Device and process for quickly drying steel wire coil by using waste heat of power plant

Abstract

The invention relates to the technical field of steel wire coil drying, and discloses a device and process for rapidly drying a steel wire coil through waste heat of a power plant. The device comprises a pool body, a square groove, a guide groove and an interlayer groove are formed in the inner wall of the pool body, and a time relay, a water pool and a cylinder are installed on the side wall of the pool body; a steam compressor is installed on the outer wall, away from the time relay, of the pool body, a steam conveying pipe is arranged on the outer wall of the steam compressor, a piston plate is jacked by waste heat steam of a power plant, the piston plate pulls a steel wire rope to drive a first spring and a firing pin to be close to an inductor through a pulley, and the steel wire rope drives a rope winding sleeve to rotate; and in the process, the grid plate is circularly vibrated by utilizing the homopolar repulsion of the magnet I and the magnet II and the rebound effect of the spring I, so that water vapor attached to the surface of the steel wire coil is quickly stripped, the water vapor is more easily in contact with drying heat to realize evaporation, and the drying efficiency is further improved.

Description

Technical Field

[0001] This invention relates to the field of wire rod drying technology, specifically to packaging equipment and methods for hazardous chemicals. Background Technology

[0002] In the steel wire production and processing process, after the steel wire coils are treated by previous processes such as pickling, electroplating, and cleaning, a large amount of free water and residual water stains will adhere to the surface. If they are not dried in time and thoroughly, the moisture will cause the steel wire surface to oxidize and rust, destroy the integrity of the coating, and seriously affect the quality of the steel wire products and the accuracy of subsequent processing.

[0003] In existing steel wire reels, drying is achieved by exchanging heat between heated air and the surface of the reel. However, due to the strong adhesion of moisture to the surface of the steel wire reel, especially for tightly wound reels, the hot air has difficulty penetrating the gaps between the wires and contacting the inner layers, resulting in poor drying uniformity. This often leads to a situation where the outer layer is dry while the inner layer is damp, resulting in low drying efficiency. Furthermore, the heat sources of existing drying equipment are mostly electric heaters or oil-fired boilers, which consume a large amount of traditional energy, further increasing production energy consumption. Summary of the Invention

[0004] This invention provides packaging equipment and methods for hazardous chemicals, which have the advantages of drying energy-driven vibration, heat preservation and clamping, and solve the problems mentioned in the background art.

[0005] This invention provides the following technical solution: a device for rapidly drying steel wire reels using waste heat from power plants, comprising a pool body. The inner wall of the pool body is provided with a square groove, a guide groove, and a sandwich groove. A time relay, a water tank, and a cylinder are respectively installed on the side walls of the pool body. A steam compressor is installed on the outer wall of the pool body away from the time relay. A steam delivery pipe is provided on the outer wall of the steam compressor. A pipe is provided at the end of the steam compressor away from the steam delivery pipe. A slider is slidably connected to the inner wall of the guide groove. Bolts are provided on the side walls of the pool body. A grid plate is slidably connected to the inner wall of the square groove. A placement plate is fixedly installed on the top of the grid plate. A sliding groove is provided on the top of the placement plate. A vibration component and a drying component are respectively provided in the inner cavity of the pool body. A heat insulation component is provided on the side walls of the pool body. A clamping component is provided on the top of the pool body. An isolation box is installed on the inner wall of the pool body. Rollers are provided on the side walls of the pool body. A spring is provided on the top of the grid plate.

[0006] As a preferred embodiment of the present invention: the vibration assembly includes an annular gasket, a piston plate is provided at the bottom of the annular gasket, a striker is fixedly installed at the bottom of the piston plate, a spring and a sensor are respectively provided at the bottom of the piston plate, a transmission component is provided at the top of the piston plate, the transmission component includes a rotating shaft and a magnet, a torsion spring is provided on the outer wall of the rotating shaft, a turntable is rotatably sleeved on the outer wall of the rotating shaft, a rope-retrieving sleeve is fixedly installed on the outer wall of the turntable, a steel wire rope is provided on the outer wall of the rope-retrieving sleeve, and a magnet is embedded in the outer wall of the turntable.

[0007] As a preferred technical solution of the present invention: the annular gasket is fixedly installed on the inner wall of the cylinder; the outer wall of the piston plate is slidably fitted against the inner wall of the cylinder; the first spring is located at the bottom of the piston plate, with one end of the first spring overlapping the bottom of the piston plate and the other end of the first spring overlapping the inner wall of the cylinder; the sensor is located at the bottom of the firing pin and is electrically connected to the time relay; the first rotating shaft is fixedly installed on the side wall of the slider; one end of the torsion spring is engaged with the outer wall of the first rotating shaft and the other end of the torsion spring is engaged with the outer wall of the rope-retracting sleeve; the second magnet is embedded in the bottom of the grid plate; there are several first magnets, and the several first magnets are arranged in a circular array; the unembedded sides of the first and second magnets are respectively the S poles; one end of the steel wire rope is wound to the outer wall of the rope-retracting sleeve, and the other end of the steel wire rope passes through the inner wall of the isolation box, the pool body, and the cylinder and connects to the top of the piston plate; the transmission component is located in the inner cavity of the pool body.

[0008] As a preferred embodiment of the present invention: the drying assembly includes a water ring vacuum pump and a coil. The outer wall of the water ring vacuum pump is provided with a second pipe, and the outer wall of the second pipe is provided with a solenoid valve. The outer wall of the water ring vacuum pump away from the second pipe is provided with a third pipe, and the outer wall of the coil is provided with a fourth pipe. The top of the coil is provided with an air guide component, which includes an air guide shroud and a motor. A box is fixedly installed on the inner wall of the air guide shroud. A second rotating shaft is rotatably connected to the inner wall of the box. An impeller is fixedly sleeved on the outer wall of the second rotating shaft, and a bevel gear is fixedly sleeved on the top of the second rotating shaft. A coupling is fixedly sleeved on the outer edge of the output shaft of the motor, and a fourth rotating shaft is fixedly sleeved on the inner wall of the coupling. A conical gear is fixedly sleeved on the outer wall of the fourth rotating shaft.

[0009] As a preferred embodiment of the present invention: the water ring vacuum pump and the motor are respectively fixedly installed on both sides of the outer wall of the pool body; one end of the second pipe is connected to the air outlet of the cylinder, and the other end of the second pipe is connected to the air inlet of the water ring vacuum pump; one end of the third pipe is connected to the air outlet of the water ring vacuum pump, and the other end of the third pipe passes through the inner wall of the pool body and is connected to the air inlet of the coil; one end of the fourth pipe is connected to the air outlet of the coil, and the other end of the fourth pipe is connected to the air inlet of the pool; the cross-sectional shape of the air guide hood is conical, and the opening of the smaller diameter end of the air guide hood is located at the top of the coil, and the opening of the larger diameter end of the air guide hood is located at the bottom of the grid plate; the outer edge of the conical teeth meshes with the outer edge of the umbrella-shaped teeth; and the coil is made of stainless steel.

[0010] As a preferred technical solution of the present invention: the heat preservation component includes a pipe five, a water pump one and a water pump two are respectively installed on the side wall of the pool body, a pipe six is ​​provided on the outer wall of the water pump one, a pipe seven is provided on the outer wall of the water pump two, and a pipe eight is provided at the end of the water pump two away from the pipe seven.

[0011] As a preferred embodiment of the present invention: one end of pipe five is connected to the outlet of the water tank, and the other end of pipe five is connected to the inlet of water pump one; one end of pipe six is ​​connected to the outlet of water pump one, and the other end of pipe six passes through the inner wall of the tank and connects to the inlet of the interlayer trough; one end of pipe seven is connected to the inlet of the water tank, and the other end of pipe seven is connected to the outlet of water pump two; one end of pipe eight passes through the inner wall of the tank and connects to the outlet of the interlayer trough, and the other end of pipe eight is connected to the inlet of water pump two.

[0012] As a preferred embodiment of the present invention: the clamping assembly includes a sprocket, the outer wall of which is provided with a chain, an armature rod rotatably connected to the outer wall of the slide groove, a bidirectional threaded rod fixedly installed on the outer wall of the armature rod, a guide block threadedly connected to the outer wall of the bidirectional threaded rod, an arc-shaped clamping plate installed on the top of the guide block, a rotating component provided on the outer wall of the armature rod, the rotating component including a connecting rod and an armature rod 2, a gear 1 fixedly sleeved on the outer wall of the armature rod 1, a gear 2 fixedly sleeved on the outer wall of the armature rod 2, a rotating shaft 5 rotatably connected to the outer wall of the connecting rod, a sprocket 2 fixedly sleeved on the outer wall of the rotating shaft 5, a gear 3 and an iron core respectively provided on the inner wall of the rotating shaft 5, and an electromagnetic coil fixedly sleeved at the end of the rotating shaft 5 away from the sprocket 2.

[0013] As a preferred technical solution of the present invention: the connecting rod is fixedly installed on the side wall of the pool body, the first sprocket is fixedly sleeved on the outer wall of the fourth rotating shaft, one end of the chain meshes with the outer edge of the first sprocket, and the other end of the chain meshes with the outer edge of the second sprocket, the guide block and the arc-shaped clamp are regarded as a set of movable components, and there are two sets of such movable components, which are respectively set at both ends of the outer wall of the bidirectional threaded rod, the outer walls of the two guide blocks are slidably fitted against the inner wall of the slide groove, the end of the third gear near the second sprocket corresponds to the outer wall of the first armature rod, the fifth rotating shaft, the third gear, the iron core and the electromagnetic coil are regarded as a set of movable components, and there are two sets of such movable components, which are respectively set parallel to each other on the outer wall of the connecting rod, the other movable component of the fifth rotating shaft, the third gear, the iron core and the electromagnetic coil are correspondingly set to the second armature rod, the outer edge of the third gear meshes with the outer edge of the other third gear, and the outer edge of the second gear meshes with the outer edge of the first gear.

[0014] The process of using waste heat from power plants to rapidly dry steel wire reels includes the following steps: S1: First, place the wire rod to be dried between the two sets of arc-shaped clamps on the placement plate. Start and stop the electromagnetic coils in the two sets of external control modules. When the electromagnetic coil corresponding to the first armature rod is energized, it will generate magnetic force, which will assimilate the iron core. Then start the motor, which will drive the fourth shaft to rotate through the coupling. The fourth shaft will drive the first sprocket to rotate, and the rotating sprocket will drive the second sprocket to rotate through its chain. The first armature rod and the third gear will be magnetically coupled to drive the first armature rod to rotate synchronously. The bidirectional threaded rod will drive the guide blocks at both ends to slide relative to each other along the inner wall of the slide groove as the first armature rod rotates. This will drive the two arc-shaped clamps to move closer to the outer wall of the wire rod, thereby clamping it. When the placement plate causes the wire rod to vibrate, the wire rod will not shift its position. S2: Next, the time relay starts the steam compressor according to preset parameters, allowing the waste heat steam from the power plant to enter through the steam delivery pipe. This steam is then transported through pipe one to the inner cavity of the cylinder, causing the steam to push the piston plate down the inner wall of the cylinder, moving the striker closer to the sensor. Simultaneously, spring one is compressed, causing the piston plate to slide and pull one end of the steel cable to extend. Guided by two pulleys, the other end of the steel cable pulls the cable winding loop to rotate, causing magnet one to drive the turntable to rotate synchronously. The torsion spring is compressed, causing magnet one on the inner wall of the turntable to move in a circular motion with the turntable. When magnet one and magnet two at the bottom of the grid plate are both S poles, a repulsive force is generated, pushing the grid plate slightly upward along the square groove. This compresses spring two, causing magnet one to move out of the repulsive force range, allowing the grid plate to move under the influence of spring two. The piston plate is reset under the rebound action, causing the next magnet to continue the above process, thus achieving the vibration of the grid plate. Then, when the piston plate slides to the bottom, the striking pin touches the sensor, causing the sensor to send a signal to the time relay. After receiving the signal, the time relay temporarily shuts off the steam delivery of the steam compressor and starts the solenoid valve and the water ring vacuum pump. The water ring vacuum pump draws steam from the inner cavity of the cylinder through the second pipe, causing the piston plate to reset upward under the rebound action of the first spring. This causes the wire rope to change from taut to slack, and the winding loop rotates in the opposite direction under the rebound action of the torsion spring, causing the turntable to reset. The wire rope is then rewound to the outer wall of the winding loop, causing the time relay to start the steam compressor again at a preset interval, repeating the above vibration process, thereby achieving high-frequency cyclic vibration of the grid plate. S3: While the water ring vacuum pump extracts steam from the inner cavity of the cylinder, the steam is transported through pipe three to the inner cavity of the stainless steel coil on the inner wall of the tank. The heat of the steam is conducted to the pipe wall through the high thermal conductivity of the stainless steel coil and dissipated into the inner cavity of the tank. This causes the motor to run continuously, and the conical teeth on the outer wall of the rotating shaft four drive the meshing umbrella teeth to rotate. This, in turn, drives the rotating shaft two and the impeller to rotate in the box to generate directional airflow. Under the convergence and guidance of the conical air guide shroud, the heat dissipated by the coil is directed to the grid plate and the wire reel. At the same time, high-frequency vibration accelerates the evaporation of water vapor on the surface of the wire reel, achieving waste heat drying. S4: Subsequently, during the drying process, the residual heat steam and water mist after heat exchange flow back to the inner cavity of the water tank through pipe four. Because the temperature inside the water tank is lower than the temperature of the steam and water mist, the water mist quickly condenses into liquid water and is stored. The stored water continuously absorbs the temperature of the steam with residual heat discharged from the coil, gradually raising its temperature to form warm water. At this time, water pump one and water pump two are started. Water pump one draws out the warm water from the inner cavity of the water tank through pipe five and transports it to the jacketed tank through pipe six to form a heat insulation layer for the tank body. At the same time, water pump two draws out the warm water from the inner cavity of the jacketed tank through pipe eight and returns it to the tank body through pipe seven to mix with the newly condensed warm water, thereby realizing the circulation of warm water. This maintains the stability of the drying temperature inside the tank body and avoids heat loss that could lead to insufficient drying temperature for the wire coil. S5: Finally, the time relay preset power supply is activated to supply power to the iron core corresponding to the second armature rod, so that the third gear in that group is assimilated with the corresponding third gear and rotates with the fifth shaft. This causes the two sets of electromagnetic coils to mesh and rotate. Through magnetic coupling, the second armature rod rotates, causing the second gear on the outer wall of the second armature rod to drive the meshing first gear and the first armature rod to rotate in the opposite direction. This causes the bidirectional threaded rod to rotate in the opposite direction, causing the guide block to slide along the slide groove in opposite directions. This causes the arc-shaped clamp to disengage from the wire reel, releasing the clamp. Finally, the dried wire reel is taken out.

[0015] The present invention has the following beneficial effects: 1. The device and process for rapidly drying steel wire reels using waste heat from power plants utilize waste heat steam to actuate a piston plate. The piston plate pulls a steel wire rope, which in turn drives a spring and a striker towards an inductor via a pulley. This causes the steel wire rope to rotate, rotating a turntable and simultaneously rotating a magnet. During this process, the repulsion between the like poles of magnets one and two, combined with the rebound effect of spring one, creates a cyclic vibration of the grid plate, rapidly stripping away moisture adhering to the surface of the steel wire reel. This allows the moisture to more easily contact the drying heat for evaporation, thereby improving drying efficiency.

[0016] 2. The device and process for rapidly drying steel wire reels using waste heat from power plants utilize a water ring vacuum pump to extract steam from the inner cavity of a cylindrical cylinder. Simultaneously, this steam is transported via pipe three to the inner cavity of a stainless steel coil on the inner wall of the tank. The heat from the steam is conducted to the pipe wall through the high thermal conductivity of the stainless steel coil and dissipated into the inner cavity of the tank. This allows the motor to run continuously, causing the conical teeth on the outer wall of the rotating shaft four to drive the meshing umbrella-shaped teeth to rotate. This, in turn, drives the rotating shaft two and the impeller to rotate within the box, generating a directional airflow. Under the convergence and guidance of the conical air guide hood, the heat dissipated from the coil is directed to the grid plate and the steel wire reel. Simultaneously, high-frequency vibration accelerates the evaporation of water vapor on the surface of the steel wire reel, achieving waste heat drying, thus realizing energy utilization and reducing costs.

[0017] 3. The device and process for rapidly drying steel wire coils using waste heat from a power plant utilize waste heat steam and water mist after heat exchange, which are returned to the inner cavity of a water tank via pipe four. Because the temperature inside the water tank is lower than the temperature of the steam and water mist, the water mist quickly condenses into liquid water and is stored. The stored water continuously absorbs the temperature of the steam with waste heat discharged from the coil, gradually raising its temperature to form warm water. At this time, water pumps one and two are started. Water pump one extracts the warm water from the inner cavity of the water tank through pipe five and transports it to the jacketed tank through pipe six, forming a heat insulation layer for the tank. At the same time, water pump two extracts the warm water from the inner cavity of the jacketed tank through pipe eight and returns it to the tank through pipe seven to mix with the newly condensed warm water, thereby achieving warm water circulation. This maintains the stability of the drying temperature inside the tank and prevents heat loss that could lead to insufficient drying temperature for the steel wire coils.

[0018] 4. The device and process for rapidly drying steel wire reels using waste heat from power plants utilize a rotating shaft to drive a sprocket to rotate, which in turn drives a chain to rotate. The chain, through a second driving sprocket, drives a rotating shaft, an electromagnetic coil, and an iron core to rotate. This causes the electromagnetic coil to mesh with another set of gears, driving its transmission. Power is supplied to the electromagnetic coil corresponding to the armature rod, causing the electromagnetic coil to assimilate with the iron core, which in turn drives two sets of meshing gears to rotate in opposite directions. Through magnetic coupling and gear transmission, the bidirectional threaded rod moves in opposite directions, enabling the arc-shaped clamp to quickly disengage from the steel wire reel. This facilitates the convenient removal of the dried material, ensuring the continuity and efficiency of the operation process. Attached Figure Description

[0019] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a schematic diagram of the vibration component structure of the present invention; Figure 3 This is a schematic diagram of the slotted component structure of the present invention; Figure 4 This is a schematic diagram of the transmission structure of the present invention; Figure 5 This is a schematic diagram of the drying component structure of the present invention; Figure 6 This is a schematic diagram of the clamping structure of the present invention; Figure 7 This is a schematic diagram of the thermal insulation structure of the present invention; Figure 8 For the present invention Figure 6 Enlarged structural diagram at point A in the middle.

[0020] In the diagram: 1. Pool body; 2. Square trough; 3. Guide trough; 4. Time relay; 5. Water tank; 6. Steam delivery pipe; 7. Steam compressor; 8. Pipe one; 9. Cylinder; 10. Jacketed trough; 11. Slider; 12. Bolt; 13. Grid plate; 14. Placement plate; 15. Slide chute; 16. Vibration assembly; 17. Drying assembly; 18. Insulation assembly; 19. Clamping assembly; 20. Isolation box; 21. Spring two; 22. Pulley; 161. Annular gasket; 162. Piston plate; 163. Strike pin; 164. Spring 1; 165. Transmission component; 166. Sensor; 1651. Shaft 1; 1652. Torsion spring; 1653. Rope winding loop; 1654. Turntable; 1655. Wire rope; 1656. Magnet 1; 1657. Magnet 2; 171. Pipeline 2; 172. Solenoid valve; 173. Water ring vacuum pump; 174. Pipeline 3; 175. Coil; 176. Pipeline 4; 177. Air guide component; 1771. Air guide shroud; 1772. Box body; 1773. Shaft 2; 1774. Impeller; 1775. Umbrella gear; 1776. Motor; 1777. Coupling; 1778. Shaft 4; 1779. Conical gear; 181. Pipeline 5; 182. Pump 1; 183. Pipeline 6; 184. Pipeline 7; 185. Pump 2; 186. Pipeline 8; 191. Sprocket 1; 192. Chain; 193. Armature rod 1; 194. Double-threaded rod; 195. Guide block; 196. Arc-shaped clamp; 197. Rotating component; 1971. Gear 1; 1972. Armature rod 2; 1973. Gear 2; 1974. Connecting rod; 1975. Shaft 5; 1976. Sprocket 2; 1977. Gear 3; 1978. Iron core; 1979. Electromagnetic coil. Detailed Implementation

[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0022] Please see Figure 1 - Figure 8 The device for rapidly drying steel wire reels using waste heat from a power plant includes a tank 1. The inner wall of the tank 1 has square grooves 2, guide grooves 3, and interlayer grooves 10. A time relay 4, a water tank 5, and a cylinder 9 are installed on the side walls of the tank 1. A steam compressor 7 is installed on the outer wall of the tank 1 away from the time relay 4. A steam delivery pipe 6 is provided on the outer wall of the steam compressor 7. A pipe 8 is provided at the end of the steam compressor 7 away from the steam delivery pipe 6. A slider 11 is slidably connected to the inner wall of the guide groove 3. Bolts 12 are provided on the side wall of the square groove 2. A grid plate 13 is slidably connected to the inner wall of the square groove 2. A placement plate 14 is fixedly installed on the top of the grid plate 13. A sliding groove 15 is opened on the top of the placement plate 14. A vibration component 16 and a drying component 17 are respectively provided in the inner cavity of the pool body 1. A heat preservation component 18 is provided on the side wall of the pool body 1. A clamping component 19 is provided on the top of the pool body 1. An isolation box 20 is installed on the inner wall of the pool body 1. A pulley 22 is provided on the side wall of the pool body 1. A spring 21 is provided on the top of the grid plate 13. In the above structure, by pre-setting the start and stop sequence of the steam compressor 7 through the time relay 4, when the factory steam is transmitted to the inner cavity of the tank 1 through the steam delivery pipe 6 and the pipeline 8, the vibration component 16 will use the steam to vibrate the grid plate 13 and the placement plate 14. Then, the vibration component 16 will work in conjunction with the drying component 17 to convert the steam into hot air to dry the wire reel. At the same time, through the cooperation of the drying component 17 and the heat preservation component 18, the temperature of the hot air generated by the steam inside the tank 1 will be maintained efficiently. In addition, through the cooperation of the drying component 17 and the clamping component 19, the wire reel on the top of the placement plate 14 will be fixed so that it will not shift during vibration drying, thereby improving the drying efficiency.

[0023] In a preferred embodiment: the vibration assembly 16 includes an annular gasket 161, a piston plate 162 is provided at the bottom of the annular gasket 161, a striker 163 is fixedly installed at the bottom of the piston plate 162, a spring 164 and a sensor 166 are respectively provided at the bottom of the piston plate 162, a transmission component 165 is provided at the top of the piston plate 162, the transmission component 165 includes a rotating shaft 1651 and a magnet 1657, a torsion spring 1652 is provided on the outer wall of the rotating shaft 1651, a turntable 1654 is rotatably sleeved on the outer wall of the rotating shaft 1651, a rope take-up sleeve 1653 is fixedly installed on the outer wall of the turntable 1654, a steel wire rope 1655 is provided on the outer wall of the rope take-up sleeve 1653, and a magnet 1656 is embedded in the outer wall of the turntable 1654; In a preferred embodiment: the annular gasket 161 is fixedly installed on the inner wall of the cylinder 9; the outer wall of the piston plate 162 is slidably fitted against the inner wall of the cylinder 9; the spring 164 is located at the bottom of the piston plate 162, with one end of the spring 164 overlapping the bottom of the piston plate 162 and the other end overlapping the inner wall of the cylinder 9; the sensor 166 is located at the bottom of the firing pin 163 and is electrically connected to the time relay 4; the rotating shaft 1651 is fixedly installed on the side wall of the slider 11; one end of the torsion spring 1652 is attached to the outer wall of the rotating shaft 1651. The two magnets are engaged, and the other end of the torsion spring 1652 is engaged with the outer wall of the rope-retracting sleeve 1653. The second magnet 1657 is embedded in the bottom of the grid plate 13. There are several magnets 1656, and the several magnets 1656 are arranged in a circular array. The un-embedded sides of magnets 1656 and magnets 1657 are the S poles. One end of the wire rope 1655 is wound around the outer wall of the rope-retracting sleeve 1653, and the other end of the wire rope 1655 passes through the inner wall of the isolation box 20, the pool body 1 and the cylinder 9 and connects to the top of the piston plate 162. The transmission component 165 is located in the inner cavity of the pool body 1. In the above structure, when the time relay 4 controls the steam compressor 7 to deliver steam from the factory through the steam delivery pipe 6 to the inner cavity of the cylinder 9 via the pipe 8, the steam will push the piston plate 162 to slide along the inner wall of the cylinder 9. This will cause the striker 163 to move closer to the sensor 166 and compress the spring 164 at the bottom. The sliding piston plate 162 will then cause one end of the steel wire rope 1655 to extend, and the other end of the steel wire rope 1655 will pull the rope take-up sleeve 1653 to rotate. Since the rope take-up sleeve 1653 is installed on the outer wall of the turntable 1654, its rotation will cause the turntable 1654 to rotate synchronously. At the same time, the rope take-up sleeve 1653 will rotate synchronously. 53 When rotating, it also causes its torsion spring 1652 to twist and contract. Because several magnets 1656 are embedded in the outer wall of the turntable 1654, the magnets 1656 rotate synchronously with the turntable 1654. Since the magnets 1657 at the bottom of the grid plate 13 and the unembedded side of the magnets 1656 are both S poles, the magnets 1656 will approach the unembedded side of the magnets 1657 during their circular motion. The repulsive force between them will push the grid plate 13 to move slightly upward along the inner wall of the square groove 2. This will compress the four springs 21 at the top of the grid plate 13. When magnet 1656 is separated from the magnetic field and repelled, the grid plate 13 is reset by the spring 21, causing the next magnet 1656 to repeat the above movement with the circular motion of the turntable 1654, thereby realizing the vibration of the grid plate 13. At the same time, when the striker 163 contacts the sensor 166, the sensor 166 triggers the piston plate 162 to reach the bottom, causing the sensor 166 to send a signal to the time relay 4, causing the time relay 4 to temporarily shut off the steam delivery of the steam compressor 7. At this time, the time relay 4 will send a start signal to the solenoid valve 172 and the water ring vacuum pump 173 again, causing the pipe 2 171 to release the steam from the inner cavity of the cylinder 9. When the steam is drawn away, the piston plate 162 will be reset by the rebound of the spring 164 and drive the wire rope 1655 from a taut state to a slack state. The winding sleeve 1653 will rotate in the opposite direction by the torsion of the torsion spring 1652, causing the wire rope 1655 to contract and wrap around the outer wall of the winding sleeve 1653. At the same time, when the wire rope 1655 is pulled, the two pulleys 22 set at the corner of the wire rope 1655 will reduce the friction between the wire rope 1655 and the cylinder 9 and the pool body 1, making the pulling smoother. Secondly, through the time relay 4, the above-mentioned motion can be realized, thereby realizing the high-frequency vibration of the grid plate 13.

[0024] In a preferred embodiment: the drying assembly 17 includes a water ring vacuum pump 173 and a coil 175. A second pipe 171 is provided on the outer wall of the water ring vacuum pump 173, and a solenoid valve 172 is provided on the outer wall of the second pipe 171. A third pipe 174 is provided on the outer wall of the water ring vacuum pump 173 away from the second pipe 171. A fourth pipe 176 is provided on the outer wall of the coil 175. An air guide 177 is provided at the top of the coil 175, and the air guide 177 includes an air guide shroud 1771 and a motor 1. 776, A box 1772 is fixedly installed on the inner wall of the air guide shroud 1771. A rotating shaft 1773 is rotatably connected to the inner wall of the box 1772. An impeller 1774 is fixedly sleeved on the outer wall of the rotating shaft 1773. A bevel gear 1775 is fixedly sleeved on the top of the rotating shaft 1773. A coupling 1777 is fixedly sleeved on the outer edge of the output shaft of the motor 1776. A rotating shaft 1778 is fixedly sleeved on the inner wall of the coupling 1777. A conical gear 1779 is fixedly sleeved on the outer wall of the rotating shaft 1778. In a preferred embodiment: the water ring vacuum pump 173 and the motor 1776 are respectively fixedly installed on both sides of the outer wall of the pool body 1; one end of pipe two 171 is connected to the air outlet of the cylinder 9, and the other end of pipe two 171 is connected to the air inlet of the water ring vacuum pump 173; one end of pipe three 174 is connected to the air outlet of the water ring vacuum pump 173, and the other end of pipe three 174 passes through the inner wall of the pool body 1 and is connected to the air inlet of the coil 175. One end of pipe 176 is connected to the air outlet of coil 175, and the other end of pipe 176 is connected to the air inlet of water tank 5. The cross-sectional shape of air guide shroud 1771 is conical, and the opening of the smaller diameter end of air guide shroud 1771 is located at the top of coil 175, and the opening of the larger diameter end of air guide shroud 1771 is located at the bottom of grid plate 13. The outer edge of conical tooth 1779 meshes with the outer edge of umbrella tooth 1775. Coil 175 is made of stainless steel. In the above structure, the solenoid valve 172 is opened by the time relay 4, causing the water ring vacuum pump 173 to start and extract the steam from the inner cavity of the cylinder 9 through the second pipe 171. The steam is then transported through the third pipe 174 to the coil 175 installed in the inner cavity of the pool body 1. Since the coil 175 is made of stainless steel, the heat of the steam in the inner cavity of the coil 175 is conducted to the wall of the coil 175 through the conductivity of the stainless steel, thus dissipating the heat from the inner cavity of the coil 175 and conducting it to the inner cavity of the pool body 1. At this time, the motor 1 is started. 776 drives the fourth shaft 1778 to rotate via the coupling 1777, causing the conical teeth 1779 to drive the meshing umbrella teeth 1775 to rotate, which in turn drives the second shaft 1773 and the impeller 1774 to rotate within the housing 1772 to generate directional airflow. Combined with the flow-gathering and guiding effect of the conical air guide shroud 1771, the heat emitted by the coil 175 is directed to the grid plate 13 and the wire reel on the top of the placement plate 14, thereby realizing its heat utilization. At the same time, the waste heat steam and water mist after heat exchange are returned to the water tank 5 via the fourth pipe 176 for utilization in the next work station.

[0025] In a preferred embodiment: the heat insulation component 18 includes a pipe 181, a water pump 182 and a water pump 2 185 are respectively installed on the side wall of the pool body 1, a pipe 6 183 is provided on the outer wall of the water pump 182, a pipe 7 184 is provided on the outer wall of the water pump 2 185, and a pipe 8 186 is provided at the end of the water pump 2 185 away from the pipe 7 184. In a preferred embodiment: one end of pipe five 181 is connected to the outlet of water tank 5, and the other end of pipe five 181 is connected to the inlet of water pump one 182; one end of pipe six 183 is connected to the outlet of water pump one 182, and the other end of pipe six 183 passes through the inner wall of pool 1 and is connected to the inlet of interlayer trough 10; one end of pipe seven 184 is connected to the inlet of water tank 5, and the other end of pipe seven 184 is connected to the outlet of water pump two 185; one end of pipe eight 186 passes through the inner wall of pool 1 and is connected to the outlet of interlayer trough 10, and the other end of pipe eight 186 is connected to the inlet of water pump two 185. In the above structure, when the residual heat steam mist is transported back to the inner cavity of the water tank 5 through pipe 4 176, the water mist condenses into water and is stored in the inner cavity of the water tank 5. The water in the inner cavity of the water tank 5 gradually heats up under the continuous transport of residual heat steam. Then, by starting water pump 182, water pump 182 draws out the heated water through pipe 5 181 and transports it to the jacketed tank 10 through pipe 6 183. This utilizes the residual heat of the warm water to keep the tank 1 warm, further improving energy utilization efficiency and preventing the temperature of the heat energy exchanged by the transmission component 165 from dropping, thus ensuring the temperature of the hot air. At the same time, by starting water pump 2 185, water pump 2 185 draws out the warm water in the inner cavity of the jacketed tank 10 through pipe 8 186 and returns it to the inner cavity of the water tank 5 through pipe 7 184 to mix with the new warm water, thereby achieving its heat preservation efficiency.

[0026] In a preferred embodiment: the clamping assembly 19 includes a sprocket 191, a chain 192 is provided on the outer wall of the sprocket 191, an armature rod 193 is rotatably connected to the outer wall of the slide groove 15, a bidirectional threaded rod 194 is fixedly installed on the outer wall of the armature rod 193, a guide block 195 is threadedly connected to the outer wall of the bidirectional threaded rod 194, an arc-shaped clamping plate 196 is installed on the top of the guide block 195, and a rotating component 197 is provided on the outer wall of the armature rod 193, the rotating component 197 including a connecting rod 197. 4. An armature rod 1972 and an armature rod 193 are fixedly sleeved with a gear 1971 on their outer wall. An armature rod 1972 is fixedly sleeved with a gear 1973 on its outer wall. A shaft 1975 is rotatably connected to the outer wall of a connecting rod 1974. A sprocket 1976 is fixedly sleeved on the outer wall of a shaft 1975. A gear 1977 and an iron core 1978 are respectively provided on the inner wall of a shaft 1975. An electromagnetic coil 1979 is fixedly sleeved at the end of a shaft 1975 away from a sprocket 1976. In a preferred embodiment: the connecting rod 1974 is fixedly installed on the side wall of the pool body 1; the first sprocket 191 is fixedly sleeved on the outer wall of the fourth shaft 1778; one end of the chain 192 meshes with the outer edge of the first sprocket 191, and the other end of the chain 192 meshes with the outer edge of the second sprocket 1976; the guide block 195 and the arc-shaped clamp 196 are considered as a set of movable components, and there are two sets of such movable components, respectively arranged at both ends of the outer wall of the bidirectional threaded rod 194; the outer walls of the two guide blocks 195 are slidably fitted against the inner wall of the slide groove 15; the third gear 1977 is close to the second sprocket 1976. One end corresponds to the outer wall of armature rod 193. The five rotating shafts 1975, gear 1977, iron core 1978 and electromagnetic coil 1979 are regarded as a set of movable components, and there are two sets of such movable components, which are arranged in parallel on the outer wall of connecting rod 1974. The other movable component of the five rotating shafts 1975, gear 1977, iron core 1978 and electromagnetic coil 1979 is arranged corresponding to armature rod 1972. The outer edge of gear 1977 meshes with the outer edge of another gear 1977, and the outer edge of gear 1973 meshes with the outer edge of gear 1971. In the above structure, sprocket 191 is fixedly sleeved on the outer wall of shaft 1778, causing it to rotate synchronously with shaft 1778. This allows one end of chain 192 to mesh with the outer edge of sprocket 191, and the other end to mesh with the outer edge of sprocket 1976 in rotating component 197, thus achieving power transmission. This allows the chain to supply power to the two iron cores 1978 via a preset power source, controlling the duration and sequence of power supply. When power is supplied to the iron core 1978 corresponding to armature rod 193, the iron core 1978 generates a magnetic field under the transmission of current, causing the magnetic field to assimilate the... Gear 3 1977, corresponding to armature rod 1 193, rotates synchronously with shaft 5 1975. This causes armature rod 1 193 to rotate synchronously with gear 3 1977 through magnetic coupling. Consequently, the bidirectional threaded rod 194, rotating with armature rod 1 193, causes guide blocks 195 at both ends to slide relative to each other along the inner wall of the groove 15. This, in turn, causes the two arc-shaped clamping plates 196 to move closer to the outer wall of the wire reel, thus clamping it and placing the plate 14. When the wire reel vibrates, it prevents the reel from shifting position. Simultaneously, when the clamping needs to be released, it cuts off the current supply to the iron core 1978 corresponding to armature rod 193, and initiates current output to the iron core 1978 corresponding to armature rod 1972. This causes the rotating shaft 1975 to rotate synchronously through its electromagnetic coil 1979. Because the outer edges of the two sets of electromagnetic coils 1979 mesh, they drive the other set of electromagnetic coils 1979 to rotate, thus causing gear 1977... During the rotation, the same operation described above drives the second armature rod 1972 to rotate. Since the second armature rod 1972 meshes with the outer edge of the first gear 1971, the rotating second armature rod 1972 drives the first gear 1971 to reverse. The reversed armature rod 193 then drives the bidirectional threaded rod 194 to rotate in the opposite direction. This causes the two guide blocks 195 to slide backward along the inner wall of the slide groove 15 through their reverse transmission, thereby causing the two arc-shaped clamps 196 to disengage from the wire reel.

[0027] The process of using waste heat from power plants to rapidly dry steel wire reels includes the following steps: S1: First, place the wire reel to be dried between the two sets of arc-shaped clamps 196 on the placement plate 14. The electromagnetic coils 1979 in the two sets are started and stopped by the external control module. When the electromagnetic coil 1979 corresponding to the armature rod 193 is energized, it generates magnetic force, which assimilates the iron core 1978. Then, the motor 1776 is started, causing the motor 1776 to drive the rotating shaft 1778 through the coupling 1777. The rotating shaft 1778 then drives the sprocket 191 to rotate, causing the rotating sprocket 191 to move through its chain... The first sprocket 192 drives the second sprocket 1976 to rotate, causing the first armature rod 193 and the third gear 1977 to rotate synchronously through magnetic coupling. This causes the bidirectional threaded rod 194 to slide relative to the guide blocks 195 at both ends along the inner wall of the slide groove 15 as the first armature rod 193 rotates. This causes the two arc-shaped clamping plates 196 to move closer to the outer wall of the wire reel, thereby clamping it and preventing the wire reel from shifting position when the placement plate 14 causes the wire reel to vibrate. S2: Next, time relay 4 starts steam compressor 7 according to preset parameters, so that the waste heat steam from the power plant enters through steam delivery pipe 6 and is transported to the inner cavity of cylinder 9 through pipe 8. This causes the steam to push piston plate 162 to slide down the inner wall of cylinder 9, driving the striker 163 to move closer to sensor 166. At the same time, spring 164 is compressed, so that during the sliding of piston plate 162, one end of steel wire rope 1655 is extended. Under the guidance of two pulleys 22, the other end of steel wire rope 1655 is pulled... The rotating loop 1653 causes its magnet 1656 to drive the turntable 1654 to rotate synchronously. The torsion spring 1652 is twisted, causing the magnet 1656 on the inner wall of the turntable 1654 to move in a circular motion with the turntable 1654. When the magnet 1656 and the magnet 1657 at the bottom of the grid plate 13 are both S poles, a repulsive force is generated, pushing the grid plate 13 to move slightly upward along the square groove 2, causing the grid plate 13 to compress the spring 21. When the magnet 1656 and the magnet 1657 are out of the repulsive force range, the grid plate 1654... 3. Under the rebound action of spring 21, the plate is reset, causing the next magnet 1656 to continue the above process, realizing the vibration of the grid plate 13. Then, when the piston plate 162 slides to the bottom, the striker 163 touches the sensor 166, causing the sensor 166 to send a signal to the time relay 4. After receiving the signal, the time relay 4 temporarily shuts off the steam delivery of the steam compressor 7, and at the same time starts the solenoid valve 172 and the water ring vacuum pump 173, so that the water ring vacuum pump 173 passes through pipe 21. 71. Steam is drawn from the inner cavity of the cylinder 9, causing the piston plate 162 to return to its original position under the action of the spring 164. This causes the wire rope 1655 to change from taut to slack, causing the winding sleeve 1653 to rotate in the opposite direction under the action of the torsion spring 1652. This causes the turntable 1654 to return to its original position, causing the wire rope 1655 to rewind to the outer wall of the winding sleeve 1653. This causes the time relay 4 to restart the steam compressor 7 at a preset interval, repeating the above vibration process, thereby achieving high-frequency cyclic vibration of the grid plate 13. S3: While the water ring vacuum pump 173 extracts steam from the inner cavity of the cylinder 9, the steam is transported through pipe 3 174 to the inner cavity of the stainless steel coil 175 on the inner wall of the pool body 1. The heat of the steam is conducted to the pipe wall through the high thermal conductivity of the stainless steel coil 175 and dissipated into the inner cavity of the pool body 1, so that the motor 1776 runs continuously. The conical teeth 1779 on the outer wall of the rotating shaft 4 1778 drive the meshing umbrella teeth 1775 to rotate, which in turn drives the rotating shaft 2 1773 and the impeller 1774 to rotate in the box 1772 to generate directional airflow. Under the convergence and guidance of the conical air guide shroud 1771, the heat dissipated by the coil 175 is directed to the grid plate 13 and the wire reel. At the same time, the high-frequency vibration accelerates the evaporation of water vapor on the surface of the wire reel, realizing the waste heat drying. S4: Subsequently, during the drying process, the residual heat steam and water mist after heat exchange flow back to the inner cavity of the water tank 5 through pipe 176. Because the temperature inside the water tank 5 is lower than the temperature of the steam and water mist, the water mist quickly condenses into liquid water and is stored. The stored water continuously absorbs the temperature of the steam with residual heat discharged from the coil 175, causing it to gradually heat up and form warm water. At this time, water pump 182 and water pump 285 are started. Water pump 182 draws out the warm water from the inner cavity of the water tank 5 through pipe 181 and transports it to the jacketed tank 10 through pipe 183 to form a heat insulation layer for the tank body 1. At the same time, water pump 2185 draws out the warm water from the inner cavity of the jacketed tank 10 through pipe 186 and returns it to the tank body 1 through pipe 184 to mix with the newly condensed warm water, thereby realizing the circulation of warm water. This maintains the drying temperature stability of the inner cavity of the tank body 1, thereby avoiding heat loss and insufficient drying temperature for the wire coil. S5: Finally, the time relay 4 is activated by a preset power supply, which supplies power to the iron core 1978 corresponding to the armature rod 2 1972. This causes the gear 3 1977 in that set to assimilate with the corresponding gear 3 1977. As the shaft 5 1975 rotates, the two sets of electromagnetic coils 1979 mesh and rotate with each other. Through magnetic coupling, the armature rod 2 1972 is driven to rotate. The gear 2 1973 on the outer wall of the armature rod 2 1972 drives the meshing gear 1 1971 and the armature rod 1 193 to rotate in the opposite direction. This causes the bidirectional threaded rod 194 to rotate in the opposite direction, causing the guide block 195 to slide in opposite directions along the slide groove 15. This causes the arc-shaped clamp 196 to disengage from the wire reel, releasing the clamp. Finally, the dried wire reel is taken out.

[0028] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0029] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A device for rapidly drying steel wire reels using waste heat from a power plant, comprising a tank (1), characterized in that: The inner wall of the pool body (1) is provided with a square groove (2), a guide groove (3) and a sandwich groove (10). The side wall of the pool body (1) is provided with a time relay (4), a water tank (5) and a cylinder (9). A steam compressor (7) is installed on the outer wall of the pool body (1) away from the time relay (4). A steam delivery pipe (6) is provided on the outer wall of the steam compressor (7). A pipe (8) is provided at one end of the steam compressor (7) away from the steam delivery pipe (6). A slider (11) is slidably connected to the inner wall of the guide groove (3). Bolts (12) are provided on the side wall of the pool body (1). A grid plate (13) is slidably connected to the inner wall of the square groove (2). A placement plate (14) is fixedly installed on the top of the grid plate (13). A sliding groove (15) is opened on the top of the placement plate (14). A vibration component (16) and a drying component (17) are respectively provided in the inner cavity of the pool body (1). A heat preservation component (18) is provided on the side wall of the pool body (1). A clamping component (19) is provided on the top of the pool body (1). An isolation box (20) is installed on the inner wall of the pool body (1). A pulley (22) is provided on the side wall of the pool body (1). A spring (21) is provided on the top of the grid plate (13).

2. The device for rapidly drying steel wire reels using waste heat from power plants according to claim 1, characterized in that: The vibration assembly (16) includes an annular gasket (161), a piston plate (162) is provided at the bottom of the annular gasket (161), a striker (163) is fixedly installed at the bottom of the piston plate (162), a spring (164) and a sensor (166) are respectively provided at the bottom of the piston plate (162), a transmission component (165) is provided at the top of the piston plate (162), the transmission component (165) includes a rotating shaft (1651) and a magnet (1657), a torsion spring (1652) is provided on the outer wall of the rotating shaft (1651), a turntable (1654) is rotatably sleeved on the outer wall of the rotating shaft (1651), a rope take-up sleeve (1653) is fixedly installed on the outer wall of the turntable (1654), a steel wire rope (1655) is provided on the outer wall of the rope take-up sleeve (1653), and a magnet (1656) is embedded in the outer wall of the turntable (1654).

3. The device for rapidly drying steel wire reels using waste heat from power plants according to claim 2, characterized in that: The annular gasket (161) is fixedly installed on the inner wall of the cylinder (9). The outer wall of the piston plate (162) is slidably fitted against the inner wall of the cylinder (9). The first spring (164) is located at the bottom of the piston plate (162), with one end of the first spring (164) overlapping the bottom of the piston plate (162) and the other end of the first spring (164) overlapping the inner wall of the cylinder (9). The sensor (166) is located at the bottom of the firing pin (163) and is electrically connected to the time relay (4). The first rotating shaft (1651) is fixedly installed on the side wall of the slider (11), and one end of the torsion spring (1652) is engaged with the outer wall of the first rotating shaft (1651). The other end of the torsion spring (1652) is engaged with the outer wall of the rope take-up sleeve (1653). The second magnet (1657) is embedded in the bottom of the grid plate (13). There are several first magnets (1656), and several first magnets (1656) are arranged in a circular array. The unembedded sides of the first magnet (1656) and the second magnet (1657) are S poles respectively. One end of the wire rope (1655) is wound around the outer wall of the rope take-up sleeve (1653), and the other end of the wire rope (1655) passes through the inner wall of the isolation box (20), the pool body (1) and the cylinder (9) and is connected to the top of the piston plate (162). The transmission component (165) is located in the inner cavity of the pool body (1).

4. The device for rapidly drying steel wire reels using waste heat from power plants according to claim 1, characterized in that: The drying assembly (17) includes a water ring vacuum pump (173) and a coil (175). The outer wall of the water ring vacuum pump (173) is provided with a second pipe (171), and the outer wall of the second pipe (171) is provided with a solenoid valve (172). The outer wall of the water ring vacuum pump (173) away from the second pipe (171) is provided with a third pipe (174). The outer wall of the coil (175) is provided with a fourth pipe (176). The top of the coil (175) is provided with an air guide (177), which includes an air guide shroud (1771) and a motor (1776). The inner wall of the air guide shroud (1771) is fixedly installed with a box body (1772), the inner wall of the box body (1772) is rotatably connected with a second rotating shaft (1773), the outer wall of the second rotating shaft (1773) is fixedly sleeved with an impeller (1774), the top of the second rotating shaft (1773) is fixedly sleeved with an umbrella-shaped tooth (1775), the outer edge of the output shaft of the motor (1776) is fixedly sleeved with a coupling (1777), the inner wall of the coupling (1777) is fixedly sleeved with a fourth rotating shaft (1778), and the outer wall of the fourth rotating shaft (1778) is fixedly sleeved with a conical tooth (1779).

5. The apparatus for rapidly drying steel wire reels using waste heat from power plants according to claim 4, characterized in that: The water ring vacuum pump (173) and motor (1776) are respectively fixedly installed on both sides of the outer wall of the pool body (1). One end of the second pipe (171) is connected to the air outlet of the cylinder (9), and the other end of the second pipe (171) is connected to the air inlet of the water ring vacuum pump (173). One end of the third pipe (174) is connected to the air outlet of the water ring vacuum pump (173), and the other end of the third pipe (174) passes through the inner wall of the pool body (1) and is connected to the air inlet of the coil (175). The fourth pipe (176) One end of the pipe (176) is connected to the air outlet of the coil (175), and the other end of the pipe (176) is connected to the air inlet of the water tank (5). The cross-sectional shape of the air guide hood (1771) is conical, and the smaller diameter opening of the air guide hood (1771) is located at the top of the coil (175). The larger diameter opening of the air guide hood (1771) is located at the bottom of the grid plate (13). The outer edge of the conical tooth (1779) meshes with the outer edge of the umbrella tooth (1775). The coil (175) is made of stainless steel.

6. The apparatus for rapidly drying steel wire reels using waste heat from power plants according to claim 1, characterized in that: The heat insulation component (18) includes pipe five (181), water pump one (182) and water pump two (185) are respectively installed on the side wall of the pool body (1), water pump one (182) is provided with pipe six (183) on the outer wall of water pump one (182), water pump two (185) is provided with pipe seven (184) on the outer wall of water pump two (185), and water pump two (185) is provided with pipe eight (186) at the end away from water pump two (185) from water pump seven (184).

7. The apparatus for rapidly drying steel wire reels using waste heat from power plants according to claim 6, characterized in that: One end of pipe five (181) is connected to the outlet of water tank (5), and the other end of pipe five (181) is connected to the inlet of water pump one (182). One end of pipe six (183) is connected to the outlet of water pump one (182), and the other end of pipe six (183) passes through the inner wall of pool body (1) and is connected to the inlet of interlayer trough (10). One end of pipe seven (184) is connected to the inlet of water tank (5), and the other end of pipe seven (184) is connected to the outlet of water pump two (185). One end of pipe eight (186) passes through the inner wall of pool body (1) and is connected to the outlet of interlayer trough (10), and the other end of pipe eight (186) is connected to the inlet of water pump two (185).

8. The apparatus for rapidly drying steel wire reels using waste heat from power plants according to claim 1, characterized in that: The clamping assembly (19) includes a sprocket (191), the outer wall of which is provided with a chain (192). The outer wall of the slide groove (15) is rotatably connected to an armature rod (193). The outer wall of the armature rod (193) is fixedly installed with a double-threaded rod (194). The outer wall of the double-threaded rod (194) is threadedly connected to a guide block (195). The top of the guide block (195) is equipped with an arc-shaped clamping plate (196). The outer wall of the armature rod (193) is provided with a rotating component (197). The rotating component (197) includes a connecting rod (1974) and an armature rod. Iron rod two (1972), gear one (1971) is fixedly sleeved on the outer wall of armature rod one (193), gear two (1973) is fixedly sleeved on the outer wall of armature rod two (1972), shaft five (1975) is rotatably connected to the outer wall of connecting rod (1974), sprocket two (1976) is fixedly sleeved on the outer wall of shaft five (1975), gear three (1977) and iron core (1978) are respectively provided on the inner wall of shaft five (1975), and an electromagnetic coil (1979) is fixedly sleeved on the end of shaft five (1975) away from sprocket two (1976).

9. The apparatus for rapidly drying steel wire reels using waste heat from power plants according to claim 8, characterized in that: The connecting rod (1974) is fixedly installed on the side wall of the pool body (1). The first sprocket (191) is fixedly sleeved on the outer wall of the fourth shaft (1778). One end of the chain (192) meshes with the outer edge of the first sprocket (191), and the other end of the chain (192) meshes with the outer edge of the second sprocket (1976). The guide block (195) and the arc-shaped clamp (196) are considered as a set of movable components, and there are two sets of such movable components, which are respectively set at both ends of the outer wall of the bidirectional threaded rod (194). The outer walls of the two guide blocks (195) are slidably fitted against the inner wall of the slide groove (15). The end of the third gear (1977) near the second sprocket (1976) is connected to the armature. Corresponding to the outer wall of rod one (193), the five rotating shafts (1975), gear three (1977), iron core (1978) and electromagnetic coil (1979) are considered as a set of movable components, and there are two sets of such movable components, which are arranged parallel to each other on the outer wall of the connecting rod (1974). The other movable component of the five rotating shafts (1975), gear three (1977), iron core (1978) and electromagnetic coil (1979) is arranged corresponding to armature rod two (1972). The outer edge of gear three (1977) meshes with the outer edge of the other gear three (1977), and the outer edge of gear two (1973) meshes with the outer edge of gear one (1971).

10. The process of a device for rapidly drying steel wire reels using waste heat from power plants, characterized in that: Includes the following steps: S1: First, place the wire coil to be dried between the two sets of arc-shaped clamps (196) on the placement plate (14). Start and stop the electromagnetic coils (1979) in the two sets of external control modules. When the electromagnetic coil (1979) corresponding to the armature rod (193) is energized, it will generate magnetic force, which will assimilate the iron core (1978). Then start the motor (1776), which will drive the shaft (1778) to rotate through the coupling (1777). The shaft (1778) will drive the sprocket (191) to rotate, and the rotating sprocket (191) will pass through the shaft (193) to rotate. Its chain (192) drives the second sprocket (1976) to rotate, so that its first armature rod (193) and the third gear (1977) are magnetically coupled to drive its first armature rod (193) to rotate synchronously. This causes the bidirectional threaded rod (194) to drive the guide blocks (195) set at both ends to slide relative to each other along the inner wall of the slide groove (15) as the first armature rod (193) rotates. This causes its two arc-shaped clamps (196) to move closer to the outer wall of the wire reel, thereby clamping it. This prevents the wire reel from shifting position when the placement plate (14) causes the wire reel to vibrate. S2: Next, the time relay (4) starts the steam compressor (7) according to the preset parameters, so that the waste heat steam of the power plant enters through the steam delivery pipe (6) and is delivered to the inner cavity of the cylinder (9) through the pipe (8). This causes the steam to push the piston plate (162) to slide down along the inner wall of the cylinder (9), driving the striker (163) to move closer to the sensor (166). At the same time, the spring (164) is compressed, so that the piston plate (162) pulls one end of the wire rope (1655) during the sliding process, and the other end of the wire rope (1655) is pulled by the two pulleys (22). The rotating loop (1653) causes its magnet (1656) to drive the turntable (1654) to rotate synchronously. The torsion spring (1652) is twisted, causing the magnet (1656) on the inner wall of the turntable (1654) to make circular motion with the turntable (1654). When it gets close to the S pole of the magnet (1657) at the bottom of the grid plate (13), a repulsive force is generated, pushing the grid plate (13) to move slightly upward along the square groove (2), causing the grid plate (13) to compress the spring (21). When the magnet (1656) and the magnet (1657) are out of the repulsive force range, the grid... The plate (13) is reset by the rebound action of the second spring (21), causing the next magnet (1656) to continue repeating the above process, realizing the vibration of the grid plate (13). Then, when the piston plate (162) slides to the bottom, the striker (163) touches the sensor (166), causing the sensor (166) to send a signal to the time relay (4). After receiving the signal, the time relay (4) temporarily shuts off the steam delivery of the steam compressor (7) and starts the solenoid valve (172) and the water ring vacuum pump (173), causing the water ring vacuum pump (173) to pass through the pipeline. The second (171) extracts steam from the inner cavity of the cylinder (9), causing the piston plate (162) to return to its original position under the rebound action of the spring (164), which drives the wire rope (1655) to change from tension to relaxation, causing the rope take-up sleeve (1653) to rotate in the opposite direction under the rebound action of the torsion spring (1652), which drives the turntable (1654) to return to its original position, causing the wire rope (1655) to rewind to the outer wall of the rope take-up sleeve (1653), causing the time relay (4) to start the steam compressor (7) again at the preset interval, repeating the above vibration process, thereby realizing the high-frequency cyclic vibration of the grid plate (13); S3: While the water ring vacuum pump (173) extracts steam from the inner cavity of the cylinder (9), the steam is transported through pipe three (174) to the inner cavity of the stainless steel coil (175) on the inner wall of the pool body (1). The steam heat is conducted to the pipe wall through the high thermal conductivity of the stainless steel coil (175) and dissipated into the inner cavity of the pool body (1), so that the motor (1776) runs continuously. The conical teeth (1779) on the outer wall of the rotating shaft four (1778) drive the meshing umbrella teeth (1775) to rotate, thereby driving the rotating shaft two (1773) and the impeller (1774) to rotate in the box (1772) to generate directional airflow. Under the convergence and guidance of the conical air guide hood (1771), the airflow guides the heat dissipated by the coil (175) to the grid plate (13) and the wire disc. At the same time, the high frequency vibration accelerates the evaporation of water vapor on the surface of the wire disc to achieve residual heat drying. S4: Subsequently, during the drying process, the residual heat steam and water mist after heat exchange flow back to the inner cavity of the water tank (5) through pipe four (176). Because the temperature inside the water tank (5) is lower than the temperature of the steam and water mist, the water mist quickly condenses into liquid water and is stored. The stored water continuously absorbs the temperature of the residual heat steam discharged from the coil (175), causing it to gradually heat up and form warm water. At this time, water pump one (182) and water pump two (185) are started, so that water pump one (182) pumps water through pipe five (181). The warm water inside the pool (5) is extracted and transported to the jacketed tank (10) through pipe six (183) to form a heat insulation layer for the pool body (1). At the same time, water pump two (185) extracts the warm water inside the jacketed tank (10) through pipe eight (186) and returns it to the pool body (1) through pipe seven (184) to mix with the newly condensed warm water, thereby realizing the circulation of warm water. This achieves the stability of the drying temperature inside the pool body (1) and avoids heat loss that would cause insufficient drying temperature for the steel wire disc. S5: Finally, the time relay (4) is activated to supply power to the iron core (1978) corresponding to the armature rod (2) (1972), so that the gear (3) of that group (1977) is assimilated with the corresponding gear (3) (1977), and rotates with the shaft (5) (1975), so that the two sets of electromagnetic coils (1979) mesh and rotate with each other, and drive the armature rod (2) (1972) to rotate through magnetic coupling, so that the gear (2) (1973) on the outer wall of the armature rod (2) (1972) drives the meshing gear (1) (1971) and the armature rod (1) (193) to rotate in the opposite direction, so that the bidirectional threaded rod (194) rotates in the opposite direction, so that the guide block (195) slides in opposite directions along the slide groove (15), so that the arc-shaped clamp (196) is disengaged from the wire disc, the clamp is released, and finally the dried wire disc is taken out.

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