Reaction kettle for producing light storage type self-luminous plastic profiled bar

Abstract

The invention belongs to the technical field of luminous plastic production, and particularly relates to a light storage type self-luminous plastic profile production reaction kettle which comprises a reaction kettle body, a base station is mounted at the bottom of the reaction kettle body, an outer ring and an inner ring are mounted at the top of the reaction kettle body, a feeding port is formed between the outer ring and the inner ring, and the outer ring and the inner ring are connected through a connecting plate. A top plate is arranged at the top of the reaction kettle body, a motor is arranged on the top plate, the output end of the motor is connected with a transmission shaft, and a synchronous assembly and a stirring rod are respectively arranged on the transmission shaft. The transmission shaft drives the corrugated groove to stir a plastic substrate in the reaction kettle body, and meanwhile, the transmission shaft drives the blanking assembly to slide along the inner ring through the synchronous assembly, so that a luminescent material in the feeding box is dispersed and sprayed into the reaction kettle body, and uniform dispersion of the luminescent material is ensured; and agglomeration of the luminescent material and the plastic matrix in the stirring process is avoided.

Description

Technical Field

[0001] The present invention belongs to the technical field of luminescent plastic production, and particularly relates to a reaction kettle for producing luminescent self-luminous plastic profiles. Background Art

[0002] The luminescent self-luminous plastic is a plastic material that can absorb and store the energy of external light sources and slowly release the stored energy to emit visible light after the light source disappears. During the production process of the luminescent self-luminous plastic, conventional additives such as resin, plasticizer, stabilizer, and lubricant need to be added to the reaction kettle in sequence, and finally the self-luminous material is added to the reaction kettle.

[0003] The feeding method of the existing luminescent materials often adopts the feeding type. For example, in the patent with the publication number CN211412030U. However, due to the good fluidity of the plastic matrix and its low viscosity, while the self-luminous material is usually composed of a sulfide matrix and an activator, etc., its internal structure is relatively compact and its viscosity is relatively high, resulting in a viscosity difference between the luminescent material and the plastic matrix, poor compatibility between the luminescent material and the plastic matrix, and the feeding type feeding method is prone to agglomeration of the luminescent material and the plastic matrix, and it is easy to cause uneven dispersion of the luminescent material in the plastic. Summary of the Invention

[0004] The purpose of the present invention is to provide a reaction kettle for producing luminescent self-luminous plastic profiles in view of the deficiencies of the prior art to solve the technical problems in the prior art.

[0005] The purpose of the present invention can be achieved by the following technical solutions: A reaction kettle for producing luminescent self-luminous plastic profiles, which includes a reaction kettle body. A base is installed at the bottom of the reaction kettle body. An outer ring and an inner ring are respectively installed at the top of the reaction kettle body. A feed inlet is opened between the outer ring and the inner ring. The outer ring and the inner ring are connected by a connecting plate. A blanking component is slidably installed between the outer ring and the inner ring. The connecting plate is connected to the blanking component through a return spring. A top plate is installed at the top of the reaction kettle body. A motor is installed on the top plate. The output end of the motor is connected to a transmission shaft. A synchronous component and a stirring rod are respectively installed on the transmission shaft. The stirring rod is located inside the reaction kettle body, and the synchronous component is located outside the reaction kettle body. The blanking component includes a feed box, a blanking box, and a rubber sleeve. The feed box is connected to the blanking box through the rubber sleeve. The blanking box is slidably matched with the inner ring. A filter screen is installed inside the blanking box. A sliding column is installed on the feed box. Corrugated grooves are opened on both the outer ring and the inner ring. The sliding column is slidably matched with the corrugated grooves. The motor drives the transmission shaft and the synchronous component to rotate, and the synchronous component pushes the feed box to slide along the corrugated grooves through the sliding column.

[0006] As a further optimization or improvement of this solution, an upper ring groove is opened on the inner ring, and a slider is installed on the blanking box. The slider is slidably matched with the upper ring groove.

[0007] As a further optimization or improvement of this solution, a winding roller is rotatably installed on the blanking box. The winding roller is connected to the filter screen. A number of fixed rollers are fixedly installed in the blanking box, and a number of liftable moving rollers are installed in the blanking box. One end of the filter screen is fixedly installed on the inner wall of the blanking box, and the other end of the filter screen passes through the moving rollers and the fixed rollers and is connected to the winding roller.

[0008] As a further optimization or improvement of this solution, a side platform one and a side platform two are fixedly installed on the blanking box. One end of the winding roller is fixedly installed with a columnar gear, and the columnar gear is rotatably connected to the side platform one; the other end of the winding roller is fixedly connected to a rotating shaft. A rotating groove is opened on the side platform two, and a fixed plate is fixedly installed in the rotating groove. A rotating plate is installed on the rotating shaft, and the rotating plate is connected to the fixed plate through an arc-shaped spring.

[0009] As a further optimization or improvement of this solution, a lower ring groove is opened on the inner ring, and racks are arranged at intervals in the lower ring groove. The columnar gear meshes with the racks.

[0010] As a further optimization or improvement of this solution, a telescopic sleeve is installed in the blanking box, a telescopic rod slides in the telescopic sleeve, and the telescopic rod is rotatably connected to the moving roller.

[0011] As a further optimization or improvement of this solution, the telescopic rod is connected to the inner wall of the telescopic sleeve through a compression spring. A damping ring sleeve is installed on the inner side wall of the telescopic sleeve, and the damping ring sleeve cooperates with the telescopic rod. A folding plate is installed in the blanking box, and one end of the folding plate is connected to the moving roller.

[0012] As a further optimization or improvement of this solution, the synchronization component includes a straight rod. The straight rod is connected to the transmission shaft. A telescopic groove is opened on the straight rod, and a telescopic roller is slidably installed in the telescopic groove. The telescopic roller is connected to the inner wall of the telescopic groove through a compression spring. A convex strip is installed on the inner wall of the inner ring. When the telescopic roller passes through the convex strip, the convex strip presses the telescopic roller.

[0013] Advantages of the present invention: (1) The plastic matrix inside the corrugated groove stirring reactor body is driven by the transmission shaft of the present invention. At the same time, the transmission shaft drives the blanking component to slide along the inner ring through the synchronization component, and the luminescent material inside the feeding box is scattered and sprinkled into the reactor body, ensuring that the luminescent material is evenly dispersed and avoiding the agglomeration of the luminescent material and the plastic matrix during the stirring process.

[0014] Specifically, since a filter screen is provided in the blanking box, when the luminescent material enters the reactor body through the filter screen inside the blanking box, the larger particle luminescent material will be blocked by the filter screen, ensuring the quality of the plastic finished product and avoiding the phenomenon of uneven luminescence of the special-shaped plastic parts of the finished product.

[0015] Specifically, by providing corrugated grooves on the outer ring and the inner ring, the sliding columns on the feed box are slidably engaged with the corrugated grooves. When the transmission shaft drives the feed box and the sliding columns to slide along the corrugated grooves through the synchronization assembly, the feed box vibrates up and down at a certain frequency, shaking the agglomerated luminescent materials inside the feed box to prevent the discharge of luminescent materials from being affected due to material agglomeration in the feed box.

[0016] (2) During the up-and-down vibration of the feed box of the present invention, since the slider on the blanking box is slidably engaged with the upper ring groove, when the feed box vibrates, the feed box drives the rubber sleeve to stretch and fold reciprocally. When the rubber sleeve stretches, the luminescent materials inside the feed box enter the rubber sleeve; when the rubber sleeve folds, the accumulated materials inside the rubber sleeve move towards the feed box and the blanking box respectively, thereby increasing the speed at which the luminescent materials in the rubber sleeve enter the blanking box.

[0017] (3) The blanking assembly of the present invention moves along the outer ring, and the columnar gear drives the winding roller to rotate, causing the winding roller to tighten the filter screen. During the tightening of the filter screen, the telescopic rod compresses the compression spring and slides into the telescopic sleeve, so that the telescopic rod cooperates with the damping ring sleeve. When the columnar gear disengages from the rack, the compression spring resets to drive the telescopic rod and the moving roller to reset. Since the telescopic rod is in cooperation with the damping ring sleeve at this time, the moving roller delays in resetting. When the winding roller relaxes the filter screen, the telescopic rod disengages from the damping ring sleeve. At this time, under the rebound of the compression spring, the moving roller impacts the filter screen, shaking out the luminescent materials blocked inside the filter screen to prevent the filter screen from being blocked due to the wetting of the mesh holes. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] The present invention will be further described below with reference to the accompanying drawings.

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

[0020] Figure 2 It is a schematic diagram of the structures of the outer ring and the inner ring.

[0021] Figure 3 It is a schematic diagram of the structure of the blanking assembly.

[0022] Figure 4 It is a schematic diagram of the internal structure of the reaction kettle body.

[0023] Figure 5 For Figure 5 The enlarged view of the structure of part A.

[0024] Figure 6 It is a schematic diagram of the connection structure between the feed box and the blanking box.

[0025] Figure 7 It is a cross-sectional view of the structures of the feed box, the rubber sleeve and the blanking box.

[0026] Figure 8 For Figure 7Enlarged view of the structure of part B.

[0027] Figure 9 Schematic diagram of the connection structure between the telescopic sleeve and the telescopic rod.

[0028] Figure 10 Schematic diagram of the installation position of the winding roller.

[0029] Figure 11 Schematic diagram of the structure of the rotating groove.

[0030] Figure 12 Schematic diagram of the connection structure between the transmission shaft, the synchronization component and the stirring rod.

[0031] Figure 13 Cross-sectional view of the straight rod structure.

[0032] In the figure, the markings are: 1. Reactor body; 2. Base; 3. Top plate; 4. Motor; 5. Outer ring; 6. Inner ring; 7. Transmission shaft; 8. Feeding component; 801. Feeding box; 802. Feeding hopper; 803. Rubber sleeve; 804. Slide block; 805. Sliding column; 806. Winding roller; 807. Cylindrical gear; 808. Filter screen; 809. Telescopic sleeve; 810. Moving roller; 811. Folding plate; 812. Fixed roller; 813. Telescopic rod; 814. Compression spring; 815. Damping ring sleeve; 816. Side platform 1; 817. Side platform 2; 818. Rotating shaft; 819. Rotating plate; 820. Arc spring; 821. Fixed plate; 822. Rotating groove; 9. Return spring; 10. Synchronization component; 101. Straight rod; 102. Telescopic roller; 103. Telescopic groove; 104. Compression spring; 11. Rib; 12. Connecting plate; 13. Corrugated groove; 14. Upper ring groove; 15. Lower ring groove; 16. Rack; 17. Stirring rod. Detailed implementation manners

[0033] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0034] See Figures 1 - 11, A reactor for producing energy-storing self-luminous plastic profiles, which includes a reactor body 1. A base 2 is installed at the bottom of the reactor body 1. An outer ring 5 and an inner ring 6 are respectively installed at the top of the reactor body 1. A feed inlet is opened between the outer ring 5 and the inner ring 6. The outer ring 5 and the inner ring 6 are connected by a connecting plate 12. A blanking component 8 is slidably installed between the outer ring 5 and the inner ring 6. The connecting plate 12 is connected to the blanking component 8 through a return spring 9. A top plate 3 is installed at the top of the reactor body 1. A motor 4 is installed on the top plate 3. The output end of the motor 4 is connected to a transmission shaft 7. A synchronous component 10 and a stirring rod 17 are respectively installed on the transmission shaft 7. The stirring rod 17 is located inside the reactor body 1, and the synchronous component 10 is located outside the reactor body 1. The blanking component 8 includes a feed box 801, a blanking box 802 and a rubber sleeve 803. The feed box 801 is connected to the blanking box 802 through the rubber sleeve 803. The blanking box 802 is slidably matched with the inner ring 6. A filter screen 808 is installed inside the blanking box 802. A sliding column 805 is installed on the feed box 801. Corrugated grooves 13 are opened on both the outer ring 5 and the inner ring 6. The sliding column 805 is slidably matched with the corrugated grooves 13. The motor 4 drives the transmission shaft 7 and the synchronous component 10 to rotate. The synchronous component 10 pushes the feed box 801 to slide along the corrugated grooves 13 through the sliding column 805.

[0035] Specifically, an upper ring groove 14 is opened on the inner ring 6. A slider 804 is installed on the blanking box 802. The slider 804 is slidably matched with the upper ring groove 14.

[0036] It should be noted that when producing energy-storing self-luminous plastic profiles, first add resin, plasticizer, stabilizer, lubricant, etc. into the reactor body 1 in sequence and heat the reactor body 1. Then add luminous materials into the feed box 801. Then start the motor 4. The motor 4 drives the transmission shaft 7 to rotate. At this time, the transmission shaft 7 stirs the plastic matrix inside the reactor body 1 through the corrugated grooves 13. At the same time, the transmission shaft 7 drives the blanking component 8 to slide along the inner ring 6 through the synchronous component 10, and dispersedly sprinkle the luminous materials inside the feed box 801 into the reactor body 1 to ensure that the luminous materials are evenly dispersed and avoid the agglomeration of the luminous materials and the plastic matrix during the stirring process.

[0037] Specifically, since a filter screen 808 is arranged inside the blanking box 802, when the luminous materials enter the reactor body 1 through the filter screen 808 inside the blanking box 802, the larger particle luminous materials will be blocked by the filter screen 808, ensuring the quality of the plastic finished product and avoiding the phenomenon of uneven luminescence of the finished special-shaped plastic parts.

[0038] It should be noted that common luminescent materials are mostly in powder form. For example, common aluminate-based energy storage self-luminescent materials. When producing plastics, the main body 1 of the reaction kettle needs to be heated to polymerize the plastic matrix inside the main body 1 of the reaction kettle. Therefore, the steam generated by heating the plastic matrix inside the main body 1 of the reaction kettle will affect the luminescent materials inside the feed box 801, causing the luminescent materials inside the feed box 801 to absorb moisture and agglomerate, affecting the discharge of the luminescent materials.

[0039] Therefore, in the present invention, corrugated grooves 13 are provided on the outer ring 5 and the inner ring 6, so that the sliding column 805 on the feed box 801 is slidably engaged with the corrugated grooves 13. When the transmission shaft 7 drives the feed box 801 and the sliding column 805 to slide along the corrugated grooves 13 through the synchronization assembly 10, the feed box 801 vibrates up and down at a certain frequency, shaking loose the agglomerated luminescent materials absorbed by the feed box 801, and avoiding the influence on the discharge of the luminescent materials due to the agglomeration of the materials in the feed box 801.

[0040] During the up and down vibration of the feed box 801, since the slider 804 on the blanking box 802 is slidably engaged with the upper annular groove 14, when the feed box 801 vibrates, the feed box 801 drives the rubber sleeve 803 to be reciprocally stretched and folded. When the rubber sleeve 803 is stretched, the luminescent materials inside the feed box 801 enter the rubber sleeve 803; when the rubber sleeve 803 is folded, the accumulated materials inside the rubber sleeve 803 move towards the feed box 801 and the blanking box 802 respectively, thereby increasing the speed at which the luminescent materials in the rubber sleeve 803 enter the blanking box 802.

[0041] See Figure 2 、 Figures 12 - 13 As shown in FIGS. [], the synchronization assembly 10 includes a straight rod 101. The straight rod 101 is connected to the transmission shaft 7. A telescopic groove 103 is provided on the straight rod 101. A telescopic roller 102 is slidably installed in the telescopic groove 103. The telescopic roller 102 is connected to the inner wall of the telescopic groove 103 through a compression spring 104. A convex strip 11 is installed on the inner wall of the inner ring 6. When the telescopic roller 102 passes over the convex strip 11, the convex strip 11 presses the telescopic roller 102.

[0042] It should be noted that, as shown in FIGS. [], Figure 2 the blanking assembly 8 is provided in two groups. During the process of the transmission shaft 7 driving the synchronization assembly 10 to rotate, the telescopic roller 102 will contact the sliding column 805 on the feed box 801, thereby driving the feed box 801 and the sliding column 805 to slide along the corrugated grooves 13. During this process, the return spring 9 is stretched. When the telescopic roller 102 passes over the convex strip 11, the connecting plate 12 blocks the movement of the blanking assembly 8 to ensure the return elasticity of the return spring 9. At the same time, the telescopic roller 102 is compressed by the convex strip 11, causing the telescopic roller 102 to move into the telescopic groove 103, so that the telescopic roller 102 is disengaged from the blanking assembly 8; as the transmission shaft 7 rotates, the telescopic roller 102 drives another feed box 801 and the sliding column 805 to slide along the corrugated grooves 13, ensuring the continuous progress of the feeding work.

[0043] See Figures 4 - 11 As shown in Figures 4 - 11 , a winding roller 806 is rotatably installed on the blanking box 802. The winding roller 806 is connected to the filter screen 808. A plurality of fixed rollers 812 are fixedly installed in the blanking box 802. A plurality of liftable moving rollers 810 are installed in the blanking box 802. One end of the filter screen 808 is fixedly installed on the inner wall of the blanking box 802, and the other end of the filter screen 808 passes through the moving rollers 810 and the fixed rollers 812 and is connected to the winding roller 806. Specifically, a side platform one 816 and a side platform two 817 are fixedly installed on the blanking box 802. A columnar gear 807 is fixedly installed at one end of the winding roller 806, and the columnar gear 807 is rotatably connected to the side platform one 816; the other end of the winding roller 806 is fixedly connected to a rotating shaft 818. A rotating groove 822 is formed on the side platform two 817, and a fixed plate 821 is fixedly installed in the rotating groove 822. A rotating plate 819 is installed on the rotating shaft 818, and the rotating plate 819 is connected to the fixed plate 821 through an arc-shaped spring 820. Specifically, a lower ring groove 15 is formed on the inner ring 6, and racks 16 are arranged at intervals in the lower ring groove 15, and the columnar gear 807 meshes with the racks 16. Specifically, a telescopic sleeve 809 is installed in the blanking box 802, a telescopic rod 813 slides in the telescopic sleeve 809, and the telescopic rod 813 is rotatably connected to the moving roller 810. Specifically, the telescopic rod 813 is connected to the inner wall of the telescopic sleeve 809 through a compression spring 814. A damping ring sleeve 815 is installed on the inner side wall of the telescopic sleeve 809, and the damping ring sleeve 815 cooperates with the telescopic rod 813. A folding plate 811 is installed in the blanking box 802, and one end of the folding plate 811 is connected to the moving roller 810.

[0044] It should be noted that the folding plate 811 is used to block the luminescent material from entering the telescopic sleeve 809 to protect the telescopic sleeve 809 and the telescopic rod 813.

[0045] It should be noted that during the production of plastics, the steam generated by heating the plastic matrix inside the reactor body 1 enters the mesh holes of the filter screen 808, making the mesh holes of the filter screen 808 wet. When the luminescent material inside the feed box 801 enters the reactor body 1 through the filter screen 808, even if the luminescent material that meets the requirements of passing through the filter screen 808 will cause the filter screen 808 to be blocked due to the wet mesh holes.

[0046] When the present invention is in use, when the transmission shaft 7 drives the blanking component 8 to move along the outer ring 5 through the synchronization component 10, the columnar gear 807 and the rack 16 start to mesh under the cooperation of the columnar gear 807 and the lower ring groove 15. As the blanking component 8 continues to move along the outer ring 5, the columnar gear 807 drives the winding roller 806 to rotate, so that the winding roller 806 tightens the filter screen 808. During the process of tightening the filter screen 808, the filter screen 808 drives the moving roller 810 and the telescopic rod 813 to move synchronously, so that the telescopic rod 813 compresses the compression spring 814 and slides into the telescopic sleeve 809, so that the telescopic rod 813 cooperates with the damping ring sleeve 815. During the rotation of the winding roller 806, the winding roller 806 drives the rotating shaft 818 and the rotating plate 819 to rotate and compress the arc spring 820. As the blanking component 8 moves, the columnar gear 807 disengages from the rack 16. At this time, the arc spring 820 rebounds to drive the winding roller 806 to rotate back, so that the winding roller 806 relaxes the filter screen 808. At the same time, the compression spring 814 resets to drive the telescopic rod 813 and the moving roller 810 to reset. Since the telescopic rod 813 cooperates with the damping ring sleeve 815 at this time, there will be a certain time delay when the moving roller 810 resets. After the winding roller 806 relaxes the filter screen 808, the telescopic rod 813 disengages from the damping ring sleeve 815. At this time, under the rebound of the compression spring 814, the moving roller 810 impacts the filter screen 808, shaking out the luminescent material blocked inside the filter screen 808, and avoiding the blockage of the filter screen 808 due to the wet mesh holes.

[0047] It should be noted that multiple groups of racks 16 are arranged in the lower ring groove 15. Therefore, the cleaning work of the mesh holes of the filter screen 808 can be carried out multiple times.

[0048] The working principle of the present invention: When producing the energy storage type self-luminous plastic profile, first add resin, plasticizer, stabilizer, lubricant, etc. into the reaction kettle body 1 in sequence and heat the reaction kettle body 1. Then add the luminescent material into the feeding box 801. Then start the motor 4, and the motor 4 drives the transmission shaft 7 to rotate. At this time, the transmission shaft 7 stirs the plastic matrix inside the reaction kettle body 1 through the corrugated groove 13. At the same time, the transmission shaft 7 drives the blanking component 8 to slide along the inner ring 6 through the synchronization component 10, and dispersedly sprinkle the luminescent material inside the feeding box 801 into the reaction kettle body 1 to ensure that the luminescent material is evenly dispersed and avoid the agglomeration of the luminescent material and the plastic matrix during the stirring process.

[0049] Specifically, since the filter screen 808 is arranged in the blanking box 802, when the luminescent material enters the reaction kettle body 1 through the filter screen 808 inside the blanking box 802, the larger particles of the luminescent material will be blocked by the filter screen 808, ensuring the quality of the plastic finished product and avoiding the phenomenon of uneven luminescence of the finished special-shaped plastic parts.

[0050] Specifically, by providing corrugated grooves 13 on the outer ring 5 and the inner ring 6, the sliding posts 805 on the feed box 801 are slidably engaged with the corrugated grooves 13. When the transmission shaft 7 drives the feed box 801 and the sliding posts 805 to slide along the corrugated grooves 13 through the synchronization assembly 10, the feed box 801 vibrates up and down at a certain frequency, shaking the agglomerated luminescent materials inside the feed box 801 to prevent the discharge of the luminescent materials from being affected due to the agglomeration of the materials in the feed box 801.

[0051] During the up and down vibration of the feed box 801, since the slider 804 on the blanking box 802 is slidably engaged with the upper ring groove 14, when the feed box 801 vibrates, the feed box 801 drives the rubber sleeve 803 to stretch and fold reciprocally. When the rubber sleeve 803 stretches, the luminescent materials inside the feed box 801 enter the rubber sleeve 803; when the rubber sleeve 803 folds, the accumulated materials inside the rubber sleeve 803 move towards the feed box 801 and the blanking box 802 respectively, thereby increasing the speed at which the luminescent materials in the rubber sleeve 803 enter the blanking box 802.

[0052] Specifically, the steam generated by heating the plastic matrix inside the reactor body 1 enters the pores of the filter screen 808, making the pores of the filter screen 808 wet. When the luminescent materials inside the feed box 801 pass through the filter screen 808 and enter the reactor body 1, even if the luminescent materials meet the requirements to pass through the filter screen 808, the filter screen 808 will still be blocked due to the wet pores.

[0053] Therefore, when the transmission shaft 7 drives the blanking assembly 8 to move along the outer ring 5 through the synchronization assembly 10, under the cooperation of the columnar gear 807 and the lower ring groove 15, the columnar gear 807 starts to mesh with the rack 16. As the blanking assembly 8 continues to move along the outer ring 5, the columnar gear 807 drives the winding roller 806 to rotate, causing the winding roller 806 to tighten the filter screen 808. During the tightening process of the filter screen 808, the filter screen 808 drives the moving roller 810 and the telescopic rod 813 to move synchronously, causing the telescopic rod 813 to compress the compression spring 814 and slide into the telescopic sleeve 809, so that the telescopic rod 813 cooperates with the damping ring sleeve 815. During the rotation of the winding roller 806, the winding roller 806 drives the rotating shaft 818 and the rotating plate 819 to rotate and compress the arc spring 820. As the blanking assembly 8 moves, the columnar gear 807 disengages from the rack 16. At this time, the arc spring 820 rebounds to drive the winding roller 806 to rotate back, causing the winding roller 806 to loosen the filter screen 808. At the same time, the compression spring 814 resets to drive the telescopic rod 813 and the moving roller 810 to reset. Since the telescopic rod 813 cooperates with the damping ring sleeve 815 at this time, there will be a certain time delay in the reset of the moving roller 810. When the winding roller 806 loosens the filter screen 808, the telescopic rod 813 disengages from the damping ring sleeve 815. At this time, under the rebound of the compression spring 814, the moving roller 810 impacts the filter screen 808, shaking out the luminescent materials blocked inside the filter screen 808 to prevent the filter screen 808 from being blocked due to wet pores.

[0054] The foregoing has shown and described the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments, and what is described in the above embodiments and the specification is only to illustrate the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and all these changes and improvements fall within the scope of the present invention claimed.

Claims

1. A reactor for producing energy storage type self-luminous plastic profiles, characterized in that: It includes a reactor body (1), a base (2) is installed at the bottom of the reactor body (1), an outer ring (5) and an inner ring (6) are respectively installed at the top of the reactor body (1), a feed inlet is formed between the outer ring (5) and the inner ring (6), the outer ring (5) and the inner ring (6) are connected by a connecting plate (12), a blanking component (8) is slidably installed between the outer ring (5) and the inner ring (6), and the connecting plate (12) is connected to the blanking component (8) through a return spring (9). A top plate (3) is installed at the top of the reactor body (1), a motor (4) is installed on the top plate (3), the output end of the motor (4) is connected to a transmission shaft (7), a synchronous component (10) and a stirring rod (17) are respectively installed on the transmission shaft (7), the stirring rod (17) is located inside the reactor body (1), and the synchronous component (10) is located outside the reactor body (1). The blanking component (8) includes a feed box (801), a blanking box (802) and a rubber sleeve (803). The feed box (801) is connected to the blanking box (802) through the rubber sleeve (803). The blanking box (802) is slidably matched with the inner ring (6). A filter screen (808) is installed inside the blanking box (802). A sliding column (805) is installed on the feed box (801). Corrugated grooves (13) are formed on both the outer ring (5) and the inner ring (6). The sliding column (805) is slidably matched with the corrugated grooves (13). The motor (4) drives the transmission shaft (7) and the synchronous component (10) to rotate. The synchronous component (10) pushes the feed box (801) to slide along the corrugated grooves (13) through the sliding column (805).

2. The reactor for producing the energy-storing and self-luminous plastic profile according to claim 1, characterized in that: An upper ring groove (14) is formed on the inner ring (6). A slider (804) is installed on the blanking box (802). The slider (804) is slidably matched with the upper ring groove (14).

3. The reactor for producing energy storage and self-luminous plastic profiles according to claim 1, characterized in that: A winding roller (806) is rotatably installed on the blanking box (802). The winding roller (806) is connected to the filter screen (808). A number of fixed rollers (812) are fixedly installed inside the blanking box (802). A number of liftable moving rollers (810) are installed inside the blanking box (802). One end of the filter screen (808) is fixedly installed on the inner wall of the blanking box (802). The other end of the filter screen (808) passes through the moving rollers (810) and the fixed rollers (812) and is connected to the winding roller (806).

4. A reactor for producing a light-storing self-luminous plastic profile according to claim 1, characterized in that: A side platform one (816) and a side platform two (817) are fixedly installed on the blanking box (802). A columnar gear (807) is fixedly installed at one end of the winding roller (806). The columnar gear (807) is rotatably connected to the side platform one (816). A rotating shaft (818) is fixedly connected to the other end of the winding roller (806). A rotating groove (822) is formed on the side platform two (817). A fixed plate (821) is fixedly installed inside the rotating groove (822). A rotating plate (819) is installed on the rotating shaft (818). The rotating plate (819) is connected to the fixed plate (821) through an arc spring (820).

5. The reactor for producing the energy storage and light-emitting self-luminous plastic profile according to claim 4, wherein: A lower ring groove (15) is formed on the inner ring (6). Rack bars (16) are arranged at intervals inside the lower ring groove (15). The columnar gear (807) is meshed with the rack bars (16).

6. The reactor for producing a light-storing self-luminous plastic profile according to claim 1, wherein: A telescopic sleeve (809) is installed inside the blanking box (802), a telescopic rod (813) slides inside the telescopic sleeve (809), and the telescopic rod (813) is rotatably connected to the moving roller (810).

7. The reactor for producing the energy storage and light-emitting self-luminous plastic profile according to claim 6, characterized in that: The telescopic rod (813) is connected to the inner wall of the telescopic sleeve (809) through a compression spring (814). A damping ring sleeve (815) is installed on the inner side wall of the telescopic sleeve (809), and the damping ring sleeve (815) cooperates with the telescopic rod (813). A folding plate (811) is installed inside the blanking box (802), and one end of the folding plate (811) is connected to the moving roller (810).

8. A reactor for producing energy-saving and self-luminous plastic profiles according to claim 1, characterized in that: The synchronization component (10) includes a straight rod (101). The straight rod (101) is connected to the transmission shaft (7). A telescopic groove (103) is formed in the straight rod (101), and a telescopic roller (102) is slidably installed in the telescopic groove (103). The telescopic roller (102) is connected to the inner wall of the telescopic groove (103) through a compression spring (104). A convex strip (11) is installed on the inner wall of the inner ring (6). When the telescopic roller (102) passes over the convex strip (11), the convex strip (11) presses the telescopic roller (102).

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