TWM496523U - Energy-saving carbon-reducing compound plastic pellet production mechanism - Google Patents

Description

Energy-saving and carbon-reducing composite plastic pellet manufacturing mechanism

This creation is related to a plastic pellet manufacturing machine.

According to FIG. 1 , it is a schematic view of a conventional plastic pellet manufacturing machine, which discloses a conventional plastic pellet manufacturing machine having a plurality of storage buckets 1 and such The storage tank 1 is connected to a certain amount of mixer 2, which is connected with a biaxial extruder 3, which is connected with a cooling device 4, whereby an NCO-containing isocyanate can be connected. An acid salt polymer, an OH-containing hydroxy compound, and a bridging agent are respectively stored in the storage tanks 1 and simultaneously sent to the quantitative mixing machine 2 to be heated and melted into a liquid thermoplastic polyurethane resin, and then passed through the double shaft. The extruder 3 extrudes the thermoplastic polyurethane resin to the cooling device 4 for granulation in water to obtain a finished plastic product, wherein the water granulation system extrudes the thermoplastic polyurethane resin from the biaxial extruder 3 to make the thermoplastic The polyurethane resin is formed into a strip shape, and the thermoplastic polyurethane resin is cut into a circular or cylindrical block shape through the cooling device 4, and the block-shaped thermoplastic polyurethane resin is dropped into a water tank to be cooled to form a plastic pellet, and finally borrow The plastic pellets are dried by a heater, and the plastic pellets are packaged and sent downstream, and then various products are produced.

However, the above conventional plastic pellet manufacturing machine has the following disadvantages:

1. The plastic pellet manufacturing machine performs a process of mixing, kneading and squeezing through the biaxial extruder 3, and the biaxial extruder 3 has a length to diameter ratio of 50 and a diameter of about 77 cm, so that the double shaft is made. The length of the extruding machine 3 is about 4 m, and the viscosity of the thermoplastic polyurethane resin is about 100,000 cps. Therefore, the motor of the biaxial extruder 3 needs to output a high torque of at least 200 hp or more, and has a high power of 150 瓩 or more. And the disadvantages of high power consumption, in addition, in view of the different degree of reaction of the raw materials, in fact, the viscosity of the thermoplastic polyurethane resin is also different, so that the energy of the biaxial extruder 3 is wasted, very environmentally friendly, and if used In order to increase production, increase the When the rotational speed of the biaxial extruder 3 causes the thermoplastic polyurethane resin to be output without being completely reacted, the defective product is produced, and the plastic pellet manufacturing machine is difficult to achieve both in terms of yield and quality, and is extremely environmentally friendly.

2. The output port of the quantitative mixer 2 often accumulates and blocks, so that the pressure in the metering mixer 2 will increase, which may easily lead to accidents such as squibs, and further deteriorate the finished product.

3, the production of various types of plastic pellets must be adjusted according to the physical requirements of the product, however, the plastic pellet manufacturing machine is a continuous process, therefore, in the test process, each continuous process must be completed for each parameter, therefore, heavy The continuous process will greatly increase the waste of energy and resources.

In view of this, after the above-mentioned shortcomings were observed, the creators of this case believed that the conventional plastic pellet manufacturing machine had the necessary improvement, and the creation of this creation was not found.

The main purpose of this creation is to provide a manufacturing mechanism for energy-saving and carbon-reducing composite plastic pellets, which is optimized for the segmentation of the process, so that the output power can be matched with the various stages of the process to avoid energy waste. Thereby achieving the effect of energy saving and carbon reduction.

The secondary objective of this creation is to provide a manufacturing mechanism for energy-saving and carbon-reducing composite plastic pellets, which is modified for a quantitative mixer to stabilize the finished product and avoid the occurrence of clogging of the injection holes.

Another object of the present invention is to provide a manufacturing mechanism for energy-saving and carbon-reducing composite plastic granules, which is capable of easily performing trial operation on a process through a segmentation process device that can be easily disassembled and assembled to obtain the best. The process parameters are greatly reduced, and the time for commissioning is greatly shortened, and the economic benefits are enhanced.

In order to achieve the above-mentioned main purpose, the manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet provided by the present invention comprises a shot mixing device, which comprises a plurality of storage buckets, and the storage buckets are connected with at least one shot. a material mixing device; a feeding device comprising a material receiving body, wherein the material receiving body is formed with an inlet chamber, and the material receiving chamber is coupled to the material mixing device Connected, and the feeding device is provided with a first motor at one end of the receiving body, the first motor has a first torque, and the first motor is connected with two feeding screws parallel to each other. The feed screw is disposed in the feed chamber; a kneading reaction device includes a kneading reaction container, and the kneading reaction chamber is formed with a kneading reaction chamber, and the kneading reaction chamber is formed And communicating with the feeding device, the kneading reaction device is provided with a second motor at one end of the kneading reaction container, the second motor has a second torque, and the second torque is greater than the first Torque, the second motor is connected with two kneading reaction screws which are parallel to each other, and the kneading reaction screw is disposed in the kneading reaction chamber; and a reaction escrow device includes a reaction accommodating body, the reaction The reaction accommodating chamber is formed with a reaction escaping chamber, the reaction escaping chamber is connected to the kneading reaction device, and the reaction escrow device is provided with a third horse at one end of the reaction escaping body. The third motor has a third torque, and the third torque is greater than the first torque. The third motor is coupled with two reaction staking screws that are parallel to each other, and the reaction sling screws are disposed on the third motor. The reaction is sent to the chamber; a cooling device is connected to the reaction sling device for receiving the plastic granule raw material mixture outputted from the reaction esporting device, and cooling and shaping the plastic granule raw material mixture.

In order to achieve the above secondary purpose, wherein the shot mixing device comprises a horse The motor has an output shaft, and the output shaft is provided with a coupling, the coupling is connected with a rotating shaft, and the outer sleeve of the rotating shaft is provided with an outer tube, and the outer tube is provided with a first bearing and a second bearing, the outer tube is provided with a positioning seat between the first bearing and the second bearing, the positioning seat is provided with a first baffle and a second baffle along a radial direction of the outer tube, the outer bearing A first positioning piece and a second positioning piece are radially disposed between the first baffle and the second baffle of the positioning seat, and the projecting mixing device is disposed between the first bearing and the second bearing a piston is disposed, and the outer tube is further connected with a mixing screw, wherein the outer tube is reciprocated along the axial direction of the outer tube by the piston, so that the first positioning piece pushes the first block In the case of the plate, the mixing screw has a first position, and when the second positioning piece pushes the second baffle, the mixing screw has a second position.

To achieve the above further object, wherein the shot mixing device and the feeding device The slider is provided with a slider for sliding the injection mixing device, so that the inlet of the feeding device communicates with the outside.

The manufacturing unit of the energy-saving and carbon-reducing composite plastic pellet provided by the creation, by the first A motor, the second motor, and the third motor respectively output different torques according to different devices and processes, and can eliminate the need for a high-power two-axis extruder for continuous process of mixing, kneading and escorting, thereby avoiding In the process, the optimum parameters of the device cannot be adjusted to waste energy, and the feeding device, the kneading reaction device and the reaction escing device can respectively adjust the best collateral mixing and kneading according to the material characteristics of different products. The speed can also be quickly combined to the best condition, which can achieve the effect of quickly increasing the mixing of materials, so that the uniformity of mixing can be effectively improved, thereby achieving the effect of energy saving and carbon reduction, and further, through the shooting. The mixing screw of the material mixing device reciprocates to avoid clogging, so that the process and the finished product are more stable, and the slider can be slid through the slider for the user to test the process to obtain Optimize process parameters and significantly reduce the time for commissioning, and increase economic benefits.

[知知]

1‧‧‧ storage bucket

2‧‧‧Quantitative mixer

3‧‧‧Double-axis extruder

4‧‧‧Cooling device

[This creation]

10‧‧‧shot mixing device

11‧‧‧ storage bucket

12‧‧‧shot mixing head

13‧‧‧Motor

131‧‧‧ Output shaft

14‧‧‧Coupling

15‧‧‧ shaft

16‧‧‧External management

161‧‧‧First bearing

162‧‧‧second bearing

17‧‧‧ Positioning Block

171‧‧‧First baffle

172‧‧‧second baffle

173‧‧‧First positioning piece

174‧‧‧Second positioning piece

18‧‧‧Piston

181‧‧‧Cylinder

182‧‧‧ piston head

183‧‧‧Perforation

19‧‧‧Mixed screw

20‧‧‧Feeding device

21‧‧‧Incoming material

22‧‧‧Into the material room

221‧‧‧Inlet entrance

222‧‧‧Inlet exports

23‧‧‧First motor

24‧‧‧First gearbox

241‧‧‧First reduction gear set

25‧‧‧feed screw

26‧‧‧ Slider

27‧‧‧Slide rails

30‧‧‧Kneading reaction device

31‧‧‧Kneading reaction chamber

32‧‧‧Kneading reaction chamber

321‧‧‧Kneading reaction inlet

322‧‧‧Kneading reaction exit

33‧‧‧second motor

34‧‧‧Second gearbox

341‧‧‧Second reduction gear set

35‧‧‧Kneading reaction screw

37‧‧‧First pressure sensor

38‧‧‧heater

40‧‧‧Reaction escort device

41‧‧‧Responsive escorting body

42‧‧‧Responsive escorting room

421‧‧‧Response to the entrance

422‧‧‧Response to export

43‧‧‧ Third motor

44‧‧‧ third gearbox

441‧‧‧3rd reduction gear set

45‧‧‧Reaction escort screw

47‧‧‧Second pressure sensor

50‧‧‧Cooling device

Figure 1 is a schematic view of a conventional plastic pellet manufacturing machine.

Figure 2 is a schematic diagram of the combination of the creation.

Figure 3 is a schematic cross-sectional view of the present invention.

Fig. 4 is a partial cross-sectional view showing the feeding device, the kneading reaction device and the reaction escing device of the present invention.

Figure 5 is a schematic diagram of the actuation of the shot mixing device of the present invention to show the first position.

Figure 6 is a schematic diagram of the action of the present invention of the shot mixing device to show the second position.

Figure 7 is a schematic diagram of the operation of the slider of the present creation.

Please refer to Figure 2, which is a combination diagram of this creation, and please cooperate with Referring to Figures 3 and 4, it is a schematic cross-sectional view of the present invention, and a partial cross-sectional view of the feeding device, the kneading reaction device and the reaction escrow device, which discloses an energy-saving and carbon-reducing composite The manufacturing mechanism of the plastic pellets, the manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellets comprises: a shot mixing device 10, which comprises a plurality of storage buckets 11 for storing several different plastic pellet raw materials and measuring The storage tanks 11 are connected with at least one shot mixing head 12 for quantitatively receiving the plastic pellet raw materials introduced by the storage tanks 11, and uniformly mixing the plastic pellet raw materials, and then sloping The injection mixing device 10 includes a motor 13 having an output shaft 131. The output shaft 131 is coupled to a coupling 14, and the coupling 14 is coupled to a rotating shaft 15, The outer sleeve 16 is provided with an outer tube 16 , and the outer tube 16 is provided with a first bearing 161 and a second bearing 162 . The outer tube 16 is disposed between the first bearing 161 and the second bearing 162 . Positioning seat 17, the positioning seat 17 is along the radial direction of the outer tube 16 There is a first baffle 171 and a second baffle 172. The outer tube 16 is provided with a first positioning piece 173 and a second portion between the first baffle 171 and the second baffle 172 of the positioning base 17 . The positioning piece 174 is further provided with a piston 18, and the piston 18 includes a cylinder 181. The inner ring of the cylinder 181 is provided with a piston head 182. The outer tube 16 is threaded through the cylinder. 181, and is sleeved on the piston head 182, the cylinder 181 is provided with a through hole 183 on opposite sides of the piston head 182, and the outer tube 16 is further connected with a mixing screw 19, thereby The tube 16 can be reciprocated along the axial direction of the outer tube 16 by the driving of the piston 18, and when the first positioning piece 173 is pushed up against the first baffle 171, the mixing screw 19 has a first position. When the two positioning pieces 174 push the second baffle 172, the mixing screw 19 has a second position. The first positioning piece 173 and the second positioning piece 174 are screwed to the outer tube 16 so that the first positioning piece 173 and the second positioning piece 174 can adjust their relative positions and follow the outer tube 16 . The distance between the first positioning piece 173 and the first baffle 171 is corresponding to the distance that the outer tube 16 moves axially toward the motor 13. The second positioning piece 174 and the second baffle 172 The distance is the distance that the outer tube 16 is moved in the axial direction away from the motor 13.

a feeding device 20 comprising a receiving body 21 for receiving the material An inlet chamber 22 is formed in the body 21, and the inlet chamber 22 is in communication with the shot mixing device 10 for receiving the plastic material mixture which is poured from the shot mixing head 12, and The feeding device 20 is provided with a first motor 23 at one end of the receiving body 21, the first motor 23 has a first torque, and the first torque of the first motor 23 is 10 horsepower. Between 50 horsepower, in the preferred embodiment of the present invention, the first torque of the first motor 23 is 20 horsepower, and the first motor 23 is provided with a first gear box 24, the first gear box The 24 series has a first reduction gear set 241, the reduction ratio of the first reduction gear set 241 is between 5:1 and 20:1, and the inlet receiving body 21 is adjacent to one end of the first motor 23. The outer wall edge is provided with a feed inlet 221, such that the feed volume chamber 22 and the shot mixing device 10 are connected to each other. The feed container 21 is provided adjacent to the outer edge of the feed inlet 221 a slide rail 27, and the shot mixing device 10 is provided with a slider 26 relative to the slide rail 27, and the slider 26 is provided for the shot mixing device 10 The slide rail 27 of the feed container 21 slides to expose the feed inlet 221, and the other end of the feed chamber 22 is further provided with a feed outlet 222, and the first motor 23 is connected Two feed screws 25 parallel to each other, the feed screws 25 are disposed in the feed chamber 22, and can be driven by the first motor 23 to mix and output the plastic raw material mixture. .

a kneading reaction device 30 comprising a kneading reaction container 31, which A kneading reaction chamber 32 is formed in the kneading reaction container 31, and the kneading reaction chamber 32 is in communication with the feeding device 20 for receiving the plastic material raw material mixture output from the feeding device 20, and the kneading is further performed. The reaction device 30 is provided with a second motor 33 at one end of the kneading reaction container 31. The second motor 33 has a second torque, and the second torque is greater than the first torque. The second motor 33 The second torque is between 20 horsepower and 100 horsepower. In the preferred embodiment of the present invention, the second torque of the second motor 33 is 30 horsepower, and the second motor 33 is provided with a first motor. The second gear box 34 has a second reduction gear set 341, and the second reduction gear set 341 has a reduction ratio of between 5:1 and 20:1, and the kneading reaction container 31 is provided with a kneading reaction inlet 321 near the outer wall edge of one end of the second motor 33, so that the The kneading reaction chamber 32 and the feeding device 20 are connected to each other. The other end of the kneading reaction chamber 32 is further provided with a kneading reaction outlet 322, and the second motor 33 is connected with two kneading reaction screws parallel to each other. 35, and the kneading reaction screw 35 is disposed in the kneading reaction chamber 32, and is driven by the second motor 33 to knead the plastic material mixture and output the kneading reaction device 30. A first pressure sensor 37 is connected to the feeding device 20, the first pressure sensor 37 senses a first pressure, and the first pressure sensor is electrically connected to the second motor 33. When the first pressure is 5 kg per square centimeter to 150 kg per square centimeter, the first pressure sensor 37 controls the second motor 33 to drive the kneading reaction screw 35 to operate. In a preferred embodiment, when the first pressure is 20 kg per square centimeter to 50 kg per square centimeter, the first pressure sensor 37 controls the second motor 33 to drive the kneading reaction screw 35 to obtain the most Good kneading reaction effect The kneading reaction device 30 is provided with a heater 38 for heating the kneading reaction chamber 32, wherein the kneading reaction chamber 32 is heated, wherein the kneading reaction device 30 is not heated, and the kneading reaction chamber 32 is heated. The temperature of the device 38 is between 50 ° C and 250 ° C, thereby increasing the reaction rate and further increasing the yield, and avoiding deterioration due to insufficient reaction temperature or excessive reaction temperature.

a reaction escort device 40, comprising a reaction escort housing 41, A reaction escaping chamber 42 is formed in the reaction accommodating container 41, and the reaction sumping chamber 42 is in communication with the kneading reaction device 30 for receiving the plastic granule raw material mixture output from the kneading reaction device 30, and the reaction The urging device 40 is provided with a third motor 43 at one end of the reaction accommodating body 41. The third motor 43 has a third torque, and the third torque is greater than the first torque. The third motor 43 The third torque is between 20 horsepower and 100 horsepower. In the preferred embodiment of the present invention, the third torque of the third motor 43 is 30 horsepower, and the third motor 43 is provided with a first a third gear box 44 having a third reduction gear set 441, the reduction ratio of the third reduction gear set 441 is between 5:1 and 20:1, and the reaction accommodating body A reaction escort inlet 421 is disposed adjacent to an outer wall edge of one end of the third motor 43 so that the reaction sump chamber 42 and the kneading reaction device 30 are connected to each other. The other end of the chamber 42 is further provided with a reaction esporting outlet 422. The third motor 43 is connected with two reaction staking screws 45 which are parallel to each other, and the reaction staking screws 45 are disposed in the reaction escaping chamber 42. And the third motor 43 can be driven to drive, and the plastic pellet raw material mixture is reacted and outputted, thereby completing the mixing, kneading and squeezing operations, and the reaction splicing device 40 is connected with the kneading reaction device 30. There is a second pressure sensor 47, the second pressure sensor 47 senses a second pressure, and the second pressure sensor 47 is electrically connected to the third motor 43 when the second pressure is per square. When the centimeters are 10 kg to 200 kg per square centimeter, the second pressure sensor 47 controls the third motor 43 to drive the reaction staking screws 45 to operate. In the preferred embodiment of the present invention, when the second pressure is When the square pressure is 50 kg to 100 kg per square centimeter, the second pressure sensor 47 controls the third motor 43 to drive the reaction staking screw 45 to obtain the best reaction escort effect, thereby avoiding insufficient reaction pressure. The reaction escorting is not correct or the reaction pressure is too high, resulting in incomplete reaction escorting.

A cooling device 50 is coupled to the reaction squeezing device 40 for receiving the plastic granule raw material mixture output from the reaction urging device 40, and cooling and shaping the plastic granule raw material mixture.

In order to further understand the characteristics of this creation, the use of technical means and the expected results, we will use the way of using this creation. I believe that we can have a deeper and more specific understanding of this creation, as follows: Please continue to refer to As shown in Fig. 2 to Fig. 4, through the manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet, the user only needs to separately prepare the raw materials required for diphenylmethane diisocyanate, polyol, dihydroxybutane and catalyst. Disposed in the storage tanks 11 and sent to the shot mixing head 12 for uniform mixing, wherein the storage tanks 11 and the shot mixing head 12 are provided with a certain amount of pumps, so that the raw materials can be The shot mixing head 12 is metered in, and excess material can be re-flowed back to the storage tanks 11 to maintain the optimum state of the materials, after the materials are uniformly mixed in the shot mixing head 12, and then After being mixed into the feeding device 20, after being mixed, the output is sent to the kneading reaction device 30 for kneading reaction, and then output to the reaction squeezing device 40 to complete the mixing and pinching. And the escrow operation, the forced cooling and setting of the cooling device 50 is performed, thereby completing the plastic pellet manufacturing, whereby the creation of the plastic material is matched by the first motor 23, the second motor 33, and the third motor 43. The mixed state of the mixture respectively outputs the first torsion force, the second torsion force and the third torsion force. Compared with the high torque, high power and high power consumption of the conventional two-axis extruder, the creation greatly reduces the output torque of the motor. The overall power and the amount of electricity are low (about 80 瓩). In addition, the feeding device 20, the kneading reaction device 30 and the reaction urging device 40 can respectively be based on the materials, characteristics and qualities of various plastic granule products. By adjusting the torque of the motors and the rotation speed of the screws, the effects of material mixing, kneading reaction and mixed chain can be independently adjusted, thereby further improving the quality and yield of the plastic pellets of the present invention.

It is worth mentioning that the feed screw 25, the kneading reaction screw 35 and The reaction staking screw 45 has a length to diameter ratio of between 15 and 30. In a preferred embodiment of the present invention, a screw having a diameter of 77 cm is used, and the feed screw 25, the kneading reaction screw 35, and the like are used. The length of the reaction staking screw 45 is between 1155 and 2310 cm. Compared with the length-to-diameter ratio of the spindle shaft of the conventional twin-axis extruder up to 50 and the length of 4 m, the creation greatly shortens the length of the screw, and the motor can be reduced. The torque can further reduce the overall power and power consumption, thereby achieving the effect of saving energy. Moreover, the length-diameter ratios of the feed screw 25, the kneading reaction screw 35 and the reaction urging screw 45 can be different. In a preferred embodiment of the present invention, the length-to-diameter ratios of the feed screw 25, the kneading reaction screw 35, and the reaction urging screw 45 are respectively 15:25:30 or 30:15:20, in other words, According to the demand, physical properties and quality of the plastic granules, the creation can further adjust the length-diameter ratio of the screw according to the torque of the motors and the rotation speed of the screws, and can independently adjust the material mixing, reaction and mixed chain. effect , While further improving grain quality and yield of this plastic creation.

In the present embodiment, the kneading reaction device 30 is provided with a heater. 38, heating the kneading reaction chamber 32, wherein the temperature of the heater 38 is between 50 ° C and 250 ° C. In another embodiment, the feeding device 20, the kneading reaction device 30, and the reaction escort The device 40 can be optionally equipped with a heater, whereby the creation can be based on the demand of the plastic product. The quality, quality, etc., in accordance with the torque of the motors and the speed of the screws, the length to diameter ratio of the screw, to adjust the heating temperature, can avoid the reaction temperature is too low or the reaction temperature is too high and deteriorate, and can achieve independent adjustment of material mixing The effect of the reaction and the mixed chain, and further improve the quality and yield of the plastic pellets of the creation.

Please continue to refer to Figure 5 and Figure 6. In the operation diagram, when the raw materials are used to shoot the material by using the shot mixing device 10, the user only needs to sequentially input the gas into the cylinder 181 from the perforations 183, and the gas will push the piston head. 182 interlocking the mixing screw 19 to reciprocate, so that the mixing screw 19 can retreat the residual accumulated material in the shot mixing head 12 by reciprocating motion, and further prevent the raw materials from being accumulated in the shot mixing head 12 The inside is blocked, so that the discharge of the shot mixing head 12 can be more stable. In a preferred embodiment of the present invention, the cycle of the reciprocating motion of the mixing screw 19 is between 1 and 60 times per minute, so that the finished product is stable and the tube is not easily smashed or the mixing head 12 is blocked. It is worth mentioning that when the mixing screw 19 is in the first position, the mixing screw 19 is between 20 mm and 50 mm from the feeding screw 25, when the mixing screw 19 is in the second position. The mixing screw 19 is between 1 mm and 5 mm from the feed screw 25, whereby not only the residue in the shot mixing head 12 but also the mixing screw 19 and the feed screw 25 can be pushed out. It will break without collision.

Please continue to refer to FIG. 7 , which is a schematic diagram of the operation of the slider of the present invention. When the user wants to perform the test run, only the slider 26 needs to be slid on the slide rail 27 to make the shot mixing device 10 . By sliding, the inlet inlet 221 can be exposed, whereby the user can directly feed through the inlet inlet 221 and perform trial operation to obtain optimized process parameters, thereby allowing the user to process for each stage. The test run is carried out to obtain optimized process parameters, and the test run time is greatly shortened, and the effect of energy saving and carbon reduction is achieved.

Hereby, the characteristics of this creation and its achievable expected effects are stated as follows:

1. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet of the present invention, the first motor, the second motor and the third motor are respectively matched with different devices and processes to output appropriate The torque can eliminate the need for a high-power two-axis extruder for the continuous process of mixing, kneading and escorting, thereby avoiding wasting energy in the process of not being able to adjust the optimum parameters of the device, and the feeding device and the kneading reaction device And the reaction escrow device can adjust the optimal rotation speed of the collateral mixing and kneading according to the material characteristics of different products, and can also quickly arrange and combine them to the optimal state, thereby achieving the effect of rapidly increasing the material mixing. Therefore, the uniformity of mixing can be effectively improved, thereby achieving the effect of energy saving and carbon reduction.

2. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet of the present invention reciprocates through the mixing screw of the shot mixing device to avoid clogging, so that the process and the finished product are more stable.

3. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic granule of the present invention can be used to slide the shot mixing device through the slider for the user to test the process to obtain optimized process parameters and greatly Shorten the trial operation time and increase the economic benefits.

In summary, this creation has its excellent progress and practicality in similar products. At the same time, it has investigated the technical information about such structures at home and abroad. The same structure has not been found in the literature. This creation has already possessed new types of patent requirements, and applied for it according to law.

However, the above-mentioned ones are only one of the preferred embodiments of the present invention, and the equivalent structural changes in the application of the present specification and the scope of the patent application are intended to be included in the scope of the present patent.

20‧‧‧Feeding device

21‧‧‧Incoming material

22‧‧‧Into the material room

221‧‧‧Inlet entrance

222‧‧‧Inlet exports

23‧‧‧First motor

24‧‧‧First gearbox

241‧‧‧First reduction gear set

25‧‧‧feed screw

26‧‧‧ Slider

27‧‧‧Slide rails

30‧‧‧Kneading reaction device

31‧‧‧Kneading reaction chamber

32‧‧‧Kneading reaction chamber

321‧‧‧Kneading reaction inlet

322‧‧‧Kneading reaction exit

33‧‧‧second motor

34‧‧‧Second gearbox

341‧‧‧Second reduction gear set

35‧‧‧Kneading reaction screw

37‧‧‧First pressure sensor

38‧‧‧heater

40‧‧‧Reaction escort device

41‧‧‧Responsive escorting body

42‧‧‧Responsive escorting room

421‧‧‧Response to the entrance

43‧‧‧ Third motor

44‧‧‧ third gearbox

441‧‧‧3rd reduction gear set

45‧‧‧Reaction escort screw

47‧‧‧Second pressure sensor

Claims (10)

The invention relates to a manufacturing mechanism for energy-saving and carbon-reducing composite plastic pellets, which comprises: a shot mixing device, which comprises a plurality of storage buckets, wherein the storage buckets are connected with at least one shot mixing head; and a feeding device The utility model comprises a feed receiving body, wherein the feed receiving body is formed with an inlet receiving chamber, the feeding receiving chamber is connected with the injection mixing device, and the feeding device is in the feeding capacity One end of the body is provided with a first motor, the first motor has a first torque, and the first motor is connected with two feeding screws parallel to each other, and the feeding screws are disposed on the feeding a kneading reaction device comprising a kneading reaction container, wherein the kneading reaction body is formed with a kneading reaction chamber, the kneading reaction chamber is connected to the feeding device, and the kneading reaction is further The device is provided with a second motor at one end of the kneading reaction container, the second motor has a second torque, and the second torque is greater than the first torque, and the second motor is connected with two parallel to each other. Kneading reaction screw, and these a reaction screw system is disposed in the kneading reaction chamber; a reaction escort device includes a reaction escaping body, and the reaction accommodating body is formed with a reaction escaping chamber, and the reaction accommodating chamber is The kneading reaction device is connected to each other, and the reaction escing device is provided with a third motor at one end of the reaction escaping body, the third motor has a third torsion force, and the third torsion force is greater than the first torsion force, The third motor is connected with two reaction staking screws parallel to each other, and the reaction squeezing screws are disposed in the reaction escaping chamber; a cooling device is connected to the reaction sling device for receiving from the reaction The plastic material mixture outputted by the escort device is cooled and shaped into a plastic finished product; thereby, the creation can independently adjust the torque of the motors, and the material mixing, reaction and mixed chain can be independently adjusted. The effect is to further improve the quality and output of the plastic pellets of the creation, and achieve the effect of energy saving and carbon reduction. According to the manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet described in claim 1 of the patent application scope, Wherein the first torque of the first motor is between 10 horsepower and 50 horsepower, and the second torque of the second motor is between 20 horsepower and 100 horsepower, the third motor The three torsion system is between 20 horsepower and 100 horsepower. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 1, wherein the first motor is provided with a first gearbox, and the first gearbox has a first reduction gear set. The reduction gear ratio of the first reduction gear set is between 5:1 and 20:1, the second motor is provided with a second gearbox, and the second gearbox has a second reduction gear set, the second The reduction gear ratio of the reduction gear set is between 5:1 and 20:1, and the third motor is provided with a third gearbox having a third reduction gear set, the third reduction gear The reduction ratio of the group is between 5:1 and 20:1. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 1, wherein the kneading reaction device and the feeding device are connected with a first pressure sensor, the first pressure sensor The first pressure sensor is electrically connected to the second motor, and the first pressure sensor is when the first pressure is 5 kg per square centimeter to 150 kg per square centimeter. The second motor is controlled to drive the kneading reaction screw to operate, and the second reaction sensor is coupled to the kneading reaction device to provide a second pressure sensor, and the second pressure sensor senses a second pressure. And the second pressure sensor is electrically connected to the third motor. When the second pressure is 10 kilograms per square centimeter to 200 kilograms per square centimeter, the second pressure sensor controls the third motor. These reactions are driven to push the screw to act. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 1, wherein the projecting device comprises a motor, the motor having an output shaft, and the output shaft is provided with a coupling The coupling is connected with a rotating shaft, and the outer sleeve of the rotating shaft is provided with an outer tube, and the outer tube is spaced apart from a first bearing and a second bearing, and the outer tube is between the first bearing and the second bearing The locating seat is provided with a first baffle and a second baffle along the radial direction of the outer tube, and the outer tube is radially between the first baffle and the second baffle of the locating block. a first positioning piece and a second positioning piece are disposed, and the shot mixing device is between the first bearing and the second bearing a piston is further disposed, and the outer tube is further connected with a mixing screw, whereby the outer tube can be reciprocated along the axial direction of the outer tube by driving the piston, so that the first positioning piece pushes the first In the case of the baffle, the mixing screw has a first position, and when the second positioning piece pushes the second baffle, the mixing screw has a second position. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 5, wherein when the mixing screw is in the first position, the distance between the end of the mixing screw and the feeding screw is 20 mm. Between 50 mm, when the mixing screw is in the second position, the distance between the end of the mixing screw and the feeding screw is between 1 mm and 5 mm. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 5, wherein the outer tube reciprocates in the axial direction at a frequency of 1 to 60 times per minute. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 1, wherein a sliding rail is disposed between the injection mixing device and the feeding device, and a sliding block is disposed on the sliding rail. For the shot mixing device to slide. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 1, wherein the kneading reaction device is provided with a heater having a temperature of 50 ° C to 250 ° C. The manufacturing mechanism of the energy-saving and carbon-reducing composite plastic pellet according to claim 1, wherein the length-to-diameter ratio of the feeding screw is between 15 and 30, and the length-to-diameter ratio of the kneading reaction screw The system is between 15 and 30, and the length ratio of the reaction staking screws is between 15 and 30.