A material guiding system for plastic product production with thermal cycle constant temperature effect

Abstract

The present invention discloses a material guiding system for the production of plastic products with a thermal cycle constant temperature effect, wherein the pre-set feeding part is docked with the end of an external feeding device, and a docking part is nested and docked on the outside of the pre-set feeding part, including: a limiter, which is fixedly connected to the outside of the pre-set feeding part; a receiving groove, which is opened on the inner side of the upper end of the docking part, and the receiving groove and the hidden groove cooperate with the limiter to dock with the pre-set feeding part. In the material guiding system for the production of plastic products with a thermal cycle constant temperature effect, a large amount of heat condensed during the discharge process will pass through the copper heat-conducting part that is in contact with the device, and stably cooperate with the self-rotating reserved blades to form a downward guiding state of hot air, and then be transferred to the copper built-in constant temperature part for constant temperature treatment of the material, thereby avoiding the increase of the ambient temperature of the device and the waste of resources, and the discharged material is exposed to the residual heat of heat conduction to avoid the undesirable phenomenon of rapid solidification caused by excessive dissipation of the discharge temperature.

Description

Technical Field

[0001] The invention relates to the technical field of plastic product production, in particular to a material guiding system for plastic product production with a thermal cycle constant temperature effect. Background Art

[0002] Plastic products have become one of the most common objects on the market, and their production process has gradually become more mature. The material guide structure in the production process is one of the more important components. However, the existing material guide structure for plastic product production still has certain defects, such as:

[0003] For example, the liquid heat-conductive adhesive material guide structure with publication number CN212196019U can quickly and effectively remove air from the material guide tube body and pour the adhesive from the packaging tube into the material box, which is beneficial to saving resources and labor. However, a large amount of heat will be condensed during the discharge process of the existing plastic product production material guide structure. Its direct discharge is likely to increase the ambient temperature and waste resources. In addition, the temperature of the discharged material dissipates too quickly due to direct discharge, which is very likely to cause rapid solidification. Therefore, whether waste heat collection and constant temperature can be combined is a problem worth considering.

[0004] In view of the above problems, it is urgent to carry out innovative design based on the original material guide structure. Summary of the invention

[0005] The purpose of the present invention is to provide a material guiding system for the production of plastic products with a thermal cycle constant temperature effect, so as to solve the problem that a large amount of heat will condense during the discharge process proposed in the above background technology, and its direct discharge will easily increase the temperature of the surrounding environment and waste resources. In addition, the temperature of the discharged material will dissipate too quickly and it is very easy to cause the undesirable phenomenon of rapid solidification. Therefore, whether the waste heat collection and constant temperature can be combined is a problem worth considering.

[0006] To achieve the above object, the present invention provides the following technical solution: a material guiding system for the production of plastic products with a thermal cycle constant temperature effect, wherein the pre-set feeding piece is docked with an end of an external feeding device, and a docking piece is nested and docked on the outer side of the pre-set feeding piece, comprising:

[0007] A limiting member, which is fixedly connected to the outer side of the preset feeding member;

[0008] The receiving groove is provided on the inner side of the upper end of the docking piece, and a dark groove is reserved at the outer end of the receiving groove, and both the receiving groove and the dark groove cooperate with the limiting piece and the pre-set feeding piece to dock with each other;

[0009] A nested piece is butted against the outside of the butt piece, a heat collecting cavity is reserved on the inside of the nested piece, a butt pipe is installed through the lower end of the nested piece, and a built-in thermostatic piece connected to the inside of the butt piece is butt-jointed at the lower end of the butt pipe, and an exhaust hole is opened at the lower end of the built-in thermostatic piece;

[0010] A reserved blade, whose bearing is butted against the inner side of the butt joint fitting, and a conveyor belt is nested and installed on the outer side of the shaft end of the reserved blade, and the end of the conveyor belt is butted against a nested wheel butted against the inner side of the butt joint fitting;

[0011] A transmission member, which is nested and docked on the outer side of the shaft end of the reserved blade, and the end of the transmission member is docked with an eccentric wheel connected to the outer side of the docking member, the outer side of the docking member is bonded with a first airbag, and the outer side of the first airbag and the outer end of the eccentric wheel are mutually fitted, and the inner end of the docking member is bonded with a second airbag, and the second airbag and the first airbag are connected to each other through an air supply hose;

[0012] The sealing member is nested and installed on the inner side of the docking member, and a connecting shaft for angle support is installed through the upper end of the sealing member, and a supporting shaft is installed through the inner end of the docking member.

[0013] Preferably, the limit member has an "L"-shaped structure when viewed from above, and the limit member cooperates with the angle of the preset feeding member to rotate stably along the inner end of the accommodating groove and the dark groove to perform self-locking work, and the length of the accommodating groove is greater than the length of the dark groove. Through the "L"-shaped docking structure of the limit member, it can cooperate with the accommodating groove and the dark groove to achieve a self-locking working effect.

[0014] Preferably, the nested piece is provided with a return spring and a heat conducting piece, and the return spring is installed through the inner wall of the nested piece, and the inner end of the nested piece is butted with the heat conducting piece via the return spring.

[0015] Preferably, the heat conductive part is made of copper, and forms a telescopic support structure along the inner end of the nested part through a reset spring, and the outer surface of the heat conductive part and the outer side of the preset feeding part fit together to form a heat conduction structure. Through the good thermal conductivity of the copper material, the waste heat generated on the outside of the feeding part can be stably and quickly conducted.

[0016] Preferably, the nested wheels rotate along the inner side of the docking piece by the gravity of the contact material, and the nested wheels cooperate with the conveyor belt on the outer side of the shaft end to drive the reserved blades to form a rotating structure, and form a downward guiding state of hot air along the inner side of the nested piece, and drive the reserved blades to move through the discharge force of the material to form a conduction work of the hot air flow.

[0017] Preferably, the outer surface of the first airbag and the eccentric wheel are pressed against each other, and the eccentric wheel is synchronously rotated by the reserved blade rotation force, and the first airbag supplies air to the interior of the second airbag through an air supply hose, so that the eccentric wheel that is rotated by force can synchronously supply air to the interior of the second airbag through the squeezing force on the first airbag.

[0018] Preferably, two seals are symmetrically arranged, and the two seals form a rotating support structure through a connecting shaft, and the two seals are subjected to the squeezing force of the expanded second airbag to form an angle adaptive activity, so that during the process of the second airbag being expanded by force, the seal in contact with the upper end can be stably pushed to perform angle rotation.

[0019] Preferably, the support shaft is provided with a torsion spring and a traction rope, and a torsion spring for resetting is nested and installed on the outer side of the support shaft, and the outer end of the support shaft is butt-jointed with a traction rope connected to the sealing element.

[0020] Preferably, the support shaft drives the traction rope through the torsion spring to form a quick return structure along the inner side of the docking piece, and the sealing member forms a sliding structure through the traction rope, so that the seal that performs positional movement can stably cooperate with the relative traction force of the traction rope to form a quick reset structure.

[0021] Compared with the prior art, the beneficial effects of the present invention are: the material guiding system for producing plastic products with thermal cycle constant temperature effect;

[0022] 1. It is equipped with a nested wheel and reserved blades with synchronous transmission. During the discharge process, a large amount of heat will be condensed and will pass through the copper heat-conducting parts that are in contact with the device, and stably cooperate with the self-rotating reserved blades to form a downward guiding state of hot air, and then be transferred to the copper built-in constant temperature parts for constant temperature treatment of the materials, so as to avoid the increase of the ambient temperature of the device and waste of resources. In addition, the discharged materials are exposed to the residual heat of heat conduction to avoid the undesirable phenomenon of rapid solidification caused by excessive temperature dissipation;

[0023] 2. The symmetrically distributed seals are provided. When the reserved blades are subjected to the weight of the discharged materials, they will stably drive the eccentric wheel connected to the outside to rotate synchronously, so that it can circulate air supply to the inside of the second airbag, thereby pushing the two sets of contacting seals to move along the inner reciprocating angle of the docking parts, realizing the quantitative discharge of the discharged materials, and making the discharged materials contact with the built-in thermostatic parts for heat conduction more evenly and stably, so as to maximize the thermal cycle contact work;

[0024] 3. A docking structure with a limit piece structure is provided, and the user can regularly hold the docking piece and rotate it along the lower end of the preset feeding piece, so that the docking limit piece can quickly break away from the locking state between the blind groove, thereby conveniently disassembling, cleaning, and regularly inspecting the overall material guiding device, avoiding the cumbersome operation steps of the bolt installation structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the front cross-sectional structure of the present invention;

[0026] Figure 2 It is a schematic diagram of the top cross-sectional structure of the nesting member of the present invention;

[0027] Figure 3 It is a schematic diagram of the front cross-sectional structure of the heat conducting member of the present invention;

[0028] Figure 4 This is a schematic diagram of the structure of the pre-set feeding member of the present invention when viewed from above;

[0029] Figure 5 It is a schematic diagram of the top view structure of the docking piece of the present invention;

[0030] Figure 6 It is a schematic diagram of the front cross-sectional structure of the sealing member of the present invention;

[0031] Figure 7 A schematic diagram of the front view structure of the blade is reserved for the present invention.

[0032] In the figure: 1. docking part; 2. preset feeding part; 3. limiting part; 4. accommodating groove; 5. concealed groove; 6. nesting part; 601. reset spring; 602. heat conducting part; 7. docking pipe fitting; 8. heat collecting chamber; 9. reserved blades; 10. conveyor belt; 11. nesting wheel; 12. built-in constant temperature part; 13. exhaust hole; 14. conveying part; 15. eccentric wheel; 16. first air bag; 17. air supply hose; 18. second air bag; 19. sealing part; 20. connecting shaft; 21. supporting shaft; 2101. torsion spring; 2102. traction rope. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] See also Figure 1-7The present invention provides a technical solution: a material guiding system for the production of plastic products with a thermal cycle constant temperature effect, comprising a docking member 1, a preset feeding member 2, a limiting member 3, a containing groove 4, a hidden groove 5, a nesting member 6, a reset spring 601, a heat conducting member 602, a docking pipe member 7, a heat collecting cavity 8, a reserved blade 9, a conveyor belt 10, a nesting wheel 11, a built-in constant temperature member 12, an exhaust hole 13, a conveying member 14, an eccentric wheel 15, a first air bag 16, an air supply hose 17, a second air bag 18, a sealing member 19, a connecting shaft 20, a supporting shaft 21, a torsion spring 2101 and a traction rope 2102.

[0035] The pre-set feeding part 2 is docked with the end of the external feeding device, and the outer side of the pre-set feeding part 2 is nested and docked with a docking part 1, including:

[0036] A limiting member 3, which is fixedly connected to the outer side of the preset feeding member 2;

[0037] The receiving groove 4 is provided on the inner side of the upper end of the docking member 1, and a hidden groove 5 is reserved at the outer end of the receiving groove 4, and both the receiving groove 4 and the hidden groove 5 cooperate with the limiting member 3 and the pre-set feeding member 2 to dock with each other;

[0038] The nesting member 6 is butted against the outside of the butt joint member 1, and a heat collecting cavity 8 is reserved inside the nesting member 6, and a butt joint member 7 is installed through the lower end of the nesting member 6, and a built-in thermostatic member 12 connected to the inner side of the butt joint member 1 is butted against the lower end of the butt joint member 7, and an exhaust hole 13 is opened at the lower end of the built-in thermostatic member 12;

[0039] A reserved blade 9, whose bearing is butted against the inner side of the butt joint fitting 7, and a conveyor belt 10 is nested and installed on the outer side of the shaft end of the reserved blade 9, and a nested wheel 11 butted against the inner side of the butt joint fitting 1 is butted against the end of the conveyor belt 10;

[0040] The transmission member 14 is nested and docked on the outer side of the shaft end of the reserved blade 9, and the end of the transmission member 14 is docked with an eccentric wheel 15 connected to the outer side of the docking member 1, the outer side of the docking member 1 is bonded with a first airbag 16, and the outer side of the first airbag 16 and the outer end of the eccentric wheel 15 are mutually affixed, and the inner end of the docking member 1 is bonded with a second airbag 18, and the second airbag 18 and the first airbag 16 are mutually connected through an air supply hose 17;

[0041] The sealing member 19 is nested and installed inside the docking member 1 , and a connecting shaft 20 for angle support is installed through the upper end of the sealing member 19 , and a supporting shaft 21 is installed through the inner end of the docking member 1 .

[0042] The stopper 3 is an "L"-shaped structure when viewed from above, and the stopper 3 rotates stably along the inner ends of the receiving groove 4 and the dark groove 5 in accordance with the angle of the preset feeding member 2, and the length of the receiving groove 4 is greater than the length of the dark groove 5. The nesting member 6 is provided with a reset spring 601 and a heat conductor 602, and the inner wall of the nesting member 6 is penetrated by the reset spring 601, and the inner end of the nesting member 6 is butted with the heat conductor 602 through the reset spring 601. The heat conductor 602 is made of copper, and the heat conductor 602 forms a telescopic support structure along the inner end of the nesting member 6 through the reset spring 601, and the outer surface of the heat conductor 602 and the outer side of the preset feeding member 2 are mutually attached to form a heat conduction structure. The nesting wheel 11 rotates along the inner side of the butt joint 1 by the gravity of the contact material, and the nesting wheel 11 cooperates with the conveyor belt 10 on the outer side of the shaft end to drive the reserved blade 9 to form a rotating structure, and forms a downward guiding state of hot air along the inner side of the nesting member 6.

[0043] The pre-set feeding part 2 will stably discharge the material, and a large amount of heat will be condensed in the process of discharging, which will be stably stored in the inner end of the nesting part 6 through the copper heat conductive part 602 that is in contact with the docking part 1 and the outer side of the pre-set feeding part 2. At the same time, during the material discharge process inside the device, the weight of the discharged material will contact the nesting wheel 11, causing it to rotate accordingly, and then cooperate with the docking conveyor belt 10 to drive the reserved blade 9 to rotate, so that the self-rotating reserved blade 9 forms a downward guiding state of hot air along the docking pipe 7, and transmits it to the copper built-in constant temperature part 12 for constant temperature treatment of the remote material, so as to avoid the increase of the ambient temperature around the device and the waste of resources, and the discharged material is exposed to the residual heat of heat conduction to avoid the undesirable phenomenon of excessive rapid dissipation of the discharge temperature, which is very easy to cause rapid solidification.

[0044] The outer surface of the first airbag 16 is pressed against the eccentric wheel 15, and the eccentric wheel 15 is synchronously rotated by the rotational force of the reserved blade 9, and the first airbag 16 supplies air to the inside of the second airbag 18 through the air supply hose 17. Two seals 19 are symmetrically arranged, and the two seals 19 form a rotation support structure through the connecting shaft 20, and the two seals 19 are squeezed by the expanded second airbag 18 to form an angle adaptive activity.

[0045] When the reserved blade 9 is self-rotating due to the contact force of the weight of the discharged material, the eccentric wheel 15 connected to the outside will be stably driven by the transmission member 14 to rotate synchronously along the outer end of the docking member 1, so as to reciprocately squeeze the first air bag 16 in contact, thereby cooperating with the air supply hose 17 to circulate air supply to the inside of the second air bag 18, thereby pushing the two sets of sealing members 19 in contact to move along the reciprocating angle of the inner side of the docking member 1, realizing the quantitative discharge of the discharged material, and making the discharged material contact with the built-in constant temperature member for heat conduction more evenly and stably, so as to maximize the thermal cycle contact work.

[0046] The support shaft 21 is provided with a torsion spring 2101 and a traction rope 2102, and the outer side of the support shaft 21 is nested with a torsion spring 2101 for resetting, and the outer end of the support shaft 21 is butted with a traction rope 2102 connected to the sealing member 19. The support shaft 21 drives the traction rope 2102 along the inner side of the docking member 1 through the torsion spring 2101 to form a quick return structure, and the sealing member 19 forms a sliding structure through the traction rope 2102.

[0047] According to the use cycle of the device, the user can regularly hold the docking part 1 and rotate it along the lower end of the preset feeding part 2, so that the docking limit part 3 is forced to rotate, thereby quickly disengaging from the locked state with the hidden groove 5, and then driving the docking part 1 along the accommodating groove 4 for rapid disassembly, cleaning and regular maintenance, etc., avoiding the cumbersome operation steps of the bolt installation structure. At the same time, the overall device has no power structure, so it can be completely washed with water, and cleaning is convenient and fast.

[0048] Working principle: When using the material guiding system for plastic products production with thermal cycle constant temperature effect, according to Figure 1-7 First, place the device at the position where it needs to work. During the material discharge process inside the device, the weight of the discharged material will contact the nested wheel 11, causing it to rotate accordingly under force, and then cooperate with the docking conveyor belt 10 to drive the reserved blade 9 to rotate by itself, so as to cooperate with the self-rotating reserved blade 9 to form a downward guiding state of hot air along the docking pipe 7, and transmit it to the copper built-in constant temperature part 12 for constant temperature treatment of the far-end material. At the same time, the conveying part 14 drives the eccentric wheel 15 docked on the outside to rotate synchronously along the outer end of the docking part 1, so as to cooperate with the air supply hose 17 to circulate air supply treatment to the inside of the second airbag 18, thereby pushing the two groups of sealing parts 19 in contact to move along the inner reciprocating angle of the docking part 1, realizing the quantitative discharge of the discharged material while making the discharged material more evenly and stably contact with the built-in constant temperature part of heat conduction, and performing thermal cycle contact work to the greatest extent.

[0049] The contents not described in detail in this specification belong to the prior art known to professional and technical personnel in this field.

[0050] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A material guiding system for the production of plastic products with a thermal cycle constant temperature effect, wherein a pre-set feeding piece (2) is docked with an end of an external feeding device, and a docking piece (1) is nested and docked on the outer side of the pre-set feeding piece (2), characterized in that: include: A limiting member (3) fixedly connected to the outer side of the preset feeding member (2); A receiving groove (4) is provided on the inner side of the upper end of the docking member (1), and a hidden groove (5) is reserved at the outer end of the receiving groove (4), and both the receiving groove (4) and the hidden groove (5) cooperate with the limiting member (3) to dock with the pre-set feeding member (2); A nesting member (6) is butted against the outside of the butting member (1), a heat collecting cavity (8) is reserved on the inside of the nesting member (6), a butting pipe member (7) is installed through the lower end of the nesting member (6), and a built-in thermostatic member (12) connected to the inside of the butting member (1) is butted against the lower end of the butting pipe member (7), and an exhaust hole (13) is provided at the lower end of the built-in thermostatic member (12); A reserved blade (9), whose bearing is butted against the inner side of the butt joint member (7), and a conveyor belt (10) is nested and installed on the outer side of the shaft end of the reserved blade (9), and a nested wheel (11) butt jointed against the inner side of the butt joint member (1) is disposed at the end of the conveyor belt (10); A transmission member (14) is nested and docked on the outer side of the shaft end of the reserved blade (9), and the end of the transmission member (14) is docked with an eccentric wheel (15) connected to the outer side of the docking member (1), the outer side of the docking member (1) is bonded with a first airbag (16), and the outer side of the first airbag (16) and the outer end of the eccentric wheel (15) are in contact with each other, and the inner end of the docking member (1) is bonded with a second airbag (18), and the second airbag (18) and the first airbag (16) are connected to each other through an air supply hose (17); A sealing member (19) is nested and installed on the inner side of the docking member (1), and a connecting shaft (20) for angle support is installed through the upper end of the sealing member (19), and a supporting shaft (21) is installed through the inner end of the docking member (1); The nesting wheel (11) rotates along the inner side of the docking piece (1) by the gravity of the contact material, and the nesting wheel (11) cooperates with the conveyor belt (10) on the outer side of the shaft end to drive the reserved blades (9) to form a rotating structure, and forms a downward guiding state of hot air along the inner side of the nesting piece (6); During the process of discharging the material inside the device, the weight of the discharged material will contact the nested wheel (11), causing it to rotate accordingly, thereby cooperating with the butted conveyor belt (10) to drive the reserved blade (9) to rotate, thereby cooperating with the self-rotating reserved blade (9) to form a downward guiding state of hot air along the butted pipe (7); The outer surface of the first airbag (16) and the eccentric wheel (15) are pressed against each other, and the eccentric wheel (15) is synchronously rotated by the rotational force of the reserved blade (9), and the first airbag (16) supplies air to the interior of the second airbag (18) through the air supply hose (17); Two sealing members (19) are symmetrically arranged, and the two sealing members (19) form a rotation support structure through a connecting shaft (20), and the two sealing members (19) are subjected to the squeezing force of the expanded second airbag (18) to form an angular adaptive movement; The support shaft (21) is provided with a torsion spring (2101) and a traction rope (2102), and a torsion spring (2101) for resetting is nested and installed on the outer side of the support shaft (21), and the traction rope (2102) connected to the sealing member (19) is butt-jointed at the outer end of the support shaft (21); The support shaft (21) drives the traction rope (2102) through the torsion spring (2101) to form a quick return structure along the inner side of the docking member (1), and the sealing member (19) forms a sliding structure through the traction rope (2102).

2. A material guiding system for producing plastic products with a thermal cycle constant temperature effect according to claim 1, characterized in that: The limiting member (3) has an "L"-shaped structure when viewed from above, and the limiting member (3) cooperates with the angle of the preset feeding member (2) to rotate stably along the inner ends of the accommodating groove (4) and the dark groove (5) to perform self-locking work, and the length of the accommodating groove (4) is greater than the length of the dark groove (5).

3. The material guiding system for producing plastic products with thermal cycle constant temperature effect according to claim 1, characterized in that: The nesting piece (6) is provided with a return spring (601) and a heat conducting piece (602), and the return spring (601) is installed through the inner wall of the nesting piece (6), and the inner end of the nesting piece (6) is butted against the heat conducting piece (602) via the return spring (601).

4. A material guiding system for producing plastic products with a thermal cycle constant temperature effect according to claim 3, characterized in that: The heat conducting member (602) is made of copper, and the heat conducting member (602) forms a telescopic support structure along the inner end of the nesting member (6) through a return spring (601), and the outer surface of the heat conducting member (602) and the outer side of the preset feeding member (2) are fitted together to form a heat conduction structure.

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