged view of point A in the middle;

[0033] Figure 7 For the present invention Figure 4 Enlarged view of point B in the middle;

[0034] Figure 8 This is a diagram showing the internal structure of the filter cartridge of the present invention;

[0035] Fig. 9 It is a schematic diagram of the active structure of the coarse filter of the present invention;

[0036] Fig.10 For the present invention Fig. 9 Enlarged view of point C in the middle;

[0037] Fig.11 It is a schematic diagram of the sealing structure of the upper end of the filter cartridge of the present invention;

[0038] Fig.12 It is a schematic diagram of the sealing structure of the lower end of the filter cartridge of the present invention;

[0039] Fig.13 It is a schematic diagram of the structure of the switching component of the present invention;

[0040] Fig.14 It is a schematic diagram of the internal structure of the sterilization chamber of the present invention;

[0041] Fig.15 It is a schematic diagram of the cleaning structure of the ultraviolet lamp assembly of the present invention.

[0042] In the figure: 1. Water inlet; 2. Filtration chamber; 3. Sterilization chamber; 4. Treatment chamber;

[0043] 5. Processing assembly; 501. Water inlet pipe; 502. Diversion chamber; 503. Water drive shaft; 504. Water-powered impeller; 505. Coagulant inlet pipe; 506. Coagulant outlet pipe; 507. Cam; 508. Extrusion spring; 509. Telescopic rod; 510. Switch cover;

[0044] 6. Rotating assembly; 601. Electric control valve; 602. Driving motor; 603. Driving gear; 604. Driven gear; 605. Turntable; 606. Rotating arm; 607. Movable shaft; 608. Cleaning block; 609. Water trough; 610. Arc-shaped portion; 611. Prismatic portion;

[0045] 7. Filter assembly; 701. Filter cartridge; 702. Coarse filter screen 1; 703. Coarse filter screen 2; 704. Fine filter screen; 705. Activated carbon filter layer; 706. Vibration spring; 707. Extension plate; 708. Fixed plate; 709. Spring block; 710. Return spring;

[0046] 8. Sealing assembly; 801. Bidirectional screw; 802. Sealing extrusion sleeve; 803. Upper limit plate; 804. Lower limit plate;

[0047] 9. Switching assembly; 901. Cylinder; 902. Cleaning cylinder; 903. Moving sleeve; 904. Slide rail; 905. Direction change plate; 906. Replacement cylinder; 907. Limit sleeve; 908. Linear motor; 909. Threaded rod 1; 910. Transmission sleeve; 911. Sliding block;

[0048] 10. Disinfection assembly; 1001. Disinfection box; 1002. Water outlet pipe; 1003. Ultraviolet lamp assembly; 1004. Rotating motor; 1005. Threaded rod 2; 1006. Linkage plate; 1007. Linkage gear; 1008. Rack; 1009. Cleaning roller. DETAILED DESCRIPTION

[0049] In order to make the contents of the present invention more clearly understood, the present invention is further described in detail below based on specific embodiments in conjunction with the accompanying drawings.

[0050] Embodiment 1

[0051] like Figure 1-6 As shown, a condensate water recovery and treatment device for a computer room of a data center includes a water inlet 1, a treatment chamber 4 is connected to the bottom of the water inlet 1, the treatment chamber 4 and the internal space of the water inlet 1 are communicated, a water inlet pipe 501 is connected to the top of the water inlet 1, a treatment component 5 is arranged inside the treatment chamber 4, the treatment component 5 includes a diverter chamber 502, a hydrodynamic impeller 504 and a switch sleeve 510 opened inside the water inlet 1, the liquid flowing out of the diverter chamber 502 is suitable for driving the hydrodynamic impeller 504 to rotate, a coagulant discharge pipe 506 for storing coagulant is connected inside the treatment chamber 4, the switch sleeve 510 is slidably connected to the outside of the coagulant discharge pipe 506, the hydrodynamic impeller 504 is suitable for driving the extrusion device to drive the switch sleeve 510 to slide longitudinally on the outer peripheral surface of the coagulant discharge pipe 506, thereby controlling the automatic quantitative discharge of the coagulant in the coagulant discharge pipe 506.

[0052] like Figure 4-6 As shown, a water drive shaft 503 is rotatably installed inside the treatment chamber 4, and a hydrodynamic impeller 504 is fixedly sleeved on the outer peripheral surface of the water drive shaft 503. The hydrodynamic impeller 504 is located directly below the outlet of the diversion chamber 502. The liquid flowing out of the outlet of the diversion chamber 502 is suitable for driving the hydrodynamic impeller 504 to rotate and then drive the water drive shaft 503 to rotate. The hydrodynamic impeller 504 is suitable for buffering the liquid entering the treatment chamber 4.

[0053] The switch cover 510 is connected to the bottom of the water inlet 1 through at least two extrusion springs 508, and a telescopic rod 509 is arranged inside the extrusion spring 508. The two ends of the telescopic rod 509 are respectively connected to the bottom of the water inlet 1 and the top of the switch cover 510. The coagulant discharge pipe 506 is provided with a plurality of water outlet holes, which are suitable for allowing the coagulant to flow out. The switch cover 510 is provided with a square groove running through itself. During the longitudinal movement of the switch cover 510 on the outer peripheral surface of the coagulant discharge pipe 506, the square groove is suitable for overlapping with the water outlet holes to discharge the coagulant. The top of the coagulant discharge pipe 506 is connected to the coagulant inlet pipe 505, and one end of the coagulant inlet pipe 505 extends out of the water inlet 1.

[0054] The squeezing device includes a cam 507 which is fixedly sleeved on the outer peripheral surface of the water drive shaft 503 . The cam 507 is suitable for contacting the top of the switch sleeve 510 . The cam 507 cooperates with the squeezing spring 508 to control the longitudinal reciprocating movement of the switch sleeve 510 .

[0055] like Figure 4-7 As shown, a rotating assembly 6 is arranged inside the processing chamber 4, and the rotating assembly 6 includes a driving motor 602, a driving gear 603 and a driven gear 604. The driving gear 603 and the driven gear 604 are meshed, and the driving motor 602 is connected to the driving gear 603 to drive the driving gear 603 to rotate. The driving motor 602 is located outside the processing chamber 4, and a turntable 605 is connected to the top of the driven gear 604. Both the turntable 605 and the driven gear 604 are hollow. At least one rotating arm 606 is connected to the top of the turntable 605, and the rotating arm 606 is suitable for being driven to rotate to stir and mix the condensed water and the coagulant. A discharge port is provided at the center of the bottom of the processing chamber 4, and an electric-controlled valve 601 is installed on the discharge port. The electric-controlled valve 601 is suitable for controlling the switch of the discharge port, and the rotating arm 606 can generate a vortex suitable for accelerating the liquid inside the processing chamber 4 to quickly pass through the electric-controlled valve 601 and generate centrifugal force.

[0056] like Figure 5 , 6As shown, a rotatable cleaning block 608 is mounted on one end of the rotating arm 606 close to the inner wall of the processing chamber 4 through a movable shaft 607, a prism-shaped portion 611 is provided at one end of the cleaning block 608, and two opposite sides are provided at the other end of the cleaning block 608, namely a first side and a second side, an arc portion 610 is provided on the first side, and a limiting portion is provided on the second side, the arc portion 610 enables the cleaning block 608 to deflect toward the first side, and the limiting portion prevents the cleaning block 608 from deflecting toward the second side;

[0057] The range of rotation of the movable shaft 607 is from the prismatic portion 611 to the arc portion 610 until the arc portion 610 is perpendicular to the rotating arm 606;

[0058] The cleaning block 608 is provided with a plurality of water channels. When the rotating arm 606 rotates clockwise, water flows through the water channels 609 to make the cleaning block 608 and the rotating arm 606 horizontal, so as to cooperate with the rotating arm 606 to stir the liquid in the processing chamber 4.

[0059] When the rotating arm 606 rotates counterclockwise, the water flow pushes the prismatic portion 611 to drive the movable shaft 607 to rotate until the arc portion 610 is perpendicular to the rotating arm 606. After the cleaning block 608 rotates, it is suitable to abut against the inner wall of the processing chamber 4 to cooperate with the rotation of the rotating arm 606 to clean the inner wall of the processing chamber 4.

[0060] like Figure 8-10 As shown, the condensate recycling and processing equipment in the computer room of the data center also includes a filter assembly 7 connected to the discharge port, the bottom of the processing chamber 4 is connected to the filter chamber 2, the filter assembly 7 is located inside the filter chamber 2, the filter assembly 7 includes a filter cartridge 701, the interior of the filter cartridge 701 is provided with a movable coarse filter screen 1 702 and a coarse filter screen 2 703 and a fixed fine filter screen 704 and an activated carbon filter layer 705, and a movable groove is provided on the inner wall of the filter cartridge 701 at the coarse filter screen 1 702 and the coarse filter screen 2 703, the coarse filter screen 1 702 and the coarse filter screen 2 703 are both slidably connected inside the movable groove, the movable groove is suitable for providing space for the coarse filter screen 1 702 and the coarse filter screen 2 703 to move horizontally, a plurality of vibration springs 706 are arranged inside the movable groove, one end of the vibration spring 706 is connected to the corresponding coarse filter screen 1 702 and the coarse filter screen 2 703, and the movable coarse filter screen 1 702 and the coarse filter screen 2 703 shake under the impact of liquid to avoid clogging.

[0061] like Figure 8-10As shown, the bottom of the coarse filter screen 1 702 and the coarse filter screen 2 703 are connected to an extension plate 707, and two sets of fixed plates 708 are connected to the inner wall of the filter cylinder 701, the fixed plates 708 correspond to the extension plates 707, and the fixed plates 708 are located below the extension plates 707. A spring block 709 is rotatably installed inside the fixed plate 708, and a reset spring 710 is arranged on the outside of the spring block 709. The two ends of the reset spring 710 are respectively connected to the fixed block and the spring block 709. The reset spring 710 is suitable for driving the spring block 709 to provide a reaction force to the extension plate 707, so that the coarse filter screen 1 702 and the coarse filter screen 2 703 shake to avoid clogging.

[0062] like Figure 11-12 As shown, sealing assemblies 8 are provided at the upper and lower ends of the filter cartridge 701. The sealing assemblies 8 are suitable for sealing after the filter cartridge 701 is docked with other devices. The sealing assemblies 8 include two bidirectional screws 801, which are rotatably installed in the filter chamber 2. The outsides of the two bidirectional screws 801 are equipped with two sealing extrusion sleeves 802 that can move toward each other through ball nuts. The sealing extrusion sleeves 802 are suitable for docking the filter cartridge 701 with other devices by clamping. An upper limit plate 803 is connected to the sealing extrusion sleeve 802 located at the top, and a lower limit plate 804 is connected to the sealing extrusion sleeve 802 located at the bottom. Both the upper limit plate 803 and the lower limit plate 804 are suitable for preventing the sealing extrusion sleeve 802 from rotating. The upper limit plate 803 is slidably connected to the top inner wall of the filter chamber 3. A slide rail 904 is provided in the filter chamber 2, and the lower limit plate 804 is slidably connected to the slide rail 904.

[0063] The working principle of this embodiment is as follows:

[0064] When the condensed water needs to be processed and reused, it is passed into the water inlet 1 through the water inlet pipe 501. A diversion chamber 502 is provided inside the water inlet 1. The diversion chamber 502 increases the power of the condensed water when it enters the treatment chamber 4 by the effect of dividing the diameter, thereby increasing the force of flushing on the water power impeller 504. At this time, the power will be converted into the rotational force of the water drive shaft 503. This part reduces the impact force of the condensed water through the power conversion, avoids direct flushing of the inner wall of the treatment chamber 4, reduces wear and corrosion, and improves the service life of the equipment as a whole;

[0065] After the water drive shaft 503 obtains the rotational force, it will drive the cam 507 to rotate. During the rotation process, the cam 507 will continuously hit the top of the switch sleeve 510, causing the switch sleeve 510 to move downward. At the same time, the switch sleeve 510 can be reset by the action of the extrusion spring 508, and the longitudinal reciprocating motion of the switch sleeve 510 is realized as a whole. The opening provided on the switch sleeve 510 cooperates with the water outlet hole provided on the coagulant discharge pipe 506. When the switch sleeve 510 moves downward, the opening is aligned with the water outlet hole. At this time, the coagulant built in the coagulant discharge pipe 506 can flow out. It should be noted that the coagulant flows into the coagulant discharge pipe 506 through the coagulant inlet pipe 505. The coagulant will be stored in the coagulant discharge pipe 506, and the water drive shaft 503 passes through the interior of the retarder discharge pipe and rotates therein, so the contact portion between the water drive shaft 503 and the coagulant discharge pipe 506 is connected by a rotating seal, which realizes the effect of automatically discharging the coagulant. Since the discharge of the coagulant depends entirely on the amount of condensed water passing through, it can ensure that the ratio between the coagulant and the condensed water is moderate and consistent, and the instability and limitations of the electric control are avoided. The length of the coagulant discharge pipe 506 is preferably such that its bottom is located above the liquid level of the condensed water to be processed each time, so as to avoid the water pressure of the condensed water itself affecting the normal discharge of the coagulant.

[0066] After the coagulant and condensed water are put into the treatment chamber 4, the driving motor 602 is started to drive the meshing between the driving gear 603 and the driven gear 604 to realize the rotation of the turntable 605. The turntable 605 drives several rotating arms 606 to rotate. At this time, the motor reverses and the rotating arms 606 rotate counterclockwise. During the rotation, the mixed liquid is stirred and a vortex is generated. In this process, the stirring can accelerate the mixing between the coagulant and the condensed water and speed up the reaction rate. After the reaction is completed, the electric control valve 601 can be opened to discharge the mixed liquid. The outlet sucks the inside of the filter cartridge 701 for filtration. Since it is sucked in by the vortex, centrifugal force is generated. The centrifugal force can better attach the impurities in the mixed liquid to the filter net, thereby improving the water flow speed and the quality of filtration, and improving the overall work efficiency. It should be noted that due to the counterclockwise rotation of the rotating arm 606, the water flow contacts the arc portion 610 and is assisted by the water flow groove 609 to ensure that the cleaning block 608 is parallel to the rotating arm 606. At this time, the cleaning block 608 does not contact the inner wall of the processing chamber 4;

[0067] After the vortex sucks the pre-treated condensed water into the filter cartridge 701, it will be filtered through four processes, namely, the coarse filter screen 1 702, the coarse filter screen 2 703, the fine filter screen 704 and the activated carbon filter layer 705. Since the coarse filter screen has the most impurities to be processed and is more likely to be blocked, in order to ensure long-term use, when the condensed water passes through layer by layer, its own impact force will cause horizontal displacement of the movable coarse filter screen 1 702 and the coarse filter screen 2 703 and squeeze the vibration spring 706 at the same time. It should be noted that the coarse filter screen has a large diameter and can ensure that it is close to the filter cartridge 70 when it moves horizontally. 1 There is no gap between the inner walls, and the impact of condensed water will also drive the elastic block 709 to rotate downward and make the reset spring 710 rotate and be stressed. After the entire filtering process is completed, when no condensed water continues to pass, the vibration spring 706 resets to achieve horizontal vibration of the two coarse filter screens. The reset spring 710 resets to drive the elastic block 709 to deflect upward and hit the extension plate 707. The extension plate 707 transmits force to the coarse filter screen, which can also achieve the vibration of the coarse filter screen. The impurities attached to it are loosened by vibration, thereby avoiding the problem of easy clogging of the coarse filter screen after long-term use.

[0068] When all the coagulants stored in the coagulant discharge pipe 506 are used up, it means that the whole equipment has been working for a long time. At this time, a large amount of dirt will be attached to the inner wall of the treatment chamber 4, which needs to be cleaned to ensure the normal progress of subsequent work. When cleaning is needed, clean water or other cleaning solutions are introduced into the interior of the treatment chamber 4 through the water inlet pipe 501. At this time, since the coagulant has been used up, the coagulant will not be discharged. Then the drive motor 602 is started to rotate forward, driving the rotating arm 606 to rotate clockwise. During the rotation, the prismatic portion 611 of the cleaning block 608 contacts the water flow, and the contact area between the water flow and the prismatic portion 611 increases, thereby driving the cleaning block 608 to rotate through the movable shaft 607 to a vertical state with the rotating arm 606, and 90° vertical is the maximum stroke. At this time, the cleaning block 608 contacts the inner wall of the treatment chamber 4, and the dirt attached to the inner wall of the treatment chamber 4 can be scraped off during the continuous rotation. Finally, the mixture of cleaning solution and dirt is discharged from the interior of the treatment chamber 4 to complete the cleaning.

[0069] Sealing assemblies 8 are provided at both upper and lower ends of the filter cartridge 701 for sealing the filter cartridge 701 with other upper and lower devices. Sealing pads are provided on the end faces of both upper and lower ends of the filter cartridge 701. After being tightly attached to the openings of other devices, the bidirectional screw 801 can be driven to rotate manually or electrically. During the rotation of the bidirectional screw 801, the two sealing extrusion sleeves 802 will move toward each other, wrapping and squeezing the parts of the filter cartridge 701 that are tightly attached to the other devices, so as to achieve more effective sealing.

[0070] Embodiment 2

[0071] like Fig.13 As shown, this embodiment further includes the following structure on the basis of the first embodiment: the condensate recovery and treatment equipment in the computer room of the data center also includes a switching component 9, the switching component 9 is located inside the filter chamber 2, the switching component 9 includes a cleaning cylinder 902, the outside of the cleaning cylinder 902 is connected with a movable sleeve 903, the movable sleeve 903 is slidably connected to the inside of the slide rail 904, a cylinder 901 is installed inside the filter chamber 2, the telescopic end of the cylinder 901 is connected to the movable sleeve 903, the cylinder 901 is suitable for pushing the cleaning cylinder 902 to move inside the slide rail 904, the cleaning cylinder 902 is suitable for moving to the filter cylinder 701 to store the cleaned sewage when the processing chamber 4 needs to be cleaned, and the cleaning cylinder 902 is a structure with an open upper end and a closed lower end.

[0072] like Fig.13 As shown, the switching assembly 9 also includes a replacement cylinder 906 and a deflection plate 905. The outer circumferences of the replacement cylinder 906 and the filter cylinder 701 are both provided with limit sleeves 907. The limit sleeves 907 are suitable for allowing the replacement cylinder 906 and the filter cylinder 701 to move in the internal groove of the deflection plate 905. Two linear motors 908 are installed inside the filter chamber 2. The two linear motors 908 respectively drive the corresponding threaded rods 909 to rotate. The two threaded rods 909 are rotatably installed inside the filter chamber 2. The outsides of the two threaded rods 909 are both equipped with transmission sleeves 910 through ball nuts. A slide groove is opened inside the transmission sleeve 910. A slider 911 is respectively provided on the outer circumferences of the cleaning cylinder 902 and the replacement cylinder 906. The two sliders 911 are respectively slidably connected to the corresponding slide grooves. The transmission sleeve 910 is suitable for replacing the replacement cylinder 906 and the cleaning cylinder 902 by pushing.

[0073] The working principle of this embodiment is as follows:

[0074] The filter cartridge 701 is removable, so it is convenient to remove it when it is not needed. At the same time, a replacement cartridge 906 for replacing the filter cartridge 701 and a cleaning cartridge 902 for discharging and collecting sewage are also provided. When the filter cartridge 701 needs to be replaced, the sealing assembly 8 is first opened to remove the restriction of the filter cartridge 701, and then the linear motor 908 corresponding to the filter cartridge 701 is reversed. At this time, the linear motor 908 will drive the transmission sleeve 910 to move toward the position of the linear motor 908 along the direction of the thread of the threaded rod 909. At the same time as the transmission sleeve 910 moves, the filter cartridge 701 is connected to the slider 911, and the slider 911 slides inside the transmission sleeve 910. Therefore, when the transmission sleeve 910 moves, the filter cartridge 701 will also move synchronously. A limiting sleeve 907 is provided on the outside of the filter cartridge 701. The limiting sleeve 907 will be stuck on the deflection groove in the deflection plate 905 and return along the shape of the deflection groove. The filter cartridge 701 is moved into the slot in front of the corresponding linear motor 908. When it moves along the direction-changing slot, its lateral position will also change. This part is limited by the slide groove opened on the transmission sleeve 910. The function of the slide groove is to provide a space for the filter cartridge 701 to move horizontally, and at the same time limit the filter cartridge 701 from deviating from its own track when moving. After the filter cartridge 701 exits the docking, if the equipment still needs to be used, another linear motor 908 can be started to push the replacement cartridge 906 to dock with the entire equipment, and fixed and sealed by the sealing assembly 8. The structure and movement method of the replacement cartridge 906 are the same as those of the filter cartridge 701. This part avoids the problem that the filtering effect becomes poor due to the long-term use of a single filter cartridge 701, and the entire equipment needs to stop working when it needs to be replaced. Moreover, replacement in this way can greatly reduce labor and improve the overall work efficiency and filtering quality.

[0075] After the filter cartridge 701 is withdrawn by the above method, when the equipment does not need to continue working but needs to clean the dirt inside the treatment chamber 4, as described in the first embodiment, the dirt is scraped off by the rotating arm 606. At this time, the interior of the treatment chamber 4 is filled with mixed sewage for cleaning. At this time, the cylinder 901 is started, and the cylinder 901 pushes the movable sleeve 903 to move inside the slide rail 904, and at the same time drives the cleaning cartridge 902 to move. Restricted by the slide rail 904, the maximum stroke of the cleaning cartridge 902 is located at the bottom of the treatment chamber 4. When the two are connected, the sealing assembly 8 is also used for fixed sealing. The cleaning cartridge 902 has a different structure from the filter cartridge 701. The cleaning cartridge 902 has no opening at the bottom, and only an opening is provided at the top to connect with the treatment chamber 4. After the connection is completed, the electric control valve 601 is opened to discharge the sewage inside the treatment chamber 4 into the cleaning cartridge 902. After the work is completed, the cleaning cartridge 902 can be directly reset;

[0076] It should be noted that when the sealing assembly 8 is in a non-working state, that is, when the two sealing extrusion sleeves 802 are in an open state, it will not interfere with the movable switching of the filter cartridge 701 , the replacement cartridge 906 and the cleaning cartridge 902 .

[0077] Embodiment 3

[0078] like Figure 14-15 As shown, this embodiment further includes the following structure on the basis of the first embodiment: the condensate recycling and treatment equipment in the computer room of the data center also includes a disinfection component 10, the bottom of the filter chamber 2 is connected to the sterilization chamber 3, the disinfection component 10 is located inside the sterilization chamber 3, the disinfection component 10 includes a disinfection box 1001, the top of the disinfection box 1001 is provided with an opening suitable for allowing the filtered liquid to pass through, the disinfection box 1001 is connected to a water outlet pipe 1002, at least one ultraviolet lamp group 1003 is installed inside the sterilization chamber 3, the ultraviolet lamp group 1003 is suitable for sterilizing the liquid inside the disinfection box 1001, and the interior of the sterilization chamber 3 is provided with a recessed The groove is located between the ultraviolet lamp group 1003 and the disinfection box 1001, and a threaded rod 1005 is rotatably installed inside the groove, and the threaded rod 1005 is driven by a rotating motor 1004. The outside of the threaded rod 1005 is equipped with a linkage plate 1006 through a ball nut, and a linkage gear 1007 is rotatably installed on the top of the linkage plate 1006. A cleaning roller 1009 is fixedly connected to the top of the linkage gear 1007, and a rack 1008 is fixedly connected inside the sterilization chamber 3. The rack 1008 meshes with the linkage gear 1007 to drive the cleaning roller 1009 to rotate and clean the ultraviolet lamp group 1003.

[0079] The working principle of this embodiment is as follows:

[0080] After the pre-treated condensed water passes through the filter cartridge 701 or the replacement cartridge 906, it will flow into the interior of the disinfection box 1001 for disinfection. The joint between the disinfection box 1001 and the filter device also requires fixed sealing treatment by the sealing component 8. After the condensed water is stored in the disinfection box 1001, it remains in a static state. At the same time, the condensed water can be disinfected by continuous irradiation by the ultraviolet lamp group 1003. The static state is more conducive to ultraviolet disinfection. After long-term use, a large amount of dust will adhere to the surface of the ultraviolet lamp group 1003, which will cause the ultraviolet irradiation effect to deteriorate. At this time, the thread can be driven by starting the rotating motor 1004. When rod 2 1005 rotates, linkage plate 1006 moves in the direction of the thread, and the meshing of linkage gear 1007 and rack 1008 enables cleaning roller 1009 to rotate in a straight line. The surface of the ultraviolet lamp can be cleaned by the movement of cleaning roller 1009, and the movement of cleaning roller 1009 is controlled by controlling the forward and reverse rotation of rotating motor 1004. It should be noted that cleaning roller 1009 has a separate storage space near rotating motor 1004, and will not block the ultraviolet lamp. This part ensures that the quality of ultraviolet disinfection will not be affected by other dust factors by automatically cleaning the ultraviolet lamp.

[0081] The specific embodiments described above further illustrate the technical problems, technical solutions and beneficial effects solved by the present invention. It should be understood that the above are only specific embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A condensate recycling and treatment device for a data center computer room, comprising a water inlet (1), the bottom of the water inlet (1) is connected to a treatment chamber (4), the treatment chamber (4) is communicated with the internal space of the water inlet (1), the top of the water inlet (1) is connected to a water inlet pipe (501), and is characterized in that: A processing assembly (5) is arranged inside the processing chamber (4), and the processing assembly (5) includes a diversion chamber (502) opened inside the water inlet (1), a hydrodynamic impeller (504) and a switch sleeve (510), and the liquid flowing out of the diversion chamber (502) is suitable for driving the hydrodynamic impeller (504) to rotate, and the inside of the processing chamber (4) is connected to a coagulant discharge pipe (506) for storing coagulant, and the switch sleeve (510) is slidably connected to the outside of the coagulant discharge pipe (506), and the hydrodynamic impeller (504) is suitable for driving the extrusion device to drive the switch sleeve (510) to slide longitudinally on the outer peripheral surface of the coagulant discharge pipe (506) to control the automatic quantitative discharge of the coagulant in the coagulant discharge pipe (506).

2. The condensate recycling and treatment equipment for a data center computer room according to claim 1 is characterized by: A water drive shaft (503) is rotatably mounted inside the treatment chamber (4); the water power impeller (504) is fixedly sleeved on the outer peripheral surface of the water drive shaft (503); the water power impeller (504) is located directly below the outlet of the diversion chamber (502); the liquid flowing out of the outlet of the diversion chamber (502) is suitable for driving the water power impeller (504) to rotate and thereby drive the water drive shaft (503) to rotate; the water power impeller (504) is suitable for buffering the liquid entering the treatment chamber (4); The switch sleeve (510) is connected to the bottom of the water inlet (1) through at least two squeezing springs (508), a telescopic rod (509) is arranged inside the squeezing spring (508), and the two ends of the telescopic rod (509) are respectively connected to the bottom of the water inlet (1) and the top of the switch sleeve (510), the coagulant discharge pipe (506) is provided with a plurality of water outlet holes, and the water outlet holes are suitable for allowing the coagulant to flow out, and the switch sleeve (510) is provided with a square groove penetrating itself, and when the switch sleeve (510) moves longitudinally on the outer peripheral surface of the coagulant discharge pipe (506), the square groove is suitable for overlapping with the water outlet holes to discharge the coagulant, and the top of the coagulant discharge pipe (506) is connected to the coagulant inlet pipe (505), and one end of the coagulant inlet pipe (505) extends out of the water inlet (1); The squeezing device comprises a cam (507), wherein the cam (507) is fixedly sleeved on the outer peripheral surface of the water drive shaft (503), the cam (507) is suitable for contacting the top of the switch sleeve (510), and the cam (507) cooperates with the squeezing spring (508) to control the longitudinal reciprocating movement of the switch sleeve (510).

3. The condensate recycling and treatment equipment for a data center computer room according to claim 1 is characterized by: A rotating assembly (6) is arranged inside the treatment chamber (4), and the rotating assembly (6) comprises a driving motor (602), a driving gear (603) and a driven gear (604), wherein the driving gear (603) and the driven gear (604) are meshed, and the driving motor (602) is connected to the driving gear (603) to drive the driving gear (603) to rotate, and the driving motor (602) is located outside the treatment chamber (4), and a rotating disk (605) is connected to the top of the driven gear (604), and the rotating disk (605) and the driven gear (604) are both hollow, and at least one rotating arm (606) is connected to the top of the rotating disk (605), and the rotating arm (606) is suitable for being driven to rotate so as to stir and mix the condensed water and the coagulant, and a discharge port is arranged at the center of the bottom of the treatment chamber (4), and an electric control valve (601) is installed on the discharge port, and the electric control valve (601) is suitable for controlling the opening and closing of the discharge port.

4. The condensate recycling and treatment equipment for a data center computer room according to claim 3 is characterized by: A rotatable cleaning block (608) is mounted on one end of the rotating arm (606) close to the inner wall of the processing chamber (4) via a movable shaft (607); a prism-shaped portion (611) is provided at one end of the cleaning block (608); and two opposite sides are provided at the other end of the cleaning block (608), namely a first side and a second side; an arc-shaped portion (610) is provided on the first side, and a limiting portion is provided on the second side; the arc-shaped portion (610) enables the cleaning block (608) to deflect toward the first side, and the limiting portion prevents the cleaning block (608) from deflecting toward the second side; The cleaning block (608) is provided with a plurality of water flow grooves, and the rotating arm (606) rotates clockwise so that water flows through the water flow grooves (609) to make the cleaning block (608) and the rotating arm (606) in a horizontal state, so as to cooperate with the rotating arm (606) to stir the liquid in the processing chamber (4); When the rotating arm (606) rotates counterclockwise, the water flow pushes the prismatic portion (611) to drive the movable shaft (607) to rotate until the arc-shaped portion (610) is perpendicular to the rotating arm (606). After the cleaning block (608) rotates, it is suitable for abutting against the inner wall of the processing chamber (4) to cooperate with the rotation of the rotating arm (606) to clean the inner wall of the processing chamber (4).

5. The condensate recycling and treatment equipment for a data center computer room according to claim 1 is characterized by: The invention also comprises a filter assembly (7) connected to the discharge port, wherein the bottom of the treatment chamber (4) is connected to the filter chamber (2), the filter assembly (7) is located inside the filter chamber (2), the filter assembly (7) comprises a filter cartridge (701), the filter cartridge (701) is provided with a movable coarse filter screen 1 (702) and a coarse filter screen 2 (703) as well as a fixed fine filter screen (704) and an activated carbon filter layer (705), and the inner wall of the filter cartridge (701) at the coarse filter screen 1 (702) and the coarse filter screen 2 (703) is provided with movable The movable groove comprises a coarse filter screen 1 (702) and a coarse filter screen 2 (703), both of which are slidably connected to the inside of the movable groove. The movable groove is suitable for providing space for the coarse filter screen 1 (702) and the coarse filter screen 2 (703) to move horizontally. A plurality of vibration springs (706) are arranged inside the movable groove. One end of the vibration spring (706) is connected to the corresponding coarse filter screen 1 (702) and the coarse filter screen 2 (703). The movable coarse filter screen 1 (702) and the coarse filter screen 2 (703) shake when impacted by liquid to avoid clogging.

6. The condensate recycling and treatment equipment for a data center computer room according to claim 5 is characterized by: The bottoms of the coarse filter screen 1 (702) and the coarse filter screen 2 (703) are both connected to an extension plate (707), and the inner wall of the filter cylinder (701) is connected to two groups of fixed plates (708), the fixed plates (708) correspond to the extension plates (707), and the fixed plates (708) are located below the extension plates (707). A spring block (709) is rotatably mounted inside the fixed plate (708), and a return spring (710) is arranged outside the spring block (709), and the two ends of the return spring (710) are respectively connected to the fixed block and the spring block (709), and the return spring (710) is suitable for driving the spring block (709) to provide a reaction force to the extension plate (707), so that the coarse filter screen 1 (702) and the coarse filter screen 2 (703) shake to avoid clogging.

7. The condensate recycling and treatment equipment for a data center computer room according to claim 5 is characterized by: The filter cartridge (701) is provided with sealing assemblies (8) at both upper and lower ends. The sealing assemblies (8) are suitable for sealing after the filter cartridge (701) is docked with other devices. The sealing assemblies (8) include two bidirectional screws (801). The bidirectional screws (801) are rotatably mounted inside the filter chamber (2). The outsides of the two bidirectional screws (801) are equipped with two sealing extrusion sleeves (802) that can move toward each other through ball nuts. The sealing extrusion sleeves (802) are suitable for clamping the filter cartridge (701) and the filter chamber (2) in a manner of opposite clamping. The sealing extrusion sleeve (802) is connected to other devices for docking. An upper limit plate (803) is connected to the upper sealing extrusion sleeve (802), and a lower limit plate (804) is connected to the lower sealing extrusion sleeve (802). Both the upper limit plate (803) and the lower limit plate (804) are suitable for preventing the sealing extrusion sleeve (802) from rotating. The upper limit plate (803) is slidably connected to the top inner wall of the filter chamber (3). A slide rail (904) is provided inside the filter chamber (2), and the lower limit plate (804) is slidably connected to the slide rail (904).

8. The condensate recycling and treatment equipment for a data center computer room according to claim 7 is characterized by: The invention also comprises a switching assembly (9), wherein the switching assembly (9) is located inside the filter chamber (2), and the switching assembly (9) comprises a cleaning cylinder (902). The outside of the cleaning cylinder (902) is connected to a moving sleeve (903), and the moving sleeve (903) is slidably connected to the inside of the slide rail (904). A cylinder (901) is installed inside the filter chamber (2), and the telescopic end of the cylinder (901) is connected to the moving sleeve (903). The cylinder (901) is suitable for pushing the cleaning cylinder (902) to move inside the slide rail (904). When the treatment chamber (4) needs to be cleaned, the cleaning cylinder (902) is suitable for moving to the filter cylinder (701) to store the cleaned sewage. The cleaning cylinder (902) is a structure with an open upper end and a closed lower end.

9. The condensate recycling and treatment equipment for a data center computer room according to claim 8 is characterized by: The switching assembly (9) further comprises a replacement cylinder (906) and a deflection plate (905), and the outer circumferential surfaces of the replacement cylinder (906) and the filter cylinder (701) are both provided with a limiting sleeve (907), and the limiting sleeve (907) is suitable for enabling the replacement cylinder (906) and the filter cylinder (701) to move in the internal groove of the deflection plate (905). Two linear motors (908) are installed inside the filter chamber (2), and the two linear motors (908) respectively drive the corresponding threaded rods (909) to rotate, and the two threaded rods (909) are respectively driven to rotate. 09) is rotatably mounted inside the filter chamber (2), the outsides of the two threaded rods (909) are both equipped with a transmission sleeve (910) through a ball nut, a slide groove is provided inside the transmission sleeve (910), and a slider (911) is respectively provided on the outer circumference of the cleaning cylinder (902) and the replacement cylinder (906), and the two sliders (911) are respectively slidably connected inside the corresponding slide grooves, and the transmission sleeve (910) is suitable for replacing the replacement cylinder (906) and the cleaning cylinder (902) by pushing.

10. The condensate recycling and treatment equipment for a data center computer room according to claim 5, characterized in that: The invention also comprises a disinfection component (10), wherein the bottom of the filtration chamber (2) is connected to a sterilization chamber (3), the disinfection component (10) is located inside the sterilization chamber (3), the disinfection component (10) comprises a disinfection box (1001), the top of the disinfection box (1001) is provided with an opening suitable for allowing filtered liquid to pass through, the disinfection box (1001) is connected to a water outlet pipe (1002), at least one ultraviolet lamp group (1003) is installed inside the disinfection chamber (3), the ultraviolet lamp group (1003) is suitable for sterilizing the liquid inside the disinfection box (1001), and a groove is provided inside the disinfection chamber (3), the groove is located between the ultraviolet lamp group (1003) and the disinfection chamber (1001). The sterilization chamber (3) is provided with a second threaded rod (1005) rotatably mounted inside the groove, the second threaded rod (1005) being driven by a rotating motor (1004), the outside of the second threaded rod (1005) being equipped with a linkage plate (1006) via a ball nut, the top of the linkage plate (1006) being rotatably mounted with a linkage gear (1007), the top of the linkage gear (1007) being fixedly connected with a cleaning roller (1009), the inside of the sterilization chamber (3) being fixedly connected with a rack (1008), the rack (1008) meshing with the linkage gear (1007) being suitable for driving the cleaning roller (1009) to rotate and clean the ultraviolet lamp assembly (1003).

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