A tangential air inlet type spinning cooling device

Abstract

The present invention discloses a tangential air inlet type spinning cooling device, which relates to the technical field of spinning production and includes: a frame unit, including a support frame, a fixed ring plate disposed on the top of the support frame, and a top plate disposed on the outer diameter of the fixed ring plate. Through precise guiding and conveying and screening components, the uniform distribution and separation of the spun yarn are realized. Utilizing the gravity and the wind force generated by the fan, the system realizes the all-round 360-degree cooling of the spun yarn. The design of the L-shaped cooling pipe and the cooling ring ensures the external cooling and internal cooling of the spun yarn, significantly improving the cooling efficiency and uniformity. In addition, the use of the collection component and the reel component enables the cooled spun yarn to be effectively collected and wound, preventing the temperature difference phenomenon and improving the quality and production efficiency of the spun yarn. It not only improves the cooling effect of the spun yarn but also makes the cooling effect of the spun yarn better.

Description

Technical Field

[0001] The present invention relates to the technical field of spinning production, and particularly to a tangential air inlet type spinning cooling device. Background Art

[0002] In the production method of synthetic fibers, melt spinning preparation refers to a rapid production method in which masterbatch chips are melted to obtain a melt and the melt is wound into filaments. Its production process is simple and the production efficiency is high, making it the best spinning method in terms of use effect.

[0003] At present, most of the existing melt spinning equipment uses fixed exhaust fans to simply cool the melt spinning extruded from the spinneret holes. The cooling method is single and the cooling effect is not good, which easily leads to a large temperature difference between the windward side and the leeward side of the melt spinning, resulting in incomplete cooling, low cooling efficiency of the spinning, and easy to affect the final quality of the melt spinning. Summary of the Invention

[0004] In view of the problems existing in the above-mentioned existing tangential air inlet type spinning cooling device, the present invention is proposed.

[0005] Therefore, the present invention provides a tangential air inlet type spinning cooling device, and its purpose is to solve the problems that a fixed exhaust fan is used to simply cool the melt spinning extruded from the spinneret holes, the cooling method is single, the cooling effect is not good, which easily leads to a large temperature difference between the windward side and the leeward side of the melt spinning, resulting in incomplete cooling, low cooling efficiency of the spinning, and easy to affect the final quality of the melt spinning.

[0006] To solve the above technical problems, the present invention provides the following technical solutions: a frame unit, including a support frame, a fixed ring plate provided on the top of the support frame, and a top plate provided on the outer diameter of the fixed ring plate;

[0007] A screening and cooling unit, including a guiding component provided on the top of the top plate, a cooling component provided on the top of the top plate, a screening component provided inside the top plate, and a collecting component provided at the bottom of the screening component, and the collecting component is connected to the support frame;

[0008] A rolling unit, including a winding wheel component provided inside the support frame.

[0009] As a preferred solution of the tangential air inlet type spinning cooling device of the present invention, wherein: the guiding component includes a fixed column provided on the top of the top plate, a conical guiding plate provided on the top of the fixed column, and a guiding block provided inside the conical guiding plate.

[0010] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: the cooling assembly includes a fan arranged on the top of the top plate, a duct arranged at the output end of the fan, an air duct arranged on the outer diameter of the duct, a branch duct arranged at the outer diameter of the bottom of the air duct, and an air guide ring arranged at the other end of the branch duct.

[0011] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: an L-shaped cooling pipe is arranged on the outer diameter of the air guide ring, and the other end of the L-shaped cooling pipe is connected to the collection assembly.

[0012] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: the screening assembly includes a screening ring arranged inside the top plate, a guide post arranged at the bottom of the screening ring, an air cavity arranged inside the guide post, and a cooling ring arranged on the outer diameter of the guide post.

[0013] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: a rotating column is rotatably arranged inside the screening ring, a motor I is arranged at the bottom of the rotating column, and the motor I is connected to the guide post.

[0014] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: a return spring is arranged inside one side of the rotating column, a pressing block I is arranged at the other end of the return spring, and the pressing block I cooperates with the screening ring.

[0015] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: the other end of the air duct penetrates and is arranged inside the guide post and is connected to the air cavity.

[0016] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: the collection assembly includes an aggregating member arranged on the top of the support frame, a guiding member arranged inside the aggregating member, a secondary pressure roller rotatably arranged inside the aggregating member, a main pressure roller arranged inside the aggregating member, a motor II arranged at the rear end of the main pressure roller, a main rotating shaft arranged on the outer diameter of the output end of the motor II, a belt rotatably arranged on the main rotating shaft, and a secondary rotating shaft arranged at the other end of the belt, and the secondary rotating shaft is connected to the reel assembly.

[0017] As a preferred embodiment of the tangential air inlet type spinning cooling device of the present invention, wherein: the winding wheel assembly includes a support block disposed inside the support frame, a hinge chain disposed on one side of the support block, a second pressing block disposed on the hinge chain, a winding wheel rotatably disposed inside the second pressing block, a winding shaft disposed inside the winding wheel, and a support rod disposed at the other end of the winding shaft, and the winding shaft is rotatably connected to the secondary rotating shaft.

[0018] The beneficial effects of the present invention: Through the precise guiding and conveying and screening components, the uniform distribution and separation of the spun silk are achieved. Utilizing the gravity and the wind force generated by the fan, the system realizes the all-round 360-degree cooling of the spun silk. The design of the L-shaped cooling pipe and the cooling ring ensures the external cooling and internal cooling of the spun silk, significantly improving the cooling efficiency and uniformity. In addition, the use of the collection component and the winding wheel assembly enables the cooled spun silk to be effectively collected and wound, preventing the temperature difference phenomenon, improving the quality and production efficiency of the spun silk. It not only improves the cooling effect of the spun silk, but also makes the cooling effect of the spun silk better, and winds and collects the cooled spun silk, saving manpower, and at the same time preventing the phenomenon of a large temperature difference between the windward side and the leeward side of the melt spinning, resulting in incomplete cooling, low cooling efficiency of the spun silk, and easily affecting the final quality of the melt spinning. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following will briefly introduce the drawings required for the description of the embodiments. Obviously, the following drawings are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on these drawings.

[0020] Figure 1 It is a schematic diagram of the overall structure of the tangential air inlet type spinning cooling device of the present invention.

[0021] Figure 2 It is a schematic diagram of the internal structure of the tangential air inlet type spinning cooling device of the present invention.

[0022] Figure 3 For the tangential air inlet type spinning cooling device of the present invention Figure 2 The enlarged schematic diagram at position A.

[0023] Figure 4 It is a schematic diagram of the sectional structure of the tangential air inlet type spinning cooling device of the present invention.

[0024] Figure 5 For the tangential air inlet type spinning cooling device of the present invention Figure 4 The enlarged schematic diagram at position B.

[0025] Figure 6For the Figure 4 magnified structural schematic diagram at position C of

[0026] Figure 7 the spinning cooling device with tangential air inlet of the present invention.

[0027] Figure 8 For the Figure 7 magnified structural schematic diagram at position D of

[0028] Figure 9 the spinning cooling device with tangential air inlet of the present invention.

[0029] Figure 10 For the Figure 9 magnified structural schematic diagram at position E of

[0030] Figure 11 the sectional structural schematic diagram of the collection component of the spinning cooling device with tangential air inlet of the present invention.

[0031] Figure 12 For the Figure 11 magnified structural schematic diagram at position F of

[0032] Explanation of reference numerals: 100, frame unit; 101, support frame; 102, fixed ring plate; 103, top plate; 200, screening and cooling unit; 201, guiding component; 201a, fixed column; 201b, conical guiding plate; 201c, guiding block; 202, cooling component; 202a, fan; 202b, air duct; 202c, air conveying pipe; 202c-1, branch pipe; 202d, air guiding ring; 202e, L-shaped cooling pipe; 202f, air cavity; 202g, cooling ring; 203, screening component; 203a, screening ring; 203b, guiding column; 203c, rotating column; 203c-1, return spring; 203c-2, pressing block one; 203d, motor one; 204, collection component; 204a, aggregating piece; 204b, guiding piece; 204c, auxiliary pressure roller; 204d, main pressure roller; 204e, motor two; 204f, main rotating shaft; 204g, belt; 204h, auxiliary rotating shaft; 300, rolling and pressing unit; 301, winding wheel component; 301a, support block; 301b, articulated chain; 301c, pressing block two; 301d, winding wheel; 301e, support rod; 301f, reel rod. Detailed implementation manners

[0033] In order to make the above objects, features and advantages of the present invention more obvious and understandable, the following will describe the detailed implementation manners of the present invention in conjunction with the drawings in the specification.

[0034] Example 1, with reference to Figure 1 - Figure 4 , which is the first embodiment of the present invention, provides a tangential air inlet type spinning cooling device. This device includes: a frame unit 100, a screening and cooling unit 200, and a rolling unit 300.

[0035] Among them, the frame unit 100 includes a support frame 101, a fixed ring plate 102 arranged on the top of the support frame 101, and a top plate 103 arranged on the outer diameter of the fixed ring plate 102. The support frame 101 can fix and support the whole device, and the fixed ring plate 102 and the top plate 103 on the top support the top;

[0036] The screening and cooling unit 200 includes a guiding component 201 arranged on the top of the top plate 103, a cooling component 202 arranged on the top of the top plate 103, a screening component 203 arranged inside the top plate 103, and a collecting component 204 arranged at the bottom of the screening component 203. And the collecting component 204 is connected with the support frame 101. When cooling the spun yarn, first connect the produced spun yarn to the guiding component 201. The guiding component 201 limits and guides the spun yarn, so that the spun yarn can be accurately introduced into the screening component 203. Then, the screening component 203 works to screen and separate the spun yarn entering the inside, so as to separate the spun yarn. After the separation is completed, the spun yarn passes through the guiding of the screening component 203 again and under the action of gravity, the spun yarn begins to move down along the outer diameter of the guiding column 203b inside the screening component 203, and at the same time moves down around the guiding column 203b. After the spun yarn moves into the collecting component 204, the collecting component 204 re-collects and rolls the spun yarn, so that the spun yarn can be re-collected, and the spun yarn is automatically wound and collected by the reel component 301. When the connection between the bottom of the spun yarn and the reel component 301 is completed, the input port of the spun yarn is also separated and limited under the action of the screening component 203. At this time, the spun yarn can be cooled in the process. The spun yarn produced by the production equipment is guided by the guiding component 201, transported into the screening component 203, and preliminarily separated and limited by the screening component 203, so that the spun yarn begins to move around the guiding column 203b. At the same time, the cooling component 202 on the top of the top plate 103 starts to work to compress the air and blow it, forming wind to cool the spun yarn inside. Through the L-shaped cooling pipe 202e and the cooling ring 202g on the cooling component 202, it can ensure that the inside and outside of the spun yarn are blown and cooled at the same time, ensuring the unity of the external cooling and internal cooling of the spun yarn, and improving the cooling efficiency and uniformity of the spun yarn;

[0037] The rolling unit 300 includes a reel component 301 arranged inside the support frame 101.

[0038] Preferably, the guiding assembly 201 includes a fixing column 201a disposed on the top of the top plate 103, a conical guiding plate 201b disposed on the top of the fixing column 201a, and a guiding block 201c disposed inside the conical guiding plate 201b. The spun fibers after cooling fall into the inside of the collecting assembly 204. Under the operation of the collecting assembly 204, the spun fibers are recollected, and the spun fibers are roll-pressed, which can effectively prevent the temperature difference phenomenon of the spun fibers and can recollect the spun fibers again. With the cooperation of the winding wheel assembly 301, the cooled spun fibers are wound and collected, improving the quality and production efficiency of the spun fibers. It not only improves the cooling effect of the spun fibers but also makes the cooling effect of the spun fibers better, and winds and collects the cooled spun fibers, saving manpower.

[0039] During use, when cooling the spun yarn, first connect the produced spun yarn to the guiding component 201. The guiding component 201 positions and guides the spun yarn, enabling the spun yarn to be accurately introduced into the screening component 203. Then, the screening component 203 operates to screen and separate the spun yarn that enters it, thus separating the spun yarn. After the separation is completed, the spun yarn passes through the guiding of the screening component 203 again and under the action of gravity, the spun yarn begins to move downward along the outer diameter of the guiding column 203b inside the screening component 203 and at the same time moves downward around the guiding column 203b. After the spun yarn moves into the collecting component 204, the collecting component 204 re-collects and rolls the spun yarn, so that the spun yarn can be re-collected, and the spun yarn is automatically wound and collected by the winding wheel component 301. When the bottom of the spun yarn is connected to the winding wheel component 301, the input port of the spun yarn is also separated and positioned under the action of the screening component 203. At this time, the spun yarn can be cooled in the process. The spun yarn produced by the production equipment is guided by the guiding component 201 and transported into the screening component 203. And through the preliminary separation and limitation of the screening component 203, the spun yarn begins to move around the guiding column 203b. At the same time, the cooling component 202 on the top plate 103 starts to work to compress the air and blow it, forming a wind to cool the spun yarn inside. Through the L-shaped cooling pipe 202e and the cooling ring 202g on the cooling component 202, it can ensure that the inside and outside of the spun yarn are blown and cooled simultaneously, ensuring the unity of the external cooling and internal cooling of the spun yarn, improving the cooling efficiency and uniformity of the spun yarn. The cooled spun yarn falls into the collecting component 204. Under the action of the collecting component 204, the spun yarn is re-collected and rolled, which can effectively prevent the temperature difference phenomenon of the spun yarn and can re-collect the spun yarn. With the cooperation of the winding wheel component 301, the cooled spun yarn is wound and wound up, improving the quality and production efficiency of the spun yarn. It not only improves the cooling effect of the spun yarn, but also makes the cooling effect of the spun yarn better. And the automatically winding and collecting of the cooled spun yarn can improve the cooling efficiency.

[0040] Example 2, referring to Figure 1 - Figure 8, which is the second embodiment of the present invention. The difference between this embodiment and the first embodiment is as follows: The cooling assembly 202 includes a blower 202a disposed on the top of the top plate 103, a duct 202b disposed at the output end of the blower 202a, an air duct 202c disposed on the outer diameter of the duct 202b, a branch pipe 202c-1 disposed on the outer diameter of the bottom of the air duct 202c, and a wind guide ring 202d disposed at the other end of the branch pipe 202c-1. When cooling, the blower 202a operates to absorb air and compress it into wind. The compressed wind is conveyed through the duct 202b and then conveyed into the air duct 202c. Then, the air duct 202c conveys the wind into the wind guide ring 202d again. The wind conveyed into the wind guide ring 202d is ejected through the L-shaped cooling pipe 202e connected to the wind guide ring 202d, and the external cooling of the passing spinning filaments begins. When cooling the outside of the spinning filaments, the air duct 202c also conveys the wind into the air cavity 202f inside the guide post 203b at the same time, and the wind inside the air cavity 202f is evenly ejected through the cooling ring 202g disposed on the outer diameter of the guide post 203b to cool the inside of the spinning filaments. At the same time, because the spinning filaments are screened by the screening assembly 203, the spinning filaments completely surround the guide post 203b. Therefore, the inside and outside of the spinning filaments can be effectively cooled simultaneously by the L-shaped cooling pipe 202e and the cooling ring 202g, and the spinning filaments can be effectively cooled evenly.

[0041] Compared with Embodiment 1, further, the outer diameter of the wind guide ring 202d is provided with an L-shaped cooling pipe 202e, and the other end of the L-shaped cooling pipe 202e is connected to the collection assembly 204. The screening assembly 203 includes a screening ring 203a disposed inside the top plate 103, a guide post 203b disposed at the bottom of the screening ring 203a, an air cavity 202f disposed inside the guide post 203b, and a cooling ring 202g disposed on the outer diameter of the guide post 203b. After the air duct 202c conveys the wind into the wind guide ring 202d, the wind inside the wind guide ring 202d is ejected through the L-shaped cooling pipe 202e connected to the wind guide ring 202d, and the external cooling of the spinning filaments begins. At the same time, because the L-shaped cooling pipe 202e is L-shaped, the outside of the spinning filaments can be wrapped and cooled, making the cooling effect of the spinning filaments better.

[0042] Preferably, a rotating column 203c is rotatably arranged inside the screening ring 203a. A first motor 203d is arranged at the bottom of the rotating column 203c, and the first motor 203d is connected to the guiding column 203b. A return spring 203c-1 is arranged inside one side of the rotating column 203c. The other end of the return spring 203c-1 is provided with a first pressing block 203c-2, and the first pressing block 203c-2 cooperates with the screening ring 203a. The other end of the air delivery pipe 202c penetrates and is arranged inside the guiding column 203b and is connected to the air cavity 202f. When screening the just-produced spun fibers, the first pressing block 203c-2 is pulled, so that the first pressing block 203c-2 squeezes the return spring 203c-1. At the same time, the spun fibers are accurately guided by the guiding assembly 201 and fall into the groove of the first pressing block 203c-2. After releasing the first pressing block 203c-2, under the action of the return spring 203c-1, the first pressing block 203c-2 squeezes the spun fibers against the inner wall of the screening ring 203a. The first motor 203d starts to work, causing the rotating column 203c to start rotating. The spun fibers on the inner wall of the screening ring 203a are rubbed and stirred by the rotation of the rotating column 203c, and the spun fibers start to rotate with the rotating column 203c. And while the spun fibers are rotating, since grooves are arranged on the inner wall of the screening ring 203a and the size of the grooves is just right to pass through two to three spun fibers, the spun fibers can be rubbed into the grooves inside the screening ring 203a to screen the spun fibers, so that the spun fibers can be separated. Moreover, the grooves inside the screening ring 203a also limit the entering spun fibers, so that the spun fibers are restricted in the grooves of the screening ring 203a. After the screening is completed, the first motor 203d stops working. The spun fibers are separated and restricted in the grooves of the screening ring 203a and are dispersed and moved around the guiding column 203b. At the same time, the cooling assembly 202 is coordinated to cool the spun fibers.

[0043] During use, when screening the just-produced spun yarn, the first pressing block 203c-2 is pulled, so that the first pressing block 203c-2 squeezes the return spring 203c-1. At the same time, the spun yarn is accurately guided by the guiding assembly 201 and falls into the groove of the first pressing block 203c-2. After releasing the first pressing block 203c-2, under the action of the return spring 203c-1, the first pressing block 203c-2 squeezes the spun yarn against the inner wall of the screening ring 203a. Then, the first motor 203d starts to work, causing the rotating column 203c to start rotating. By the rotation of the rotating column 203c, the spun yarn on the inner wall of the screening ring 203a is rubbed and agitated. The spun yarn starts to rotate with the rotating column 203c. And while the spun yarn is rotating, since there are grooves on the inner wall of the screening ring 203a and the size of the grooves is just right to allow two to three spun yarns to pass through, the spun yarn can be rubbed into the grooves inside the screening ring 203a, screening the spun yarn, so that the spun yarn can be separated. Moreover, the grooves inside the screening ring 203a also limit the incoming spun yarn, making the spun yarn restricted in the grooves of the screening ring 203a. After the screening is completed, the first motor 203d stops working. The spun yarn is separated and restricted in the grooves of the screening ring 203a and dispersedly moves around the guiding column 203b. At the same time, the cooling assembly 202 is coordinated to cool the spun yarn.

[0044] When cooling, the blower 202a works to absorb air and compress it into wind. The compressed wind is conveyed through the air duct 202b and then into the air delivery pipe 202c. Again, the air is conveyed through the air delivery pipe 202c to the air guiding ring 202d. The wind delivered to the air guiding ring 202d is ejected through the L-shaped cooling pipe 202e connected to the air guiding ring 202d, starting to cool the passing spun yarn externally. When cooling the outside of the spun yarn, the air delivery pipe 202c also conveys the wind into the air cavity 202f inside the guiding column 203b at the same time, and the wind inside the air cavity 202f is evenly ejected through the cooling ring 202g arranged on the outer diameter of the guiding column 203b to cool the inside of the spun yarn. At the same time, because the spun yarn is screened by the screening assembly 203 and the spun yarn is all around the guiding column 203b, the L-shaped cooling pipe 202e and the cooling ring 202g can effectively cool the inside and outside of the spun yarn simultaneously and can effectively cool the spun yarn evenly.

[0045] The remaining structure is the same as that of Embodiment 1.

[0046] Embodiment 3, referring to Figure 1 - Figure 12, which is the third embodiment of the present invention. This embodiment is different from the second embodiment in that: the collecting component 204 includes a gathering piece 204a arranged on the top of the supporting frame 101, a guide piece 204b arranged inside the gathering piece 204a, an auxiliary pressure roller 204c rotatably arranged inside the gathering piece 204a, a main pressure roller 204d arranged inside the gathering piece 204a, a motor 204e arranged at the rear end of the main pressure roller 204d, a main rotating shaft 204f arranged on the outer diameter of the output end of the motor 204e, a belt 204g rotatably arranged on the main rotating shaft 204f, and a secondary rotating shaft 204h arranged at the other end of the belt 204g, and the secondary rotating shaft 204h is connected to the reel assembly 301. After the spinning cooling is completed, the spinning will fall vertically around the guide column 203b under the influence of gravity and fall on The spinning is gathered inside the gathering piece 204a and is gathered by the guide piece 204b inside the gathering piece 204a, and enters the auxiliary pressure roller 204c together to roll the spinning, and the motor 204e also starts to work, so that the main pressure roller 204d rolls and guides the spinning, and at the same time, the motor 204e also works with the belt 204g and the reel assembly 301 to guide the spinning completed by the auxiliary pressure roller 204c and the main pressure roller 204d, and winds it on the reel assembly 301, and the cooling completed spinning is uniformly wound and collected by the reel assembly 301, so that the cooled spinning can be effectively collected and wound, thereby preventing temperature difference phenomenon, improving the quality and production efficiency of spinning, not only improving the cooling effect of spinning, but also making the cooling effect of spinning better, saving manpower and improving work efficiency.

[0047] Compared with Embodiment 2, further, the reel assembly 301 includes a support block 301a disposed inside the support frame 101, a hinge chain 301b disposed on one side of the support block 301a, a second pressing block 301c disposed on the hinge chain 301b, a reel 301d rotatably disposed inside the second pressing block 301c, a reel shaft 301f disposed inside the reel 301d, and a support rod 301e disposed at the other end of the reel shaft 301f. The reel shaft 301f is rotatably connected to the secondary rotating shaft 204h. Under the guidance and unified collection of the guiding member 204b inside the aggregating member 204a, the spun fibers are re-gathered together, and the spun fibers are re-rolled by the secondary pressing roller 204c and the main pressing roller 204d, so as to guide the spun fibers and wind them on the surface of the reel 301d. At the same time, the operation of the second motor 204e also drives the belt 204g and the secondary rotating shaft 204h to rotate, and the reel 301d also starts to rotate following the secondary rotating shaft 204h to wind and uniformly collect the spun fibers. After the collection of the spun fibers is completed, the reel 301d can be taken out from inside the support block 301a by opening the second pressing block 301c for replacement and re-winding. By opening and closing the second pressing block 301c, the spun fiber roll after winding can be quickly replaced, improving the quality and production efficiency of the spun fibers. It not only improves the cooling effect of the spun fibers but also makes the cooling effect of the spun fibers better, and winds and collects the cooled spun fibers, saving manpower.

[0048] During use, after the spinning is cooled, the spinning will fall vertically around the guide column 203b under the influence of gravity, fall into the gathering piece 204a, and be gathered by the guide piece 204b inside the gathering piece 204a, and enter the auxiliary pressure roller 204c together to roll the spinning, and the motor 204e also starts to work, so that the main pressure roller 204d rolls and guides the spinning. At the same time, the motor 204e also works with the belt 204g and the reel assembly 301 to guide the spinning completed by the auxiliary pressure roller 204c and the main pressure roller 204d, and wind it on the reel assembly 301. The cooled spinning is uniformly wound and collected by the reel assembly 301, and under the guidance and uniform collection of the guide piece 204b inside the gathering piece 204a, the spinning is gathered together again, and passed through the auxiliary pressure roller 204c. The main pressure roller 204d and the main pressure roller 204d re-roll the spinning, so that the spinning is guided and wound on the surface of the reel 301d. At the same time, the operation of the motor 204e also drives the belt 204g and the auxiliary rotating shaft 204h to rotate, and the reel 301d also starts to rotate with the auxiliary rotating shaft 204h to wind and collect the spinning uniformly. After the spinning collection is completed, the reel 301d can be taken out from the inside of the support block 301a for replacement and rewinding by opening the pressure block 201c, and the winding of the completed spinning reel can be quickly replaced by opening and closing the pressure block 201c, so that the cooled spinning can be effectively collected and wound, preventing the temperature difference phenomenon, improving the quality and production efficiency of the spinning, not only improving the cooling effect of the spinning, but also making the cooling effect of the spinning better, saving manpower and improving work efficiency.

[0049] The remaining structure is the same as that of Example 2.

[0050] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. A tangential air inlet type spinning cooling device, characterized in that: Comprising: A frame unit (100), including a support frame (101), a fixed ring plate (102) provided at the top of the support frame (101), and a top plate (103) provided on the outer diameter of the fixed ring plate (102); A screening and cooling unit (200), including a guiding component (201) provided on the top of the top plate (103), a cooling component (202) provided on the top of the top plate (103), a screening component (203) provided inside the top plate (103), and a collecting component (204) provided at the bottom of the screening component (203), and the collecting component (204) is connected to the support frame (101); The screening component (203), including a screening ring (203a) provided inside the top plate (103), a guiding column (203b) provided at the bottom of the screening ring (203a), an air cavity (202f) provided inside the guiding column (203b), and a cooling ring (202g) provided on the outer diameter of the guiding column (203b); A rotating column (203c) is rotatably provided inside the screening ring (203a), a first motor (203d) is provided at the bottom of the rotating column (203c), and the first motor (203d) is connected to the guiding column (203b); A reset spring (203c-1) is provided inside one side of the rotating column (203c), the other end of the reset spring (203c-1) is provided with a first pressing block (203c-2), and the first pressing block (203c-2) cooperates with the screening ring (203a); The other end of the air duct (202c) penetrates and is provided inside the guiding column (203b) and is connected to the air cavity (202f); The collecting component (204), including an aggregating member (204a) provided on the top of the support frame (101), a guiding member (204b) provided inside the aggregating member (204a), a secondary pressure roller (204c) rotatably provided inside the aggregating member (204a), a main pressure roller (204d) provided inside the aggregating member (204a), a second motor (204e) provided at the rear end of the main pressure roller (204d), a main rotating shaft (204f) provided on the outer diameter of the output end of the second motor (204e), a belt (204g) rotatably provided on the main rotating shaft (204f), and a secondary rotating shaft (204h) provided at the other end of the belt (204g), and the secondary rotating shaft (204h) is connected to a reel assembly (301); A rolling unit (300), including a reel assembly (301) provided inside the support frame (101).

2. The tangent air inlet type spinning cooling device according to claim 1, characterized in that: The guiding component (201), including a fixed column (201a) provided on the top of the top plate (103), a conical guiding plate (201b) provided on the top of the fixed column (201a), and a guiding block (201c) provided inside the conical guiding plate (201b).

3. The tangential air inlet type spinning cooling device according to claim 2, characterized in that: The cooling assembly (202) includes a blower (202a) disposed on the top of the top plate (103), a duct (202b) disposed at the output end of the blower (202a), an air duct (202c) disposed on the outer diameter of the duct (202b), a branch duct (202c-1) disposed at the bottom outer diameter of the air duct (202c), and an air guide ring (202d) disposed at the other end of the branch duct (202c-1).

4. The tangential air inlet type spinning cooling device according to claim 3, characterized in that: An L-shaped cooling pipe (202e) is disposed on the outer diameter of the air guide ring (202d), and the other end of the L-shaped cooling pipe (202e) is connected to the collection assembly (204).

5. The tangential air inlet type spinning cooling device according to any one of claims 1-4, characterized in that: The reel assembly (301) includes a support block (301a) disposed inside the support frame (101), a hinge chain (301b) disposed on one side of the support block (301a), a second pressing block (301c) disposed on the hinge chain (301b), a reel (301d) rotatably disposed inside the second pressing block (301c), a reel rod (301f) disposed inside the reel (301d), and a support rod (301e) disposed at the other end of the reel rod (301f), and the reel rod (301f) is rotatably connected to the auxiliary rotating shaft (204h).

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