Production equipment of intelligent heating knitted fabric

Abstract

The application relates to the technical field of intelligent heating knitted fabric production, and discloses a production equipment for intelligent heating knitted fabric, which comprises a dehydration equipment, the inside of the dehydration equipment is provided with a main body mechanism, the inside of the main body mechanism is provided with an extrusion mechanism, the dehydration equipment comprises a shell, the front of the shell is provided with a control device, the inside of the control device is provided with a control system, the control system and the extrusion mechanism are provided, the system control wind power device input reverse current to generate adsorption force, the adsorption force is directly transported to the surface of raw materials through the air holes in the inner wall of the main gas groove conveyed by the storage cabin, the first hollow column and the air pressure cabin, so that the raw materials in the area with excessive distribution can be adsorbed, after the adsorption is completed, the servo motor inputs current to drive the raw materials in the area to move to the area with less distribution, so that the raw material position automatic adjustment effect is achieved.

Description

Technical Field

[0001] This invention relates to the field of intelligent heat-generating knitted fabric production technology, and more specifically to a production equipment for intelligent heat-generating knitted fabric. Background Technology

[0002] Intelligent heating knitted fabric is a new type of textile material that can regulate temperature by absorbing, storing, and releasing heat. The specific production process of intelligent heating knitted fabric is as follows: raw materials are prepared and dried to form masterbatch. The masterbatch is then processed through a melt-spinning process. After the raw materials are processed, they are woven into intelligent heating knitted fabric using a loom. After the intelligent heating knitted fabric is produced, it undergoes heat treatment, washing, dehydration, and drying processes. After drying, the intelligent heating knitted fabric is cut and sewn using relevant machinery. Finally, the finished products undergo quality inspection to ensure they meet relevant standards and customer requirements, and then they are packaged, thus completing the production of intelligent heating knitted fabric.

[0003] Raw materials are typically dehydrated using dehydration equipment. Common dehydration equipment mainly consists of a shell, a dehydration drum, a power supply device, and a control system. The specific process of dehydrating raw materials is as follows: During operation, the raw materials are manually placed into the dehydration drum. Under the action of the power supply device and the control system, the dehydration drum is driven to rotate at high speed to centrifuge and dehydrate the raw materials. However, in the current dehydration equipment, the raw materials are mainly moved into the dehydration drum manually or by auxiliary mechanical equipment. This results in the raw materials not being evenly placed inside the dehydration drum. Consequently, the surface of the power supply device at the bottom of the dehydration drum experiences uneven stress during dehydration. This leads to wear and tear between the dehydration drum and the power supply device due to positional misalignment, reducing their service life and causing certain economic losses. Summary of the Invention

[0004] In order to overcome the above-mentioned defects of the prior art, the present invention provides a production equipment for intelligent heating knitted fabrics to solve the problems existing in the background art.

[0005] The present invention provides the following technical solution: a production equipment for intelligent heat-generating knitted fabric, including a dehydration device, wherein a main body mechanism is provided inside the dehydration device, and an extrusion mechanism is provided inside the main body mechanism;

[0006] The dehydration equipment includes a shell, a control device is installed on the front of the shell, a control system is installed inside the control device, the control system monitors and controls the dehydration equipment, the main body mechanism and the extrusion mechanism, a control switch is installed on the upper surface of the shell, a sealing cover is installed in the middle of the upper surface of the shell, and a dehydration tank is installed inside the shell.

[0007] The extrusion mechanism includes a U-shaped outer plate, which is movably sleeved on the inner wall of a support rod. A U-shaped clamping plate is movably sleeved on one side of the U-shaped outer plate. A first hollow column is installed on the inner wall of the U-shaped clamping plate. An extrusion rod is movably sleeved on the inner wall of the first hollow column. One end of the extrusion rod is installed on the side of the U-shaped outer plate. A pressure sensor is installed on the inner wall of the first hollow column, and a spring is installed on the inner wall of the first hollow column near the pressure sensor. The extrusion rod, the spring, and the pressure sensor are on the same plane. When the extrusion rod contacts the pressure sensor, it generates pressure data L, which is transmitted to the control system for monitoring.

[0008] Furthermore, the main structure includes a support rod, with a circular sliding plate installed at the bottom end of the support rod. The circular sliding plate is movably fitted onto the inner wall of the bottom end of the dehydration tank. A servo motor is installed at the middle position of the bottom end of the circular sliding plate. The servo motor is input current to drive the U-shaped outer plate and the circular sliding plate to rotate on the inner wall of the dehydration tank. A storage compartment is opened on the inner wall of the top end of the support rod. A wind power device is installed on the inner wall of the storage compartment. An electrically controlled valve is installed on the upper surface of the support rod near the wind power device. The electrically controlled valve and the wind power device are aligned vertically. The electrically controlled valve and the storage compartment can form a sealed space.

[0009] Furthermore, an electric hydraulic column is installed on the side of the U-shaped card plate, and an adsorption plate is fixedly connected through the inner wall of the other side of the U-shaped outer plate. The inner wall of the adsorption plate has a main air groove, and an air hole is opened on the side of the hydraulic chamber near the main air groove. Auxiliary air grooves are opened on the inner walls of both ends of the adsorption plate near the main air groove. A countersunk groove is opened at one end of the auxiliary air groove. A circular plate is installed near the countersunk groove of the auxiliary air groove. A torsion spring device is installed on the side of the circular plate. A pressure chamber is fixedly connected through the side of the adsorption plate, and a hose is fixedly connected through the inner wall of the pressure chamber. One end of the hose is connected through the interior of the storage chamber.

[0010] Furthermore, a U-shaped inner plate is movably sleeved on the inner wall of the U-shaped outer plate, an outer hollow support is installed on the side of the U-shaped inner plate, an inner hollow support is movably sleeved on the inner wall of the hydraulic chamber, a conveying pipe is fixedly connected through the side of the outer hollow support, a hydraulic chamber is fixedly connected through the end of the conveying pipe away from the outer hollow support, a push plate is movably sleeved on the side of the hydraulic chamber away from the conveying pipe, and an electric lifting column is installed on the side of the push plate.

[0011] Furthermore, the electric lifting column is driven by an input current to push the push plate to squeeze the hydraulic oil stored inside the hydraulic chamber. The squeezed hydraulic oil is transported to the interior of the outer hollow column through a delivery pipe, driving multiple sets of inner hollow columns to slide inside the outer hollow column. The inner hollow columns in the sliding state drive the U-shaped inner plate to move towards the outer wall of the U-shaped outer plate.

[0012] Furthermore, the control system includes a data acquisition unit, an analysis unit, a decision-making unit, and a control center, wherein the control center controls the data acquisition unit, the analysis unit, and the decision-making unit.

[0013] The acquisition unit acquires the real-time pressure data L monitored by the pressure sensor and transmits it to the analysis unit;

[0014] The analysis unit also includes a threshold module and a comparison module. The threshold module simulates the simulated pressure data Ln generated by the pressure sensor when the raw materials are evenly distributed inside the dehydration tank, and integrates the simulated pressure data Ln to form a first threshold range. The comparison module compares the real-time pressure data L with the first threshold range. When the real-time pressure data L is not within the first threshold range, it can be determined that the raw materials in that area are unevenly distributed, and the comparison module issues a first instruction to the decision unit. When the real-time pressure data L is within the first threshold range, it can be determined that the raw materials inside the dehydration tank are evenly distributed, and the comparison module issues a second instruction to the decision unit.

[0015] Furthermore, upon receiving a first instruction, the decision-making unit generates a first decision, which controls the extrusion mechanism to adjust the position of the raw material. Upon receiving a second instruction, the decision-making unit generates a second decision, which controls the dehydration equipment to dehydrate the raw material.

[0016] The technical effects and advantages of this invention are as follows:

[0017] 1. The present invention has a main structure that facilitates the dehydration of raw materials. When the electric valve is energized, the storage chamber is opened, and at the same time the wind power device is energized to drive the external air through the storage chamber and the extrusion mechanism to the surface of the raw materials, thereby assisting in the drying process and increasing the overall dehydration efficiency of the raw materials.

[0018] 2. This invention, by incorporating a control system and an extrusion mechanism, facilitates the following: When the control system detects uneven distribution of raw materials inside the dehydration tank, it controls the wind turbine to input a reverse current to generate adsorption force. This force is then transported through the storage chamber, the first hollow column, and the pressure chamber to the inner wall of the main air tank. The adsorption force is directly delivered to the surface of the raw materials through the air holes, facilitating the adsorption of raw materials in areas with excessive distribution. After adsorption is complete, the servo motor inputs current to drive the raw materials in that area to move to areas with less distribution. When the control system detects that the raw materials inside the dehydration tank are evenly distributed, it controls the wind turbine to input a forward current to generate blowing force. This force is then transported through the storage chamber, the first hollow column, and the pressure chamber to the inner wall of the main air tank. Part of the blowing force is directly delivered to the surface of the raw materials through the air holes, while the other part of the blowing force drives the circular plate to open through the auxiliary air tank and is delivered to the surface of the raw materials, thereby accelerating the dehydration efficiency. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0020] Figure 2 This is a schematic diagram of the overall structure of the main body of the present invention.

[0021] Figure 3 This is a top view of the overall structure of the support rod of the present invention.

[0022] Figure 4 This is a schematic diagram of the overall structure of the U-shaped outer plate of the present invention.

[0023] Figure 5 This is a schematic diagram of the internal structure of the U-shaped card plate of the present invention.

[0024] Figure 6 This is a schematic cross-sectional view of the overall structure of the first hollow column of the present invention.

[0025] Figure 7 This is a schematic cross-sectional view of the overall structure of the U-shaped outer plate of the present invention.

[0026] Figure 8 This is a schematic cross-sectional view of the overall structure of the hydraulic chamber of the present invention.

[0027] Figure 9 This is a schematic cross-sectional view of the overall structure of the adsorption plate of the present invention.

[0028] Figure 10 This is a schematic diagram of the overall flow of the control system of the present invention.

[0029] The attached figures are labeled as follows: 1. Dehydration equipment; 101. Outer shell; 102. Control switch; 103. Dehydration drum; 104. Control device; 105. Sealing cover; 2. Main body mechanism; 201. Support rod; 202. Circular sliding plate; 203. Servo motor; 204. Electrically controlled valve; 205. Wind power device; 3. Extrusion mechanism; 301. U-shaped outer plate; 302. Adsorption plate; 303. U-shaped clamping plate; 304. Hoses; 305. Electro-hydraulic column; 306. U-shaped inner plate; 307. First hollow column; 308. Extrusion rod; 309. Spring; 310. Pressure sensor; 311. Outer hollow support column; 312. Inner hollow support column; 313. Hydraulic chamber; 314. Delivery pipe; 315. Electric lifting column; 316. Push plate; 317. Pressure chamber; 318. Main air tank; 319. Auxiliary air tank; 320. Circular plate; 4. Control system; 401. Data acquisition unit; 402. Analysis unit; 403. Decision-making unit; 404. Control center. Detailed Implementation

[0030] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings. In addition, the forms of the various structures described in the following embodiments are merely illustrative. The intelligent heating knitted fabric production equipment involved in the present invention is not limited to the structures described in the following embodiments. All other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0031] Reference Figures 1 to 2 as well as Figure 10 As shown, the present invention provides a production equipment for intelligent heat-generating knitted fabric, including a dehydration device 1, wherein a main body mechanism 2 is provided inside the dehydration device 1, and an extrusion mechanism 3 is provided inside the main body mechanism 2;

[0032] The dehydration equipment 1 includes a housing 101. A control device 104 is installed on the front of the housing 101. A control system 4 is installed inside the control device 104. The control system 4 monitors and controls the dehydration equipment 1, the main body 2, and the extrusion mechanism 3. A control switch 102 is installed on the upper surface of the housing 101. A sealing cover 105 is installed in the middle of the upper surface of the housing 101. A dehydration tank 103 is installed inside the housing 101.

[0033] In this embodiment of the application, the specific workflow of this part of the application embodiment is as follows: During operation, the operator places the raw material on the inner wall of the dehydration tank 103, and controls the power supply device to start power supply by pressing the control switch 102 and the control device 104, thereby driving the dehydration tank 103 to rotate at high speed, so as to dehydrate the raw material.

[0034] Reference Figures 1 to 3 As shown, the present invention provides a production equipment for intelligent heat-generating knitted fabrics, including a main body 2. The main body 2 includes a support rod 201. A circular slide plate 202 is installed at the bottom end of the support rod 201. The circular slide plate 202 is movably sleeved on the inner wall of the bottom end of the dehydration tank 103. A servo motor 203 is installed at the middle position of the bottom end of the circular slide plate 202. The servo motor 203 inputs current to drive the U-shaped outer plate 301 and the circular slide plate 202 to rotate on the inner wall of the dehydration tank 103. A storage compartment is opened on the inner wall of the top end of the support rod 201. A wind power device 205 is installed on the inner wall of the storage compartment. An electrically controlled valve 204 is installed on the upper surface of the support rod 201 near the wind power device 205. The electrically controlled valve 204 and the wind power device 205 are vertically aligned. The electrically controlled valve 204 and the storage compartment can form a sealed space.

[0035] In this embodiment of the application, the specific workflow of this part of the application embodiment is as follows: when the raw material is dehydrated, the electric control valve 204 is energized to drive the storage chamber to be in the open state, and at the same time the wind power device 205 is energized to drive the external air through the storage chamber and the extrusion mechanism 3 to be transported to the surface of the raw material to assist in the drying operation of the raw material, thereby increasing the overall dehydration efficiency of the raw material.

[0036] Reference Figures 2 to 9 As shown, the present invention provides a production equipment for intelligent heat-generating knitted fabric, including an extrusion mechanism 3. The extrusion mechanism 3 includes a U-shaped outer plate 301, which is movably sleeved on the inner wall of a support rod 201. A U-shaped clamping plate 303 is movably sleeved on one side of the U-shaped outer plate 301. A first hollow column 307 is installed on the inner wall of the U-shaped clamping plate 303. An extrusion rod 308 is movably sleeved on the inner wall of the first hollow column 307. One end of the extrusion rod 308 is installed on the side of the U-shaped outer plate 301. A pressure sensor 310 is installed on the inner wall of the first hollow column 307. A spring 309 is installed on the inner wall of the first hollow column 307 near the pressure sensor 310. The extrusion rod 308, the spring 309, and the pressure sensor 310 are on the same plane. When the extrusion rod 308 contacts the pressure sensor 310, it generates pressure data L and transmits it to the control system 4 for monitoring.

[0037] An electric hydraulic column 305 is installed on the side of the U-shaped card plate 303. An adsorption plate 302 is fixedly connected through the inner wall of the other side of the U-shaped outer plate 301. A main air groove 318 is opened on the inner wall of the adsorption plate 302. An air hole is opened on the side of the hydraulic chamber 313 near the main air groove 318. An auxiliary air groove 319 is opened on the inner wall of both ends of the adsorption plate 302 near the main air groove 318. A countersunk groove is opened at one end of the auxiliary air groove 319. A circular plate 320 is installed near the countersunk groove of the auxiliary air groove 319. A torsion spring device is installed on the side of the circular plate 320. A pressure chamber 317 is fixedly connected through the side of the adsorption plate 302. A hose 304 is fixedly connected through the inner wall of the pressure chamber 317. One end of the hose 304 is connected through the interior of the storage chamber.

[0038] The inner wall of the U-shaped outer plate 301 is movably sleeved with a U-shaped inner plate 306. An outer hollow support column 311 is installed on the side of the U-shaped inner plate 306. An inner hollow support column 312 is movably sleeved on the inner wall of the hydraulic chamber 313. A conveying pipe 314 is fixedly connected through the side of the outer hollow support column 311. The hydraulic chamber 313 is fixedly connected through the end of the conveying pipe 314 away from the outer hollow support column 311. A push plate 316 is movably sleeved on the side of the hydraulic chamber 313 away from the conveying pipe 314. An electric lifting column 315 is installed on the side of the push plate 316.

[0039] The electric lifting column 315 is driven by the input current to push the push plate 316 to squeeze the hydraulic oil stored inside the hydraulic chamber 313. The squeezed hydraulic oil is transported to the interior of the outer hollow column 311 through the delivery pipe 314, driving multiple sets of inner hollow columns 312 to slide inside the outer hollow column 311. The inner hollow column 312 in the sliding state drives the U-shaped inner plate 306 to move towards the outer wall of the U-shaped outer plate 301.

[0040] In this embodiment, the wind power device 205 generates blowing force by inputting a positive current, which is delivered to the inner wall of the main air tank 318 through the storage chamber, the first hollow column 307 and the air pressure chamber 317. Part of the blowing force is delivered directly to the surface of the raw material through the air holes, and another part of the blowing force is driven by the auxiliary air tank 319 to open the circular plate 320 and delivered to the surface of the raw material, so as to accelerate the dehydration efficiency of the raw material.

[0041] The wind power device 205 inputs a reverse current to generate an adsorption force, which is transported to the inner wall of the main air tank 318 through the storage chamber, the first hollow column 307 and the air pressure chamber 317. The adsorption force is directly transported to the surface of the raw material through the air holes to facilitate the adsorption of some of the raw material.

[0042] In this embodiment of the application, the specific workflow of this part of the embodiment is as follows: the raw material is placed inside the dehydration tank 103, the electric hydraulic column 305 is driven by the input current to move the U-shaped outer plate 301 to the position of the raw material, after the U-shaped outer plate 301 moves out of the support rod 201, the electric lifting column 315 is driven by the input current to push the push plate 316 to squeeze the hydraulic oil stored inside the hydraulic chamber 313, and the squeezed hydraulic oil is transported to the interior of the outer hollow support column 311 through the delivery pipe 314, driving multiple sets of inner hollow support columns 311. 12. The inner hollow support 312 slides inside the outer hollow support 311. The sliding inner hollow support 312 drives the U-shaped inner plate 306 to move towards the outer wall of the U-shaped outer plate 301 to facilitate contact with the raw material surface. After the U-shaped outer plate 301 and the U-shaped inner plate 306 contact the raw material surface, the raw material generates a reaction force on the U-shaped outer plate 301 and the U-shaped inner plate 306. The reaction force drives the extrusion rod 308 to contact the pressure sensor 310 to generate pressure data L, which is then transmitted to the control system 4 for monitoring. In operation, when the control system 4 detects uneven distribution of raw materials inside the dehydration tank 103, the control system 4 controls the wind power device 205 to input reverse current to generate adsorption force, which is transported to the inner wall of the main air tank 318 through the storage chamber, the first hollow column 307, and the pressure chamber 317. The adsorption force is directly transported to the surface of the raw materials through the air holes to facilitate adsorption of raw materials in areas with excessive distribution. After adsorption is completed, the servo motor 203 inputs current to drive the raw materials in that area to move to areas with less distribution. When the control system 4 detects that the raw materials inside the dehydration tank 103 are evenly distributed, the control system 4 controls the wind power device 205 to input forward current to generate blowing force, which is transported to the inner wall of the main air tank 318 through the storage chamber, the first hollow column 307, and the pressure chamber 317. Part of the blowing force is directly transported to the surface of the raw materials through the air holes, and the other part of the blowing force is driven by the auxiliary air tank 319 to open the circular plate 320 and transported to the surface of the raw materials to accelerate the dehydration efficiency of the raw materials.

[0043] Reference Figure 10 As shown, the present invention provides a production equipment for intelligent heat-generating knitted fabric, including a control system 4. The control system 4 includes a data acquisition unit 401, an analysis unit 402, a decision-making unit 403, and a control center 404. The control center 404 controls the data acquisition unit 401, the analysis unit 402, and the decision-making unit 403.

[0044] The acquisition unit 401 acquires the real-time pressure data L monitored by the pressure sensor 310 and transmits it to the analysis unit 402.

[0045] The analysis unit 402 further includes a threshold module and a comparison module. The threshold module simulates the simulated pressure data Ln generated by the pressure sensor 310 when the raw materials are evenly distributed inside the dehydration tank 103, and integrates the simulated pressure data Ln to form a first threshold range. The comparison module compares the real-time pressure data L with the first threshold range. When the real-time pressure data L is not within the first threshold range, it can be determined that the raw materials in this area are unevenly distributed. The comparison module sends a first instruction to the decision unit 403. When the real-time pressure data L is within the first threshold range, it can be determined that the raw materials inside the dehydration tank 103 are evenly distributed. The comparison module sends a second instruction to the decision unit 403.

[0046] The decision unit 403 receives a first instruction and generates a first decision. The first decision controls the extrusion mechanism 3 to adjust the position of the raw material. The decision unit 403 receives a second instruction and generates a second decision. The second decision controls the dehydration equipment 1 to dehydrate the raw material.

[0047] In this embodiment of the application, when the real-time pressure data L > the first threshold range, it can be determined that there is too much raw material in the area; when the real-time pressure data L < the first threshold range, it can be determined that there is too little raw material in the area.

[0048] The workflow of this invention is as follows:

[0049] Step 1: During operation, the operator places the raw material on the inner wall of the dehydration tank 103, and controls the power supply device to start the operation by pressing the control switch 102 and the control device 104, thereby driving the dehydration tank 103 to rotate at high speed to facilitate the dehydration of the raw material.

[0050] Step 2: When the raw material is being dehydrated, the electric control valve 204 is energized to open the storage chamber. At the same time, the air power device 205 is energized to drive external air through the storage chamber and the extrusion mechanism 3 to the surface of the raw material to assist in the drying process, thereby increasing the overall dehydration efficiency of the raw material.

[0051] Step 3: The raw material is placed inside the dehydration tank 103. The electric hydraulic column 305 is driven by the input current to move the U-shaped outer plate 301 towards the raw material position. After the U-shaped outer plate 301 moves out of the support rod 201, the electric lifting column 315 is driven by the input current to push the push plate 316 to squeeze the hydraulic oil stored in the hydraulic chamber 313. The squeezed hydraulic oil is transported to the outer hollow support column 311 through the delivery pipe 314, driving multiple sets of inner hollow support columns 312 to slide inside the outer hollow support column 311. The inner hollow support columns 312 in the sliding state drive the U-shaped inner plate 306 to move towards the outer wall of the U-shaped outer plate 301 to facilitate contact with the surface of the raw material. When the U-shaped outer plate 301 and U-shaped inner plate 306 contact the surface of the raw material, the raw material generates a reaction force on the U-shaped outer plate 301 and U-shaped inner plate 306. The reaction force drives the extrusion rod 308 to contact the pressure sensor 310 to generate pressure data L, which is then transmitted to the control system 4 for monitoring. When the control system 4 monitors... When uneven distribution of raw materials is detected inside the dehydration tank 103, the control system 4 controls the wind power device 205 to input a reverse current to generate an adsorption force. This force is then transported to the inner wall of the main air tank 318 through the storage chamber, the first hollow column 307, and the pressure chamber 317. The adsorption force is directly delivered to the surface of the raw materials through the air holes, facilitating the adsorption of raw materials in areas with excessive distribution. After adsorption is complete, the servo motor 203 inputs current to drive the raw materials in that area to move to areas with less distribution. When the control system 4 detects that the raw materials inside the dehydration tank 103 are evenly distributed, the control system 4 controls the wind power device 205 to input a forward current to generate a blowing force. This force is then transported to the inner wall of the main air tank 318 through the storage chamber, the first hollow column 307, and the pressure chamber 317. Part of the blowing force is directly delivered to the surface of the raw materials through the air holes, while the other part of the blowing force is driven by the auxiliary air tank 319 to open the circular plate 320 and deliver it to the surface of the raw materials, thereby accelerating the dehydration efficiency of the raw materials.

[0052] The accompanying drawings of the embodiments disclosed in this invention only involve the structures involved in the embodiments of this disclosure. Other structures can refer to the general design. In the absence of conflict, the same embodiment and different embodiments of this invention can be combined with each other.

[0053] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A production equipment for intelligent heat-generating knitted fabrics, comprising a dehydration device (1), characterized in that: The dehydration device (1) is equipped with a main body mechanism (2), and the main body mechanism (2) is equipped with a squeezing mechanism (3). The dehydration equipment (1) includes a shell (101), a control device (104) is installed on the front of the shell (101), a control system (4) is installed inside the control device (104), the control system (4) monitors and controls the dehydration equipment (1), the main body (2) and the extrusion mechanism (3), a control switch (102) is installed on the upper surface of the shell (101), a sealing cover (105) is installed in the middle of the upper surface of the shell (101), and a dehydration tank (103) is installed inside the shell (101). The extrusion mechanism (3) includes a U-shaped outer plate (301), which is movably sleeved on the inner wall of the support rod (201). A U-shaped clamping plate (303) is movably sleeved on one side of the U-shaped outer plate (301). A first hollow column (307) is installed on the inner wall of the U-shaped clamping plate (303). An extrusion rod (308) is movably sleeved on the inner wall of the first hollow column (307). One end of the extrusion rod (308) is installed on the side of the U-shaped outer plate (301). A pressure sensor (310) is installed on the inner wall of the first hollow column (307). A spring (309) is installed on the inner wall of the first hollow column (307) near the pressure sensor (310). The extrusion rod (308), the spring (309), and the pressure sensor (310) are on the same plane. When the extrusion rod (308) contacts the pressure sensor (310), it generates pressure data L and transmits it to the control system (4) for monitoring. The main body (2) includes a support rod (201), and a circular slide plate (202) is installed at the bottom end of the support rod (201). The circular slide plate (202) is movably sleeved on the inner wall of the bottom end of the dehydration tank (103). A servo motor (203) is installed at the middle position of the bottom end of the circular slide plate (202). The servo motor (203) inputs current to drive the U-shaped outer plate (301) and the circular slide plate (202) to rotate on the inner wall of the dehydration tank (103). A storage compartment is opened on the inner wall of the top end of the support rod (201). A wind power device (205) is installed on the inner wall of the storage compartment. An electric control valve (204) is installed on the upper surface of the support rod (201) near the wind power device (205). The electric control valve (204) and the wind power device (205) are aligned vertically. The electric control valve (204) and the storage compartment can form a sealed space. An electric hydraulic column (305) is installed on the side of the U-shaped card plate (303). An adsorption plate (302) is fixedly connected through the inner wall of the other side of the U-shaped outer plate (301). A main air groove (318) is opened on the inner wall of the adsorption plate (302). An air hole is opened on the side of the hydraulic chamber (313) near the main air groove (318). An auxiliary air groove (319) is opened on the inner wall of both ends of the adsorption plate (302) near the main air groove (318). A countersunk groove is opened at one end of the auxiliary air groove (319). A circular plate (320) is installed near the countersunk groove of the auxiliary air groove (319). A torsion spring device is installed on the side of the circular plate (320). A pressure chamber (317) is fixedly connected through the side of the adsorption plate (302). A hose (304) is fixedly connected through the inner wall of the pressure chamber (317). One end of the hose (304) is connected through the interior of the storage chamber. The control system (4) includes a data acquisition unit (401), an analysis unit (402), a decision-making unit (403), and a control center (404), wherein the control center (404) controls the data acquisition unit (401), the analysis unit (402), and the decision-making unit (403); The acquisition unit (401) acquires the real-time pressure data L monitored by the pressure sensor (310) and transmits it to the analysis unit (402). The analysis unit (402) also includes a threshold module and a comparison module. The threshold module simulates the simulated pressure data Ln generated by the pressure sensor (310) when the raw materials are evenly distributed inside the dehydration tank (103), and integrates the simulated pressure data Ln to form a first threshold range. The comparison module compares the real-time pressure data L with the first threshold range. When the real-time pressure data L is not within the first threshold range, it can be determined that the raw materials in the area are unevenly distributed. The comparison module sends a first instruction to the decision unit (403). When the real-time pressure data L is within the first threshold range, it can be determined that the raw materials inside the dehydration tank (103) are evenly distributed. The comparison module sends a second instruction to the decision unit (403). The decision unit (403) receives a first instruction and generates a first decision. The first decision controls the extrusion mechanism (3) to adjust the position of the raw material. The decision unit (403) receives a second instruction and generates a second decision. The second decision controls the dehydration equipment (1) to dehydrate the raw material.

2. The intelligent heating knitted fabric production equipment according to claim 1, characterized in that: The inner wall of the U-shaped outer plate (301) is movably fitted with a U-shaped inner plate (306). An outer hollow support column (311) is installed on the side of the U-shaped inner plate (306). An inner hollow support column (312) is movably fitted on the inner wall of the hydraulic chamber (313). A conveying pipe (314) is fixedly connected through the side of the outer hollow support column (311). A hydraulic chamber (313) is fixedly connected through the end of the conveying pipe (314) away from the outer hollow support column (311). A push plate (316) is movably fitted on the side of the hydraulic chamber (313) away from the conveying pipe (314). An electric lifting column (315) is installed on the side of the push plate (316).

3. The intelligent heating knitted fabric production equipment according to claim 2, characterized in that: The electric lifting column (315) input current drives the push plate (316) to squeeze the hydraulic oil stored inside the hydraulic chamber (313). The squeezed hydraulic oil is transported to the interior of the outer hollow column (311) through the delivery pipe (314), driving multiple sets of inner hollow columns (312) to slide inside the outer hollow column (311). The inner hollow column (312) in the sliding state drives the U-shaped inner plate (306) to move towards the outer wall of the U-shaped outer plate (301).

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