A high-temperature spray water vapor condensation recovery system on an electrophoresis line

Abstract

The present application discloses a high-temperature spray water vapor condensation recovery system on an electrophoresis line, which relates to the field of electrophoresis processing, including a spray room, a plurality of delivery pipes are arranged on the spray room, a plurality of spray pipes are fixed on the delivery pipes, a plurality of liquid medicine pools are arranged at the bottom of the spray room, a movable hanging rail is fixed on the spray room, and a water vapor condensation recovery mechanism is arranged on the spray room. When the heated liquid medicine is sprayed on the workpiece, the liquid medicine generates water vapor, and the water vapor generated by the liquid medicine is collected by the water vapor condensation recovery mechanism, and then the water vapor condensation recovery mechanism condenses the water vapor to condense the water vapor into liquid, and then the water vapor condensation recovery mechanism re-transports the condensed liquid to the liquid medicine pool below the spray room, so that the water vapor generated by the spray cleaning of the workpiece can be collected, reducing the impact of the drifting of water vapor on the field of vision, and at the same time, the water vapor can be collected to reduce the waste of resources.

Description

Technical Field

[0001] The present application relates to the field of electrophoresis processing, and in particular to a high-temperature spray water vapor condensation recovery system on an electrophoresis line. Background Art

[0002] The electrophoresis process is a technology that uses the action of an electric field to move charged particles in a liquid medium, thereby achieving coating or treatment of the surface of an object. Its basic principle is the electrophoresis phenomenon, that is, under the action of an electric field, charged particles move in a directed manner in a liquid. During the electrophoresis process, the object to be treated is usually immersed in a conductive aqueous coating or treatment liquid as an anode or cathode, and then a voltage is applied to move the charged particles in the coating or treatment liquid and deposit them on the surface of the object.

[0003] When the electrophoresis process is used to process the workpiece, the workpiece needs to be pre-treated. Generally, the workpiece needs to be cleaned, degreased, pickled, phosphated or calcified to remove oil, dust, rust and other impurities on the surface of the workpiece. When the workpiece is processed, the workpiece is generally sent to the spray room using a hanging rail. During the movement of the workpiece, the spray system is used to spray the workpiece to clean the surface of the workpiece.

[0004] In order to improve the cleaning effect of the chemical liquid on the workpiece, the chemical liquid is generally heated to allow the heated chemical liquid to fully contact the workpiece. The chemical liquid will produce steam when sprayed after being heated. The steam will diffuse into the spray workshop. A large amount of steam diffuses in the spray workshop and cannot dissipate, which not only affects the observation of the spraying effect of the workpiece, but also causes a waste of chemical liquid. Summary of the invention

[0005] The purpose of the present application is to solve the problem proposed in the above-mentioned background technology that the liquid medicine will generate steam when sprayed after being heated, and the steam will diffuse into the spray workshop. A large amount of steam diffuses in the spray workshop and cannot dissipate, which not only affects the spraying effect of the observed workpiece, but also causes waste of the liquid medicine. The present application provides a high-temperature spray water vapor condensation recovery system for an electrophoresis line.

[0006] In order to achieve the above-mentioned purpose, this application specifically adopts the following technical solutions: A high-temperature spray water vapor condensation recovery system on an electrophoresis line includes a spray room, a plurality of delivery pipes are arranged on the spray room, the delivery pipes are fixedly connected to the spray room, a plurality of spray pipes are fixed on the delivery pipes, a plurality of liquid medicine pools are arranged at the bottom of the spray room, the delivery pipes correspond to the liquid medicine pools and are connected, a movable hanging rail is fixed on the spray room, and a water vapor condensation recovery mechanism is arranged on the spray room.

[0007] By adopting the above technical solution, when the heated liquid medicine is sprayed on the workpiece, the liquid medicine generates water vapor, and the water vapor generated by the liquid medicine is collected by the water vapor condensation recovery mechanism, and then the water vapor condensation recovery mechanism condenses the water vapor to condense the water vapor into liquid, and then the water vapor condensation recovery mechanism re-transports the condensed liquid to the liquid medicine pool under the spray room, so that the water vapor generated by the spray cleaning of the workpiece can be collected, reducing the impact of the water vapor on the field of vision, and at the same time, the water vapor can be collected to reduce the waste of resources.

[0008] Furthermore, the water vapor condensation recovery mechanism is arranged on a condenser in the spray room, an air duct one is fixed on the condenser, the condenser is fixedly connected to the roof above the spray room of air duct one, a plurality of air ducts two are fixed on the air duct one, a return pipe is fixed on the condenser, the return pipe is connected to a plurality of liquid medicine pools, and a plurality of auxiliary collection components are arranged in the spray room.

[0009] By adopting the above technical solution, water vapor enters from air duct two, then enters air duct one from air duct two, and enters the condenser from air duct one. The condenser condenses the water vapor into liquid. At the same time, the auxiliary collection mechanism collects the water vapor on the side of the spray room, allowing the water vapor to further quickly enter air duct two, thereby reducing the diffusion of water vapor in the spray room, reducing the impact of water vapor dispersion on vision, facilitating the recovery of water vapor, allowing the water vapor to recirculate into the liquid medicine pool, and reducing the waste of resources.

[0010] Furthermore, the auxiliary collecting component is arranged on a supporting block on air duct two, an up and down moving part is arranged between the supporting block and air duct two, an auxiliary collecting pipe is arranged on the supporting block, a rotating part is arranged between the supporting block and the auxiliary collecting pipe, a suction air pump is fixed on one side of the air duct two, a connecting pipe is arranged between the suction air pump and the auxiliary collecting pipe, and one end of the connecting pipe is connected to the suction air pump.

[0011] By adopting the above technical solution, a suction air pump is used to generate suction, and the suction air pump uses the connecting pipe to generate suction in the auxiliary collecting pipe, so that the auxiliary collecting pipe collects the water vapor in the spray room, and then enters the air duct two under the action of the suction air pump, so that the water vapor in the spray room can be further collected, thereby improving the efficiency of water vapor collection and condensation.

[0012] Furthermore, the up-and-down moving member comprises a reciprocating threaded rod rotatably connected to the second air duct, a transmission wheel is fixed on the reciprocating threaded rod, and the reciprocating threaded rod penetrates the support block and is threadedly connected to the support block.

[0013] By adopting the above technical solution, the reciprocating threaded rod drives the support block when rotating, allowing the support block to move up and down on the reciprocating threaded rod, and allowing the support block to drive the auxiliary collecting tube to move up and down, thereby allowing the support block to drive the auxiliary collecting tube to move up and down, thereby expanding the suction range of the auxiliary collecting tube.

[0014] Furthermore, a support seat is provided on one side of the reciprocating threaded rod, the support seat is fixedly connected to the spray room, a driving motor is fixed on the support seat, a transmission wheel is fixed on the output end of the driving motor, and a transmission belt is connected between the transmission wheel of the reciprocating threaded rod and the transmission wheel at the output end of the driving motor.

[0015] By adopting the above technical solution, the driving motor is used to drive the transmission wheel at the output end, the transmission wheel drives the transmission belt, and the transmission belt drives the transmission wheel on the reciprocating threaded rod, so that the reciprocating threaded rod can rotate.

[0016] Furthermore, the rotating member includes a gear 1 arranged on the support block, the gear 1 is fixedly connected to the auxiliary collecting pipe, one side of the gear 1 is meshingly connected with a gear 2, a support pipe is fixed on the support block, the support pipe is rotatably connected to the auxiliary collecting pipe and communicated with each other, and one end of the connecting pipe is fixedly connected to the support pipe and communicated with each other.

[0017] By adopting the above technical solution, when the reciprocating threaded rod drives the support block to move up and down, gear 2 drives gear 1 to rotate, and gear 1 drives the auxiliary collection tube to rotate on the support tube, thereby further expanding the suction range of the auxiliary collection tube.

[0018] Furthermore, a transmission gear is rotatably connected to the support block, the transmission gear is fixedly connected to gear 2, a rack is fixed to the air duct 2, the rack passes through the support block and meshes with the transmission gear.

[0019] By adopting the above technical solution, the support block moves up and down on the rack, and the rack limits the support block, so that the support block remains stable when moving. At the same time, the rack drives the transmission gear, and the transmission gear drives gear two to rotate, so that gear two can easily drive gear one to rotate on the support block.

[0020] Furthermore, the connecting pipe is a threaded telescopic pipe.

[0021] By adopting the above technical solution, the connecting pipe is extended and retracted under the elasticity of the thread, so that the suction air pump and the auxiliary collecting pipe on the supporting pipe can remain connected when the supporting block moves up and down.

[0022] In summary, the present application includes at least one of the following beneficial effects: 1. In this application, the workpiece is hung on a mobile hanging rail and moved into the spray room. When the workpiece is moved into the spray room, the heated liquid medicine enters the conveying pipe from the liquid medicine pool, and then is sprayed onto the workpiece from the spray pipe in the conveying pipe to clean the surface of the workpiece. When the heated liquid medicine is sprayed on the workpiece, the generated water vapor floats upward, and the built-in fan of the condenser generates suction, allowing the water vapor to enter from the air duct two, and then enter the air duct one from the air duct two, and enter the condenser from the air duct one. The condenser condenses the water vapor into liquid, allows the liquid to enter the reflux pipe, and then enters the liquid medicine pool from the reflux pipe for recycling. While the water vapor rises and enters the air duct two, the auxiliary collection mechanism collects the water vapor on the side of the spray room, allowing the water vapor to further quickly enter the air duct two, reducing the possibility of water vapor drifting in the spray room, thereby achieving the purpose of reducing the diffusion of water vapor in the spray room, reducing the impact of water vapor drifting on the field of vision, facilitating the recovery of water vapor, allowing water vapor to re-circulate into the liquid medicine pool, and reducing the waste of resources.

[0023] 2. In the present application, a driving motor on a support seat is utilized to drive a transmission wheel at an output end, and the transmission wheel drives a transmission belt, and the transmission belt drives a transmission wheel on a reciprocating threaded rod, and the transmission wheel drives the reciprocating threaded rod to rotate. When the reciprocating threaded rod rotates, it drives a support block, and the support block moves up and down on the reciprocating threaded rod. When the support block moves up and down, it drives the auxiliary collecting tube to move up and down in the spray room, thereby achieving the purpose of allowing the support block to drive the auxiliary collecting tube to move up and down and expanding the suction range of the auxiliary collecting tube.

[0024] 3. In the present application, when the reciprocating threaded rod drives the support block to move up and down, the support block moves up and down on the rack, and at the same time the rack limits the support block to keep the support block stable during movement, and at the same time the rack drives the transmission gear, and the transmission gear drives gear 2 to rotate, so that gear 2 drives gear 1 to rotate, and gear 1 drives the auxiliary collecting tube to rotate on the support tube, so that the end of the collecting tube rotates in a circle, thereby achieving the purpose of allowing the auxiliary collecting tube to rotate while moving up and down, and further expanding the suction range of the auxiliary collecting tube. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a first three-dimensional structural schematic diagram of the high-temperature spray water vapor condensation recovery system on the electrophoresis line in this application; Figure 2 It is a schematic diagram of the three-dimensional structure of the first part of the high-temperature spray water vapor condensation recovery system on the electrophoresis line in this application; Figure 3 It is a schematic diagram of the third part of the three-dimensional structure of the high-temperature spray water vapor condensation recovery system on the electrophoresis line in the present application; Figure 4 This application Figure 2The enlarged schematic diagram at A in the middle; Figure 5 This application Figure 3 Enlarged schematic diagram of point B in the middle.

[0026] Description of reference numerals: 1. Spray room; 2. Delivery pipe; 3. Spray pipe; 4. Liquid medicine pool; 5. Water vapor condensation recovery mechanism; 51. Condenser; 52. Air duct one; 53. Air duct two; 54. Auxiliary collection assembly; 541. Auxiliary collection pipe; 542. Support block; 543. Suction air pump; 544. Up and down moving parts; 5441. Reciprocating threaded rod; 5442. Transmission wheel; 5443. Driving motor; 5444. Support seat; 5445. Transmission belt; 545. Rotating part; 5451. Gear one; 5452. Gear two; 5453. Support pipe; 5454. Rack; 5455. Transmission gear; 546. Connecting pipe; 55. Reflux pipe; 6. Mobile hanging rail. DETAILED DESCRIPTION

[0027] The following is combined with Figure 1 —5 Further details of this application are provided.

[0028] The embodiment of the present application discloses a high-temperature spray water vapor condensation recovery system on an electrophoresis line.

[0029] Reference Figure 1 , Figure 2 and Figure 3 A high-temperature spray water vapor condensation recovery system on an electrophoresis line includes a spray room 1, a plurality of delivery pipes 2 are arranged on the spray room 1, the delivery pipes 2 are fixedly connected to the spray room 1, a plurality of spray pipes 3 are fixed on the delivery pipes 2, a plurality of liquid medicine pools 4 are arranged at the bottom of the spray room 1, the delivery pipes 2 correspond to the liquid medicine pools 4 and are connected, a movable hanging rail 6 is fixed on the spray room 1, and a water vapor condensation recovery mechanism 5 is arranged on the spray room 1.

[0030] When the electrophoresis line is used to spray clean the workpiece before electrophoresis, the workpiece is first hung on the movable hanging rail 6 and moved into the spray room 1. When the workpiece is moved into the spray room 1, the heated liquid medicine enters the delivery pipe 2 from the liquid medicine pool 4, and then is sprayed onto the workpiece from the spray pipe in the delivery pipe 2 to clean the surface of the workpiece. When the heated liquid medicine is sprayed on the workpiece, the liquid medicine generates water vapor, which is collected by the water vapor condensation recovery mechanism 5, and then the water vapor condensation recovery mechanism 5 collects the water vapor. Condensation is performed to allow the water vapor to condense into liquid, and then the water vapor condensation recovery mechanism 5 transports the condensed liquid back to the liquid medicine pool 4 below the spray room 1. By moving the workpiece into the spray room 1 and using high-temperature liquid medicine for spray cleaning, the water vapor condensation recovery mechanism 5 is used to collect and condense the generated water vapor, and the water vapor is condensed into liquid and returned to the liquid medicine pool 4, so that the water vapor generated by the spray cleaning of the workpiece can be collected, reducing the dispersion of water vapor. At the same time, the water vapor can be collected to reduce the waste of resources.

[0031] Reference Figure 1 , Figure 2 and Figure 4 The water vapor condensation recovery mechanism 5 is arranged on a condenser 51 on the spray room 1, and an air duct 1 52 is fixed on the condenser 51. The condenser 51 and the air duct 1 52 are fixedly connected to the roof above the spray room 1, and a plurality of air ducts 2 53 are fixed on the air duct 1 52. A return pipe 55 is fixed on the condenser 51, and the return pipe 55 is connected to a plurality of liquid medicine pools 4. A plurality of auxiliary collection components 54 are arranged in the spray room 1.

[0032] When the workpiece is sprayed in the spray room 1, the water vapor generated floats upward, and the fan built in the condenser 51 generates suction, allowing the water vapor to enter from the air duct 2 53, and then enter the air duct 1 52 from the air duct 2 53, and enter the condenser 51 from the air duct 1 52. The condenser 51 condenses the water vapor into liquid, allowing the liquid to enter the return pipe 55, and then enters the liquid pool 4 from the return pipe 55 for recycling. While the water vapor rises and enters the air duct 2 53, the auxiliary collection mechanism collects the water vapor on the side of the spray room 1. Collect the water vapor, so that it can further quickly enter the air duct 2 53, reduce the possibility of water vapor drifting in the spray room 1, collect the upward floating water vapor by using the air duct 1 52 and the air duct 2 53, and further collect it by using the auxiliary collection component 54, so that the water vapor can enter the condenser 51, condense into liquid, and then enter the liquid medicine pool 4 along the reflux pipe 55, thereby reducing the diffusion of water vapor in the spray room 1, reducing the impact of water vapor drifting on the field of vision, facilitating the recovery of water vapor, allowing the water vapor to circulate back to the liquid medicine pool 4, and reducing the waste of resources.

[0033] Reference Figure 2 and Figure 4The auxiliary collecting component 54 is arranged on the supporting block 542 on the air duct 2 53, an up and down moving member 544 is arranged between the supporting block 542 and the air duct 2 53, an auxiliary collecting pipe 541 is arranged on the supporting block 542, a rotating member 545 is arranged between the supporting block 542 and the auxiliary collecting pipe 541, a suction air pump 543 is fixed on one side of the air duct 2 53, a connecting pipe 546 is arranged between the suction air pump 543 and the auxiliary collecting pipe 541, and one end of the connecting pipe 546 is connected to the suction air pump 543.

[0034] When the water vapor floats up and enters the second air duct 53, the suction pump 543 is used to generate suction, and the suction pump 543 uses the connecting pipe 546 to make the auxiliary collection pipe 541 generate suction, so that the auxiliary collection pipe 541 collects the water vapor in the spray room 1, and then enters the second air duct 53 under the action of the suction pump 543. While the auxiliary collection pipe 541 collects the water vapor, the up-and-down moving member 544 drives the support block 542 to move, so that the support block 542 drives the auxiliary collection pipe 541 to move upward. The auxiliary collecting pipe 541 moves downward to expand the suction range of the auxiliary collecting pipe 541. While the up-and-down moving member 544 drives the supporting block 542, the up-and-down moving member 544 drives the rotating member 545. The rotating member 545 drives the auxiliary collecting pipe 541 to rotate. The auxiliary collecting pipe 541 is a curved pipe, which further expands the suction range of the auxiliary collecting pipe 541. By allowing the auxiliary collecting pipe 541 to move while generating suction, the water vapor in the spray room 1 can be further collected, thereby improving the efficiency of water vapor collection and condensation.

[0035] Reference Figure 2 and Figure 4 The up and down moving member 544 includes a reciprocating threaded rod 5441 rotatably connected to the air duct 53 , a transmission wheel 5442 is fixed to the reciprocating threaded rod 5441 , and the reciprocating threaded rod 5441 passes through the support block 542 and is threadedly connected to the support block 542 .

[0036] When the auxiliary collecting tube 541 collects water vapor, the transmission wheel 5442 drives the reciprocating threaded rod 5441 to rotate. When the reciprocating threaded rod 5441 rotates, it drives the support block 542, so that the support block 542 moves up and down on the reciprocating threaded rod 5441, and the support block 542 drives the auxiliary collecting tube 541 to move up and down. When the reciprocating threaded rod 5441 rotates, the support block 542 moves up and down on the reciprocating threaded rod 5441, so that the support block 542 can drive the auxiliary collecting tube 541 to move up and down, thereby expanding the suction range of the auxiliary collecting tube 541.

[0037] Reference Figure 2 and Figure 4A support seat 5444 is provided on one side of the reciprocating threaded rod 5441, and the support seat 5444 is fixedly connected to the spray room 1. A driving motor 5443 is fixed on the support seat 5444, and a transmission wheel 5442 is fixed at the output end of the driving motor 5443. A transmission belt 5445 is connected between the transmission wheel 5442 of the reciprocating threaded rod 5441 and the transmission wheel 5442 at the output end of the driving motor 5443.

[0038] The driving motor 5443 is used to drive the transmission wheel 5442 at the output end, and the transmission wheel 5442 drives the transmission belt 5445. The transmission belt 5445 drives the transmission wheel 5442 on the reciprocating threaded rod 5441. The transmission wheel 5442 drives the reciprocating threaded rod 5441 to rotate. By allowing the transmission belt 5445 of the driving motor 5443 to drive the transmission wheel 5442 on the reciprocating threaded rod 5441, the reciprocating threaded rod 5441 can be rotated.

[0039] Reference Figure 1 , Figure 3 and Figure 5 The rotating member 545 includes a gear 1 5451 arranged on the support block 542, the gear 1 5451 is fixedly connected to the auxiliary collecting pipe 541, one side of the gear 1 5451 is meshingly connected with a gear 2 5452, a support pipe 5453 is fixed on the support block 542, the support pipe 5453 is rotatably connected to the auxiliary collecting pipe 541 and is communicated with each other, and one end of the connecting pipe 546 is fixedly connected to the support pipe 5453 and is communicated with each other.

[0040] When the reciprocating threaded rod 5441 drives the support block 542 to move up and down, gear 2 5452 drives gear 1 5451 to rotate, and gear 1 5451 drives the auxiliary collecting tube 541 to rotate on the support tube 5453, allowing the end of the collecting tube to rotate in a circle. By allowing the auxiliary collecting tube 541 to rotate on the supporting tube, the suction range of the auxiliary collecting tube 541 can be further expanded.

[0041] Reference Figure 1 , Figure 3 and Figure 5 A transmission gear 5455 is rotatably connected to the support block 542 , and the transmission gear 5455 is fixedly connected to the second gear 5452 . A rack 5454 is fixed to the second air duct 53 , and the rack 5454 penetrates the support block 542 and meshes with the transmission gear 5455 .

[0042] When the reciprocating threaded rod 5441 drives the support block 542 to move up and down, the support block 542 moves up and down on the rack 5454, and at the same time the rack 5454 limits the support block 542 to keep the support block 542 stable during movement, and at the same time the rack 5454 drives the transmission gear 5455, the transmission gear 5455 drives gear 2 5452 to rotate, and gear 2 5452 drives gear 1 5451 to rotate, by moving the support block 542 on the rack 5454, allowing the rack 5454 to drive the transmission gear 5455, and allowing the transmission gear 5455 to drive gear 2 5452 to rotate, so that gear 2 5452 can easily drive gear 1 5451 to rotate on the support block 542.

[0043] Reference Figure 2 and Figure 4 The connecting tube 546 is a threaded telescopic tube. When the support block 542 moves up and down, the support block 542 drives the support tube 5453, and the support tube 5453 drives the connecting tube 546, so that the connecting tube 546 can be extended and retracted under the elasticity of the thread. By making the connecting tube 546 a threaded telescopic tube, the suction air pump 543 and the auxiliary collection tube 541 on the support tube 5453 can be kept in communication when the support block 542 moves up and down.

[0044] Working principle: When using the electrophoresis line to spray clean the workpiece before electrophoresis, first hang the workpiece on the movable hanging rail 6 and move the workpiece into the spray room 1. When the workpiece moves into the spray room 1, the heated liquid medicine enters the delivery pipe 2 from the liquid medicine pool 4, and then is sprayed onto the workpiece from the spray pipe in the delivery pipe 2 to clean the surface of the workpiece. When the heated liquid medicine is sprayed on the workpiece, the liquid medicine generates water vapor, which floats upward, and the fan built into the condenser 51 generates suction, allowing the water vapor to enter from the air duct 2 53, and then enter the air duct 1 52 from the air duct 2 53, and then enter the air duct 1 52 from the air duct 2 53. The water vapor enters the duct 1 52 into the condenser 51, and the condenser 51 condenses the water vapor into liquid, allowing the liquid to enter the return pipe 55, and then enters the liquid medicine pool 4 from the return pipe 55 for recycling. While the water vapor rises and enters the air duct 2 53, the suction pump 543 is used to generate suction, so that the suction pump 543 uses the connecting pipe 546 to make the auxiliary collection pipe 541 generate suction, so that the auxiliary collection pipe 541 collects the water vapor in the spray room 1, and then enters the air duct 2 53 under the action of the suction pump 543. While the auxiliary collection pipe 541 collects the water vapor, the driving motor 54 43 drives the transmission wheel 5442 at the output end, and the transmission wheel 5442 drives the transmission belt 5445, and the transmission belt 5445 drives the transmission wheel 5442 on the reciprocating threaded rod 5441, and the transmission wheel 5442 drives the reciprocating threaded rod 5441 to rotate, and the reciprocating threaded rod 5441 drives the support block 542 when rotating, and the support block 542 moves up and down on the reciprocating threaded rod 5441, and the support block 542 drives the auxiliary collection pipe 541 to move up and down, and when the reciprocating threaded rod 5441 drives the support block 542 to move up and down, the support block 542 moves on the rack 5454 The rack 5454 limits the support block 542, so that the support block 542 remains stable when moving. At the same time, the rack 5454 drives the transmission gear 5455, and the transmission gear 5455 drives the gear 2 5452 to rotate, so that the gear 2 5452 drives the gear 1 5451 to rotate, and the gear 1 5451 drives the auxiliary collecting pipe 541 to rotate on the support pipe 5453, so that the end of the collecting pipe rotates in a circle, and the auxiliary collecting pipe 541 sucks the water vapor in the spray room 1, allowing the water vapor to enter the air duct 2 53, and then enter the condenser 51 for condensation.

Claims

1. A high-temperature spray water vapor condensation recovery system on an electrophoresis line, comprising a spray room (1), characterized in that: The spray room (1) is provided with a plurality of delivery pipes (2), the delivery pipes (2) are fixedly connected to the spray room (1), a plurality of spray pipes (3) are fixedly connected to the delivery pipes (2), a plurality of liquid medicine pools (4) are provided at the bottom of the spray room (1), the delivery pipes (2) correspond to the liquid medicine pools (4) and are connected, a movable hanging rail (6) is fixedly connected to the spray room (1), and a water vapor condensation recovery mechanism (5) is provided on the spray room (1).

2. The high-temperature spray water vapor condensation recovery system on the electrophoresis line according to claim 1, characterized in that: The water vapor condensation recovery mechanism (5) is arranged on a condenser (51) on the spray room (1); an air duct one (52) is fixed on the condenser (51); the condenser (51) and the air duct one (52) are fixedly connected to the roof above the spray room (1); a plurality of air ducts two (53) are fixed on the air duct one (52); a return pipe (55) is fixed on the condenser (51); the return pipe (55) is connected to a plurality of liquid medicine pools (4); and a plurality of auxiliary collection components (54) are arranged in the spray room (1).

3. The high-temperature spray water vapor condensation recovery system on the electrophoresis line according to claim 2, characterized in that: The auxiliary collecting component (54) is arranged on a supporting block (542) on the air duct two (53); an up-and-down moving member (544) is arranged between the supporting block (542) and the air duct two (53); an auxiliary collecting pipe (541) is arranged on the supporting block (542); a rotating member (545) is arranged between the supporting block (542) and the auxiliary collecting pipe (541); a suction air pump (543) is fixed on one side of the air duct two (53); a connecting pipe (546) is arranged between the suction air pump (543) and the auxiliary collecting pipe (541); one end of the connecting pipe (546) is connected to the suction air pump (543).

4. The high-temperature spray water vapor condensation recovery system on the electrophoresis line according to claim 3, characterized in that: The up-and-down moving member (544) comprises a reciprocating threaded rod (5441) rotatably connected to the second air duct (53); a transmission wheel (5442) is fixed to the reciprocating threaded rod (5441); the reciprocating threaded rod (5441) penetrates the support block (542) and is threadably connected to the support block (542).

5. The high-temperature spray water vapor condensation recovery system on the electrophoresis line according to claim 4, characterized in that: A support seat (5444) is provided on one side of the reciprocating threaded rod (5441); the support seat (5444) is fixedly connected to the spray room (1); a driving motor (5443) is fixed on the support seat (5444); a transmission wheel (5442) is fixed to the output end of the driving motor (5443); a transmission belt (5445) is connected in transmission between the transmission wheel (5442) of the reciprocating threaded rod (5441) and the transmission wheel (5442) at the output end of the driving motor (5443).

6. The high-temperature spray water vapor condensation recovery system on the electrophoresis line according to claim 3, characterized in that: The rotating member (545) comprises a gear 1 (5451) arranged on the support block (542), the gear 1 (5451) being fixedly connected to the auxiliary collecting pipe (541), one side of the gear 1 (5451) being meshingly connected to a gear 2 (5452), a support pipe (5453) being fixed on the support block (542), the support pipe (5453) being rotatably connected to the auxiliary collecting pipe (541) and being in communication with each other, and one end of the connecting pipe (546) being fixedly connected to the support pipe (5453) and being in communication with each other.

7. The high-temperature spray water vapor condensation recovery system on the electrophoresis line according to claim 6, characterized in that: The support block (542) is rotatably connected to a transmission gear (5455), the transmission gear (5455) is fixedly connected to the second gear (5452), and the second air duct (53) is fixed with a rack (5454), the rack (5454) penetrates the support block (542) and meshes with the transmission gear (5455).

8. The high-temperature spray water vapor condensation recovery system on the electrophoresis line according to claim 3, characterized in that: The connecting tube (546) is a threaded telescopic tube.

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