Injection molding processing equipment

Abstract

The invention discloses injection molding machining equipment. The injection molding machining equipment comprises an injection molding machine, a feeding rail, a material collecting frame, a vibrating part and a separating mechanism. The injection molding machine is provided with a discharge port; the feeding track is communicated with the discharging port, a plurality of first avoiding holes are formed in the bottom wall of the feeding track, and the injection molding water gap bars penetrate through the first avoiding holes and are moved out of the feeding track; the vibrating part is used for driving the feeding track to vibrate back and forth; the separating mechanism comprises a separating part, the separating part is arranged on the feeding rail, the separating part and the feeding rail define a communicating opening, the separating part is used for blocking the injection molding water gap plate, and the injection molding part penetrates through the communicating opening to move away from the injection molding machine. The first avoiding hole and the separating part are arranged in the feeding track, the first avoiding hole and the separating part jointly separate the injection molding water gap, and compared with the prior art, the injection molding part and the injection molding water gap are separated in the feeding track, so that manual separation of the injection molding part and the injection molding water gap by a worker is not needed, and the production efficiency of the injection molding part can be improved; and the labor cost of injection molded parts is reduced.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of injection molding processing, and particularly relates to an injection molding processing device. BACKGROUND

[0002] In the prior art, after the injection molding machine completes injection molding, the injection molded parts and the injection molding sprues enter the feeding mechanism from the injection molding machine, and the feeding mechanism transports the injection molded parts and the injection molding sprues to the material storage area. The injection molding sprues are waste materials that cannot be used, and workers need to separate the injection molded parts and the injection molding sprues in the material storage area, which reduces the production efficiency of the injection molded parts and increases the labor cost of the injection molded parts. SUMMARY

[0003] In order to improve the production efficiency of the injection molded parts and reduce the labor cost of the injection molded parts, the present application provides an injection molding processing device.

[0004] The injection molding processing device provided by the present application adopts the following technical scheme: An injection molding processing device, comprising: an injection molding machine, the injection molding machine having a discharge port; a feeding track, one end of the feeding track being in communication with the discharge port, the other end of the feeding track extending downwardly in an inclined manner, and the bottom wall of the feeding track being provided with a plurality of first avoiding holes, the plurality of first avoiding holes being arranged in sequence and at intervals, and the first avoiding holes being adapted to allow the injection molding sprue bar to pass through and move out of the feeding track.

[0005] A material receiving frame, the material receiving frame being arranged at the end of the feeding track away from the injection molding machine; a vibrating member, the vibrating member being arranged outside the feeding track and being used to drive the feeding track to reciprocate in the height direction of the injection molding material separating device.

[0006] A separating mechanism, the separating mechanism comprising at least one separating member, the separating member being arranged in the feeding track, and the separating member and the inner wall of the feeding track jointly defining a communication port, and the separating member being used to block the injection molding sprue plate, and the injection molded part moving to the end of the feeding track away from the injection molding machine after passing through the communication port.

[0007] By adopting the above technical scheme, the first avoiding hole and the separating member are arranged in the feeding track to separate the injection molding sprue, the vibrating member drives the injection molded part and the injection molding sprue to move up and down, compared with the prior art, the injection molded part and the injection molding sprue are separated in the feeding track, so that the workers do not need to manually separate the injection molded part and the injection molding sprue, thereby improving the production efficiency of the injection molded parts and reducing the labor cost of the injection molded parts.

[0008] Preferably, the separating mechanism comprises a plurality of separating members, and the plurality of separating members are arranged in sequence and at intervals along the feeding track.

[0009] By adopting the technical scheme, the plurality of separation pieces can jointly block the injection molding nozzle plate material, compared with setting a single separation piece in the feeding track, the injection molding nozzle plate material and the injection molding piece can be prevented from entering the material receiving frame together when the single separation piece is damaged, thereby improving the working reliability of the injection molding processing equipment.

[0010] Preferably, the plurality of separation pieces comprises a first separation piece and / or a second separation piece, the first separation piece and the bottom wall of the feeding track jointly define a first communication opening, and the second separation piece is movably arranged in the feeding track and jointly defines a second communication opening with the side wall of the feeding track.

[0011] By adopting the technical scheme, the first separation piece and the second separation piece jointly separate the injection molding piece and the injection molding nozzle plate material, the injection molding piece sequentially passes through the first communication opening and the second communication opening to enter the material receiving frame, and the technical effect of separating the injection molding piece and the injection molding nozzle plate material can be achieved.

[0012] Preferably, a side wall of the first separation piece is slidably provided with a baffle, and the first separation piece is provided with a first driving piece, the first driving piece is connected and matched with the baffle, and the first driving piece is used to drive the baffle to move towards or away from the feeding track along the side wall of the first separation piece.

[0013] The outer bottom wall of the feeding track is provided with a second driving piece, the second separation piece has a first pivot portion, the first pivot portion is arranged close to the side wall of the feeding track, the first pivot portion penetrates through the bottom wall of the feeding track and is connected and matched with the second driving piece, and the second driving piece is used to drive the second separation piece to rotate around the central axis of the first pivot portion.

[0014] By adopting the technical scheme, the baffle can make injection molding pieces of different heights pass through the first communication opening, and the injection molding nozzle plate material is blocked at the first separation piece, thereby improving the use experience of the injection molding nozzle plate material. Moreover, the second driving piece can adjust the distance between the end wall of the second separation piece away from the first pivot portion and the side wall of the feeding track, thereby adjusting the size of the second communication opening, making injection molding pieces of various sizes pass through the second communication opening, and thereby making the injection molding processing equipment adapt to injection molding pieces of various sizes, which helps to improve the use experience of the injection molding processing equipment.

[0015] Preferably, the side wall of the feeding track comprises oppositely arranged left and right side walls, the left and right side walls are both provided with second avoiding holes, the second avoiding hole of the left side wall is oppositely arranged with the second avoiding hole of the right side wall, the second avoiding holes are correspondingly arranged with the separation pieces, and the second avoiding holes are arranged close to the upper side of the corresponding separation pieces along the inclined direction of the feeding track.

[0016] One of the left side wall and the right side wall is provided with a fan, the air outlet end of the fan is arranged opposite to the second avoiding hole arranged on the corresponding one of the left side wall and the right side wall, the fan is used for blowing air into the feeding track, and the second avoiding hole arranged on the other of the left side wall and the right side wall is adapted to make the injection nozzle plate pass through and move out of the feeding track.

[0017] By adopting the above technical scheme, the technical effect that the injection nozzle plate is moved out of the feeding track by the fan can be achieved, and compared with the manual operation of the worker, the work intensity of the worker can be reduced, and the work comfort of the worker can be improved.

[0018] Preferably, a first valve is arranged at the second avoiding hole, a third driving member is correspondingly arranged on the side wall of the feeding track, the first valve is in transmission connection with the third driving member, and the third driving member is used for driving the first valve to open or close the second avoiding hole.

[0019] By adopting the above technical scheme, the worker can open or close the second avoiding hole through the first valve according to the actual situation, so that the injection part can be prevented from passing through the avoiding hole and separating from the feeding track, and the injection nozzle plate in the feeding track can be cleaned through the second avoiding hole, so that the use reliability of the injection molding equipment can be improved.

[0020] Preferably, the separation mechanism further comprises a controller and a pattern detection member, the pattern detection member is in communication connection with the controller, and the pattern detection member is used for collecting image information at the separation member.

[0021] The third driving member and the fan are both in communication connection with the controller, the controller is adapted to control the third driving member to drive the first valve to open or close the second avoiding hole and control the fan to blow air into the feeding track according to the image information of the pattern detection member.

[0022] By adopting the above technical scheme, when only the injection nozzle plate exists at the separation member, the controller controls the first valve to open the second avoiding hole and controls the fan to blow air into the feeding track, so that the injection nozzle plate in the feeding track can be moved out of the feeding track. When the injection nozzle plate and the injection part both exist at the separation member, the controller controls the first valve to close the second avoiding hole, and the controller controls the fan to stop working, so that the injection part can be prevented from being blown away from the feeding track by the fan, and the working reliability of the injection molding equipment can be improved.

[0023] Preferably, an end of the feeding track away from the injection molding machine is provided with a plurality of feeding portions, the plurality of feeding portions are arranged along a radial direction of the injection molding processing device, and each two adjacent feeding portions have an included angle, and each feeding portion defines a feeding channel in communication with the feeding track.

[0024] The injection molding processing device further comprises a distribution mechanism between the separation mechanism and the plurality of feeding portions, the distribution mechanism comprises a guide member and a plurality of cutoff members, the guide member is movably arranged in the feeding track, and the guide member is used to control the plastic parts to move along a preset route to a corresponding one of the plurality of feeding portions, and the cutoff members are arranged between the feeding portions and the feeding track, and the cutoff members are used to communicate or block the feeding portions and the feeding track.

[0025] A discharging frame is arranged in the injection molding machine, one side wall of the discharging frame is open toward the discharging port, and an upper end wall of the discharging frame is open, the discharging frame is pivotally connected to the injection molding machine, and the injection molding machine is adapted to drive the discharging frame to rotate around a rotation axis, so that the plastic parts, the injection nozzle rod material and the injection nozzle plate material placed in the discharging frame are discharged from the discharging port out of the injection molding machine.

[0026] By adopting the above technical scheme, by arranging a plurality of feeding portions and a plurality of cutoff members in the feeding track, the plurality of feeding portions and the plurality of cutoff members are arranged one by one, the guide member can guide the injection molding parts to the corresponding feeding portion, and the cutoff member can open the feeding portion opposite to the guide member and close the feeding portion not opposite to the guide member, so that the injection molding parts can be prevented from entering the wrong feeding portion, thereby achieving the technical effect of distinguishing and collecting a plurality of different injection molding parts. In addition, the plurality of discharging frames can prevent a plurality of different injection molding parts from entering the feeding track together, and can prevent different injection molding parts from entering the same discharging frame, thereby improving the working reliability of the injection molding processing device.

[0027] Preferably, the guide member comprises a guide plate and a fourth driving member, the guide plate has a second pivot portion, the fourth driving member is arranged on an outer bottom wall of the feeding track, the second pivot portion penetrates through the bottom wall of the feeding track and is connected and matched with the fourth driving member, and the fourth driving member is used to drive the guide plate to rotate around a central axis of the second pivot portion, so as to adjust the angle of the guide plate in the feeding track.

[0028] The cutoff member comprises a cutoff portion and a fifth driving member, the cutoff portion is arranged between the feeding portion and the feeding track, the fifth driving member is mounted on the feeding portion and connected and matched with the cutoff portion, and the fifth driving member is used to drive the cutoff portion to move away from or close to the bottom wall of the feeding portion, so as to communicate or block the feeding portion and the feeding track.

[0029] By adopting the technical scheme, the rotation of the guide member is controlled by the fourth driving member, and the movement of the cutoff portion is controlled by the fifth driving member, compared with manual control of the guide member and the cutoff portion by workers, the arrangement can reduce the working strength of the workers, thereby improving the use experience of the injection molding processing equipment.

[0030] Preferably, the feeding frame is provided with a gravity detection member, the injection molding machine is provided with a position detection member, the injection molding processing equipment further comprises a controller, the gravity detection member and the position detection member are in communication connection with the controller, the gravity detection member is used to detect the gravity of the feeding frame, and the position detection member is used to detect the relative position of the feeding frame and the injection molding machine.

[0031] The controller is in communication connection with the guide member, the cutoff member and the feeding frame, and the controller is adapted to control the feeding of the feeding frame according to the detection signal of the gravity detection member and the detection signal of the position detection member, and control the guide member and the cutoff member to guide the plastic member to the corresponding feeding portion of the plastic member.

[0032] By adopting the technical scheme, the controller controls the feeding frame to rotate to a preset dumping position according to the detection signal of the gravity detection member, so that the injection molding member and the injection molding nozzle in the feeding frame enter the feeding track. The controller controls the guide member to move to a preset position opposite to the feeding portion according to the detection signal of the position detection member, controls the cutoff member to communicate the feeding portion opposite to the guide member and the feeding track, and controls the cutoff member to block the feeding portion not opposite to the guide member and the feeding track, so that the injection molding member can be moved to the preset feeding portion, thereby achieving the technical effect of automatically distinguishing the injection molding member.

[0033] In summary, the present application includes at least one of the following beneficial technical effects: 1. By arranging the first avoiding hole and the separation member in the feeding track, the first avoiding hole and the separation member separate the injection molding nozzle together, the vibration member drives the injection molding member and the injection molding nozzle to move up and down, compared with the prior art, the injection molding member and the injection molding nozzle are separated in the feeding track, so that workers do not need to manually separate the injection molding member and the injection molding nozzle, thereby improving the production efficiency of the injection molding member and reducing the labor cost of the injection molding member; 2. The technical effect of moving the injection molding nozzle plate out of the feeding track by the fan can be achieved, and compared with manual movement of the injection molding nozzle out of the feeding track by workers, the arrangement can reduce the working strength of the workers and improve the working comfort of the workers; 3. Workers can open or close the second escape hole through the first valve according to actual conditions, so that the injection molding part can be prevented from separating from the feeding rail through the escape hole, and the injection molding nozzle plate material in the feeding rail can be cleaned through the second escape hole, so that the use reliability of the injection molding processing equipment can be improved. BRIEF DESCRIPTION OF DRAWINGS

[0034] Figure 1 is a schematic view of an injection molding processing equipment according to an embodiment of the present application; Figure 2 is a sectional view of an injection molding processing equipment according to an embodiment of the present application; Figure 3 is Figure 2 is a partial enlarged view of A in FIG. 1; Figure 4 is Figure 2 is a partial enlarged view of B in FIG. 1; Figure 5 is Figure 2 is a partial enlarged view of C in FIG. 1; Figure 6 is a sectional view of an injection molding processing equipment according to an embodiment of the present application from another angle; Figure 7 is a schematic view of part of the structure of an injection molding processing equipment according to an embodiment of the present application.

[0035] REFERENCE SIGNS: 100, injection molding processing equipment; 10, injection molding machine; 101, discharge port; 102, feeding frame; 1021, first feeding frame; 1022, second feeding frame; 1023, third feeding frame; 103, first injection molding machine; 104, second injection molding machine; 105, third injection molding machine; 20, feeding rail; 201, first escape hole; 202, left side wall; 203, right side wall; 204, second escape hole; 205, first valve; 206, third driving member; 207, feeding part; 2071, feeding channel; 2072, first feeding part; 2073, second feeding part; 2074, third feeding part; 30, receiving frame; 40, vibrating member; 50, separation mechanism; 501, separation member; 5011, first separation member; 5012, second separation member; 5013, baffle; 5014, first driving member; 5015, second driving member; 5016, first pivoting part; 502, communication port; 5021, first communication port; 5022, second communication port; 60, fan; 601, air outlet end; 70, distributing mechanism; 701, guide; 7011, guide plate; 7012, fourth driving member; 7013, second pivot part; 702, stop member; 7021, stop part; 7022, fifth driving member; 7023, first stop member; 7024, second stop member; 7025, third stop member; 7026, first stop part; 7027, second stop part; 7028, third stop part. DETAILED DESCRIPTION

[0036] The application will be further described below in conjunction with the accompanying drawings. Figures 1-7 The application will be further described below in conjunction with the accompanying drawings.

[0037] The application discloses an injection molding processing equipment 100.

[0038] Referring to Figure 1 , Figure 2 and Figure 5 , the injection molding processing equipment according to the embodiments of the application comprises an injection molding machine 10, a feeding track 20, a material collecting frame 30, a vibrating member 40 and a separating mechanism 50. An injection molding die is installed in the injection molding machine 10, which is used for the molding of an injection molded part. The injection molding machine 10 has a discharge port 101, one end of the feeding track 20 is in communication with the discharge port 101. When the injection molding machine 10 completes the injection molding, the injection molding machine 10 opens the injection molding die, and the injection molded part and the injection molding nozzle in the injection molding die enter the feeding track 20 through the discharge port 101. Moreover, the other end of the feeding track 20 extends downwardly in an inclined manner. Under the action of gravity, the injection molded part and the injection molding nozzle move along the feeding track 20 from the end of the feeding track 20 close to the discharge port 101 to the end of the feeding track 20 away from the discharge port 101. In some specific embodiments, the injection molded part can be a caster body.

[0039] Further, the bottom wall of the feeding track 20 is provided with a plurality of first avoiding holes 201, which are sequentially and spaced apart in the first direction and / or the second direction of the injection molding processing equipment 100. The first direction of the injection molding processing equipment 100 can refer to the front-rear direction in Figure 2 , and the second direction of the injection molding processing equipment 100 can refer to the left-right direction in Figure 6 . In some preferred embodiments, as shown in Figure 1 , the first avoiding holes 201 are sequentially and spaced apart in the first direction and the second direction of the injection molding processing equipment 100. The injection molding nozzle is divided into injection molding nozzle bars and injection molding nozzle plates. In some specific embodiments, the shape of the injection molding nozzle bar is a small cylinder, and the shape of the injection molding nozzle plate is a long strip. The inner diameter size of the first avoiding hole 201 is greater than the outer diameter size of the injection molding nozzle bar, and the radial size of the first avoiding hole 201 is smaller than the size of the injection molded part and the size of the injection molding nozzle plate.

[0040] And the first avoiding hole 201 is suitable for the injection molding nozzle bar to pass through and move out of the feeding track 20, and by setting a plurality of first avoiding holes 201 on the bottom wall of the feeding track 20, the injection molding nozzle bar passes through the first avoiding hole 201 to leave the feeding track 20, thereby realizing the technical effect of distinguishing the injection molding and the injection molding nozzle bar. And by setting a plurality of first avoiding holes 201, the contact probability of the injection molding nozzle bar and the first avoiding hole 201 can be increased, so that the injection molding nozzle bar can be prevented from remaining in the feeding track 20, thereby improving the working reliability of the injection molding processing equipment 100.

[0041] The separation mechanism 50 includes at least one separation piece 501, the separation piece 501 is arranged in the feeding track 20, and the separation piece 501 and the inner wall of the feeding track 20 jointly define a communication port 502. In some embodiments, the separation piece 501 can jointly define the communication port 502 with the bottom wall of the feeding track 20, and / or the separation piece 501 can jointly define the communication port 502 with the side wall of the feeding track 20. The separation piece 501 is used to block the injection molding nozzle bar, the size of the communication port 502 is slightly larger than the size of the injection molding, and the size of the communication port 502 is smaller than the size of the injection molding nozzle bar. When the injection molding and the injection molding nozzle bar move along the feeding track 20, the injection molding passes through the communication port 502 and moves to the end of the feeding track 20 away from the injection molding machine 10, and the injection molding nozzle bar is blocked by the separation piece 501 and cannot pass through the communication port 502, thereby realizing the technical effect of separating the injection molding and the injection molding nozzle bar.

[0042] And the vibration piece 40 is arranged outside the feeding track 20, the vibration piece 40 is electrically connected with the external power supply, along the height direction of the injection molding separation equipment, the height direction of the injection molding separation equipment can refer to the up-down direction in the figure, Figure 2 The vibration piece 40 is used to drive the feeding track 20 to reciprocate, specifically, the vibration piece 40 drives the feeding track 20 to move up and down, and the vibration piece 40 drives the injection molding and the injection molding nozzle in the feeding track 20 to move up and down through the feeding track 20.

[0043] When the injection molding nozzle bar is accumulated at the communication port 502, the injection molding is easily blocked by the injection molding nozzle bar, so that the injection molding cannot pass through the communication port 502. By driving the injection molding and the injection molding nozzle to move up and down through the vibration piece 40, the vibration piece 40 can change the position of the injection molding nozzle accumulated at the communication port 502, so that a gap appears in the accumulated injection molding nozzle, the injection molding enters the communication port 502 through the gap, and the working reliability of the injection molding processing equipment 100 can be further improved.

[0044] And when the injection nozzle rod material interferes with the first avoiding hole 201, the injection nozzle rod material is driven up and down by the vibration piece 40, the vibration piece 40 can change the position of the injection nozzle rod material, and the injection nozzle rod material can pass through the first avoiding hole 201 and leave the feeding track 20, thereby further improving the working reliability of the injection molding processing equipment 100.

[0045] And the other end of the feeding track 20 extends downwardly, and the material collecting frame 30 is arranged at the end of the feeding track 20 away from the injection molding machine 10. Specifically, the end of the feeding track 20 away from the injection molding machine 10 extends downwardly, and the end of the feeding track 20 away from the injection molding machine 10 is open to the material collecting frame 30. Under the action of gravity, the injection molded part and the injection nozzle move from the end of the feeding track 20 close to the injection molding machine 10 to the end of the feeding track 20 away from the injection molding machine 10, and the first avoiding hole 201 and the separation piece 501 separate the injection molded part and the injection nozzle. When the injection molded part leaves the feeding track 20 from the end of the feeding track 20 away from the injection molding machine 10, the injection molded part enters the material collecting frame 30, thereby achieving the technical effect of collecting the injection molded part.

[0046] Therefore, by arranging the first avoiding hole 201 and the separation piece 501 in the feeding track 20, the first avoiding hole 201 and the separation piece 501 separate the injection nozzle together, and the vibration piece 40 drives the injection molded part and the injection nozzle to move up and down. Compared with the prior art, the injection molded part and the injection nozzle are separated in the feeding track 20, so that workers do not need to manually separate the injection molded part and the injection nozzle, thereby improving the production efficiency of the injection molded part and reducing the labor cost of the injection molded part.

[0047] Referring to Figure 2 , Figure 4 and Figure 5 In some embodiments of the present application, the separation mechanism 50 includes a plurality of separation pieces 501, which are arranged in sequence and spaced apart along the feeding track 20. Specifically, the plurality of separation pieces 501 are arranged in sequence and spaced apart along the first direction of the injection molding processing equipment 100. In some specific embodiments, as shown in Figure 2 the separation piece 501 can be two. When the injection molded part and the injection nozzle plate move to the end of the feeding track 20 away from the injection molding machine 10, the plurality of separation pieces 501 can jointly block the injection nozzle plate. Compared with arranging a single separation piece 501 in the feeding track 20, such arrangement can prevent the injection nozzle plate and the injection molded part from entering the material collecting frame 30 together when the single separation piece 501 is damaged, thereby improving the working reliability of the injection molding processing equipment 100.

[0048] Referring to Figure 2 , Figure 4 and Figure 5In some embodiments of the present application, the plurality of separating members 501 comprises a first separating member 5011 and / or a second separating member 5012. The first separating member 5011 is arranged in the feeding track 20 and cooperates with the bottom wall of the feeding track 20 to define a first communication port 5021. The second separating member 5012 is movably arranged in the feeding track 20 and cooperates with the side wall of the feeding track 20 to define a second communication port 5022. Figure 2 In some embodiments, as shown in FIG. 1, the first separating member 5011 and the second separating member 5012 are arranged in the feeding track 20. In the first direction of the injection molding processing device 100, the first separating member 5011 is arranged in front of the injection molding machine 10, and the second separating member 5012 is arranged in front of the first separating member 5011.

[0049] In addition, in the second direction of the injection molding processing device 100, the length of the first communication port 5021 is equal to the length of the inner wall of the feeding track 20, that is, the first communication port 5021 extends from one end of the inner wall of the feeding track 20 to the other end. In this way, a plurality of injection molded parts can pass through the first communication port 5021 at the same time, so that the injection molded part processing device can separate a plurality of injection molded parts and a plurality of injection molded gate at the same time, thereby improving the working efficiency of the injection molding processing device 100.

[0050] In addition, referring to Figure 6 , one end of the second separating member 5012 is pivotally connected to the feeding track 20, and the other end of the second separating member 5012 cooperates with the inner wall of the feeding track 20 to define the second communication port 5022. The second separating member 5012 can rotate around the pivot axis to adjust the size of the second communication port 5022. The side wall of the second separating member 5012 close to the first separating member 5011 cooperates with the inner wall of the feeding track 20 to define a separation channel, which communicates with the second communication port 5022. In the direction from the first communication port 5021 to the second communication port 5022, the distance between the inner wall of the feeding track 20 and the side wall of the second separating member 5012 close to the first separating member 5011 gradually decreases, that is, the separation channel is funnel-shaped. The injection molded part enters the second communication port 5022 through the separation channel. When the injection molded gate plate enters the separation channel, the injection molded gate plate is blocked by the side wall of the second separating member 5012 close to the first separating member 5011 and the inner wall of the feeding track 20, thereby achieving the technical effect of separating the injection molded part and the injection molded gate plate by the second separating member 5012.

[0051] Thus, the first separation piece 5011 and the second separation piece 5012 jointly separate the injection molded piece and the injection molded nozzle plate material, the injection molded piece sequentially passes through the first communication port 5021 and the second communication port 5022 to enter the material receiving frame 30, and such arrangement can achieve the technical effect of separating the injection molded piece and the injection molded nozzle plate material. Moreover, by arranging the second separation piece 5012 in front of the first separation piece 5011, the injection molded nozzle plate material and the injection molded piece can be prevented from entering the material receiving frame 30 together after the injection molded nozzle plate material passes through the first communication port 5021, thereby improving the working reliability of the injection molding processing equipment 100.

[0052] With reference to Figure 2 、 Figure 4 and Figure 5 In some embodiments of the present application, the side wall of the first separation piece 5011 is slidingly provided with a baffle 5013, the baffle 5013 can be arranged on the front side wall or the rear side wall of the first separation piece 5011 in the first direction of the injection molding processing equipment 100, and the first separation piece 5011 is installed with a first driving piece 5014, in the embodiment as shown in Figure 5 , the baffle 5013 is arranged on the front side wall of the first separation piece 5011, and the first driving piece 5014 is installed on the top wall of the first separation piece 5011.

[0053] Moreover, in the height direction of the injection molding processing equipment 100, the height dimension of the first communication port 5021 can be adapted to the highest height dimension of the injection molded piece, the first driving piece 5014 is connected and matched with the baffle 5013, the first driving piece 5014 is used to drive the baffle 5013 to move along the side wall of the first separation piece 5011 to approach or move away from the bottom wall of the feeding track 20, the height of the injection molded nozzle plate material entering the feeding track 20 is not the same when the injection molded piece of different heights enters the feeding track 20, the first driving piece 5014 drives the baffle 5013 to move to approach the bottom wall of the feeding track 20 when the injection molded piece and the injection molded nozzle plate material of lower height enter the feeding track 20, the first driving piece 5014 drives the baffle 5013 to move to move away from the bottom wall of the feeding track 20 when the injection molded piece and the injection molded nozzle plate material of higher height enter the feeding track 20, thereby enabling the injection molded piece of different heights to pass through the first communication port 5021, and the injection molded nozzle plate material is blocked at the first separation piece 5011, thereby improving the use experience of the injection molded nozzle plate material.

[0054] The outer bottom wall of the feeding track 20 is provided with a second driving member 5015, and the second separating member 5012 has a first pivot part 5016. Specifically, the side wall of the second separating member 5012 away from the second connecting port 5022 is constructed as the first pivot part 5016. The first pivot part 5016 is located close to the side wall of the feeding track 20, and the distance between the first pivot part 5016 and the side wall of the feeding track 20 is smaller than the size of the injection molded part and the size of the injection sprue sheet. That is to say, the injection molded part and the injection sprue sheet cannot pass through the gap between the first pivot part 5016 and the side wall of the feeding track 20.

[0055] The first pivot 5016 passes through the bottom wall of the feeding track 20 and is connected to the second drive member 5015. The second drive member 5015 is used to drive the second separating member 5012 to rotate around the central axis of the first pivot 5016, thereby adjusting the distance between the end wall of the second separating member 5012 away from the first pivot 5016 and the side wall of the feeding track 20. This allows the size of the second connecting port 5022 to be adjusted, enabling various injection molded parts of different sizes to pass through the second connecting port 5022. Consequently, the injection molding equipment 100 can be adapted to various injection molded parts of different sizes, which helps to improve the user experience of the injection molding equipment 100.

[0056] Reference Figure 1 , Figure 4 and Figure 5 In some embodiments of this application, the sidewalls of the feeding track 20 include a left sidewall 202 and a right sidewall 203 disposed opposite to each other. Both the left sidewall 202 and the right sidewall 203 are provided with second clearance holes 204. The second clearance holes 204 of the left sidewall 202 and the right sidewall 203 are disposed opposite to each other, and the second clearance holes 204 penetrate through the left sidewall 202 and the right sidewall 203 of the feeding track 20. The second clearance holes 204 are correspondingly disposed with respect to the separator 501, and the second clearance holes 204 extend along the feeding track. The inclination direction of 20 is set close to the upper side of the corresponding separator 501. Specifically, the second clearance hole 204 is set on the side of the separator 501 close to the injection molding machine 10. When the injection sprue plate material accumulates in the separator 501, the worker can take the injection sprue plate material out of the feeding track 20 through the second clearance hole, thereby avoiding the large accumulation of injection sprue plate material at the separator 501, preventing the connecting port 502 from being blocked by the injection sprue plate material, and thus improving the working reliability of the injection molding equipment 100.

[0057] Furthermore, a fan 60 is provided on the outer side of one of the left side wall 202 and the right side wall 203. The air outlet 601 of the fan 60 is positioned opposite to the second clearance hole 204 provided on the corresponding side of the left side wall 202 and the right side wall 203. The fan 60 is used to blow air into the feeding track 20. The second clearance hole 204 provided on the other side of the left side wall 202 and the right side wall 203 is suitable for allowing the injection molding sprue sheet to pass through and move out of the feeding track 20. That is, when the fan 60 is positioned on the outer side of the left side wall 202, the air outlet 601 of the fan 60 is positioned opposite to the second clearance hole 204 on the left side wall 202. The fan 60 blows air into the feeding track 20 through the second clearance hole 204 on the left side wall 202. The injection molding sprue sheet in the feeding track 20 is blown by the air and leaves the feeding track 20 through the second clearance hole 204 on the right side wall 203.

[0058] When the blower 60 is set on the outside of the right side wall 203, the air outlet 601 of the blower 60 is set opposite to the second clearance hole 204 on the right side wall 203. The blower 60 blows air into the feeding track 20 through the second clearance hole 204 on the right side wall 203. The injection sprue material in the feeding track 20 is blown by the air and leaves the feeding track 20 through the second clearance hole 204 on the left side wall 202. This achieves the technical effect of moving the injection sprue material out of the feeding track 20 by the blower 60. Compared with the manual removal of the injection sprue by the worker, this setting can reduce the worker's workload and improve the worker's work comfort.

[0059] Furthermore, there can be multiple second clearance holes 204 and air outlets of the blower 60. Multiple second clearance holes 204, multiple air outlets and multiple separators 501 are all set one-to-one. The injection molding sprue sheet at multiple separators 501 can be blown out of the feeding track 20 by the blower 60, thereby improving the user experience of the injection molding equipment 100.

[0060] Reference Figure 1 In some embodiments of this application, a first valve 205 is provided at the second clearance hole 204, and a third driving member 206 is correspondingly provided on the side wall of the feeding track 20. Furthermore, a first valve 205 and a third driving member 206 are provided at each of the multiple second clearance holes 204. Figure 1 In the illustrated embodiment, the first valve 205 can be disposed on the outer wall of the feeding track 20, and the size of the first valve 205 is larger than the size of the second clearance hole 204. Along the height direction of the injection molding equipment 100, the third drive member 206 can be disposed above the side wall of the feeding track 20. In some embodiments, the third drive member 206 can be a cylinder, but this application is not limited thereto; the third drive member 206 can also be a hydraulic cylinder, etc.

[0061] Furthermore, the first valve 205 is connected to the third drive member 206, which drives the first valve 205 to open or close the second clearance hole 204. Specifically, the third drive member 206 drives the first valve 205 to move away from or towards the second clearance hole 204. When both the injection molded part and the injection gate sheet are located within the feeding track 20, the third drive member 206 drives the first valve 205 to move towards the second clearance hole 204 to close the second clearance hole 204, thereby preventing the injection molded part from passing through the second clearance hole 204 and leaving the feeding track 20. When only the injection gate sheet is located within the feeding track 20, the third drive member 206 drives the first valve 205 to move away from the second clearance hole 204 to open the second clearance hole 204, thereby allowing the injection gate sheet to pass through the second clearance hole 204 and leave the feeding track 20.

[0062] Workers can open or close the second clearance hole 204 through the first valve 205 according to the actual situation, thereby preventing the injection molded part from passing through the clearance hole and leaving the feeding track 20, and cleaning the injection gate plate material in the feeding track 20 through the second clearance hole 204, thereby improving the reliability of the injection molding equipment 100.

[0063] In some embodiments of this application, the separation mechanism 50 further includes a controller and an image detection element. The image detection element is communicatively connected to the controller and is correspondingly disposed with the separation element 501. The image detection element is disposed on the side of the separation element 501 near the injection molded part. In some specific embodiments, there are multiple image detection elements, and multiple image detection elements are correspondingly disposed with multiple separation elements 501. The image detection element is used to collect image information of the injection molded part and the injection sprue sheet at the separation element 501. In some embodiments, the image detection element can be a CCD camera, but this application is not limited to this. The image detection element can also be a CMOS image sensor.

[0064] Both the third drive unit 206 and the fan 60 are communicatively connected to the controller. The controller is adapted to control the third drive unit 206 to drive the first valve 205 to open or close the second clearance hole 204 according to the image information of the graphic detection unit, and to control the fan 60 to send air into the feeding track 20.

[0065] The image detection unit sends image information from the separator 501 to the controller. The controller determines whether a molded part exists at the separator 501 based on this image information. When only injection gate material exists at the separator 501, the controller, through the third drive unit 206, controls the first valve 205 to open the second clearance hole 204 and starts the blower 60 to blow air into the feeding track 20, thereby removing the injection gate material from the feeding track 20. When both injection gate material and molded parts exist at the separator 501, the controller, through the third drive unit 206, controls the first valve 205 to close the second clearance hole 204 and stops the blower 60, preventing the blower 60 from blowing the molded part away from the feeding track 20, thus improving the operational reliability of the injection molding equipment 100. Furthermore, this configuration increases the automation level of the injection molding equipment 100, thereby improving its production efficiency.

[0066] Reference Figure 1 , Figure 2 and Figure 7 In some embodiments of this application, the injection molding equipment 100 may consist of multiple injection molding machines 10, each capable of producing different injection molded parts, and the discharge ports 101 of all injection molding machines 10 are connected and cooperate with the feeding track 20. Figure 2 In the illustrated embodiment, along a first direction of the injection molding equipment 100, from the front to the rear of the injection molding equipment 100, there are multiple injection molding machines 10, namely a first injection molding machine 103, a second injection molding machine 104, and a third injection molding machine 105. The first injection molding machine 103 is used to produce a first injection molded part, the second injection molding machine 104 is used to produce a second injection molded part, and the third injection molding machine 105 is used to produce a third injection molded part.

[0067] Multiple feeding sections 207 are provided at the end of the feeding track 20 furthest from the injection molding machine 10. These multiple feeding sections 207 are arranged radially along the injection molding equipment 100. Figure 1 In the illustrated embodiment, along the second direction of the injection molding equipment 100, from left to right, a plurality of feeding sections 207 are respectively a first feeding section 2072, a second feeding section 2073, and a third feeding section 2074. Each feeding section 207 defines a feeding channel 2071 that communicates with the inner wall of the feeding track 20. Any two adjacent feeding sections 207 have an included angle of 0 degrees to 90 degrees, and the included angles between the first feeding section 2072 and the third feeding section 2074 and the outer wall of the feeding track 20 are obtuse angles. This arrangement can prevent the injection molded part from failing to enter the feeding section 207, thereby improving the operational reliability of the injection molding equipment 100.

[0068] Different injection molded parts can exit the feeding track 20 through different feeding sections 207. Specifically, the first injection molded part exits the feeding track 20 through the first feeding section 2072, the second injection molded part exits the feeding track 20 through the second feeding section 2073, and the third injection molded part exits the feeding track 20 through the third feeding section 2074. Each of the multiple feeding sections 207 has a receiving frame 30 at its end furthest from the injection molding machine 10. Different injection molded parts can enter their corresponding receiving frames 30 through their respective feeding sections 207, thus achieving the technical effect of distinguishing and collecting multiple different injection molded parts.

[0069] The injection molding equipment 100 further includes a material distribution mechanism 70, which is located between the separation mechanism 50 and multiple feeding sections 207. The material distribution mechanism 70 includes a guide member 701, which is movably disposed within the feeding track 20 and pivotally connected to the feeding track 20. The guide member 701 is disposed on the side of the feeding section 207 closest to the injection molding machine 10. The guide member 701 is used to control the plastic part to move along a preset route to the corresponding one of the multiple feeding sections 207. When the injection molded part moves to the guide member 701, the guide member 701 rotates around the pivot axis so that the guide member 701 is opposite to the corresponding feeding section 207. The injection molded part moves along the guide member 701 and enters the corresponding feeding section 207.

[0070] Furthermore, the preset routes for different injection molded parts are all different. When the first injection molded part moves to the guide 701, the guide 701 is opposite to the first feeding part 2072. When the second injection molded part moves to the guide 701, the guide 701 is opposite to the second feeding part 2073. When the third injection molded part moves to the guide 701, the guide 701 is opposite to the third feeding part 2074. The worker drives the guide 701 to be opposite to the corresponding feeding part 207 according to the different injection molded parts, so that different injection molded parts can enter the corresponding feeding part 207, thereby achieving the technical effect of distinguishing different injection molded parts.

[0071] Furthermore, the material distribution mechanism 70 also includes multiple stop components 702, and each of the multiple stop components 702 and multiple feeding parts 207 is correspondingly set, in such a way... Figure 7 In the illustrated embodiment, the stop member 702 can be a first stop member 7023, a second stop member 7024, and a third stop member 7025. The first stop member 7023 is disposed in the first feeding part 2072, the second stop member 7024 is disposed in the second feeding part 2073, and the third stop member 7025 is disposed in the third feeding part 2074. The stop member 702 is disposed between the feeding part 207 and the feeding track 20, and the stop member 702 is used to connect or block the feeding part 207 and the feeding track 20.

[0072] When the guide member 701 is opposite to the first feeding section 2072, the first stop member 7023 connects the first feeding section 2072 and the feeding track 20, the second stop member 7024 blocks the second feeding section 2073 and the feeding track 20, and the third stop member 7025 blocks the third feeding section 2074 and the feeding track 20. When the guide member 701 is opposite to the second feeding section 2073, the first stop member 7023 blocks the first feeding section 2072 and the feeding track 20, the second stop member 7024 connects the second feeding section 2073 and the feeding track 20, and the third stop member 7025 blocks the third feeding section 2074 and the feeding track 20. When the guide member 701 is opposite to the third feeding section 2074, the first stop member 7023 blocks the first feeding section 2072 and the feeding track 20, the second stop member 7024 blocks the second feeding section 2073 and the feeding track 20, and the third stop member 7025 connects the third feeding section 2074 and the feeding track 20. This arrangement prevents injection molded parts from entering the wrong feeding section 207 and prevents different injection molded parts from mixing in the receiving frame 30, thereby improving the operational reliability of the injection molding equipment 100.

[0073] A feeding frame 102 is disposed inside the injection molding machine 10. One side wall of the feeding frame 102 is open towards the discharge port 101, and the upper wall of the feeding frame 102 is also open. The feeding frame 102 is pivotally connected to the injection molding machine 10. The injection molding machine 10 is adapted to drive the feeding frame 102 to rotate around a rotation axis, so that the plastic parts, injection sprue bars, and injection sprue sheets placed inside the feeding frame 102 are discharged from the injection molding machine 10 through the discharge port 101. Figure 2 In the embodiment shown, the feeding frame 102 located in the first injection molding machine 103 is the first feeding frame 1021, the feeding frame 102 located in the second injection molding machine 104 is the second feeding frame 1022, and the feeding frame 102 located in the third injection molding machine 105 is the third feeding frame 1023.

[0074] When the injection molding machine 10 completes injection molding, the injection molded parts and injection gates enter the receiving frame 30 from the injection mold. Multiple injection molding machines 10 sequentially drive the corresponding discharge frames 102 to rotate around the pivot axis to the preset tilting position, so that the plastic parts, injection gate bars and injection gate sheets placed in the discharge frames 102 enter the feeding track 20.

[0075] Specifically, the first injection molding machine 103 drives the first unloading frame 1021 to rotate around the pivot axis to a preset tilting position, and pours the first injection molded part, injection sprue bar stock, and injection sprue plate stock from the first unloading frame 1021 into the feeding track 20. After the first injection molded part enters the first feeding section 2072, the second injection molding machine 104 drives the second unloading frame 1022 to rotate around the pivot axis to a preset tilting position, and pours the second injection molded part, injection sprue bar stock, and injection sprue plate stock from the second unloading frame 1022 into the feeding track 20. After the second injection molded part enters the second feeding section 2073, the third injection molding machine 105 drives the third unloading frame 1023 to rotate around the pivot axis to a preset tilting position, and pours the third injection molded part, injection sprue bar stock, and injection sprue plate stock from the third unloading frame 1023 into the feeding track 20. This configuration can prevent multiple injection molded parts from mixing together in the feeding track 20 and prevent multiple injection molded parts from entering the same feeding section 207, thereby further improving the working reliability of the injection molding equipment 100.

[0076] Therefore, by setting multiple feeding sections 207 and multiple stoppers 702 on the feeding track 20, with each feeding section 207 and stopper 702 corresponding to another, the guide 701 can guide the injection molded part to the corresponding feeding section 207, and the stopper 702 can open the feeding section 207 opposite to the guide 701 and close the feeding section 207 not opposite to the guide 701. This arrangement can prevent the injection molded part from entering the wrong feeding section 207, thereby achieving the technical effect of distinguishing and collecting multiple different injection molded parts. Furthermore, multiple discharge frames 102 can prevent multiple different injection molded parts from entering the feeding track 20 together, and can prevent different injection molded parts from entering the same receiving frame 30, thereby improving the operational reliability of the injection molding equipment 100.

[0077] Reference Figure 3 and Figure 7 In some embodiments of this application, the guide member 701 includes a guide plate 7011 and a fourth drive member 7012. The guide plate 7011 has a second pivot portion 7013, which is located at the center of the guide plate 7011. The fourth drive member 7012 is disposed on the outer bottom wall of the feeding track 20. The second pivot portion 7013 passes through the bottom wall of the feeding track 20 and is connected and cooperated with the fourth drive member 7012. The fourth drive member 7012 is used to drive the guide plate 7011 to rotate around the central axis of the second pivot portion 7013 to adjust the angle of the guide plate 7011 in the feeding track 20.

[0078] When the first injection molded part moves to the guide plate 7011, the fourth drive member 7012 is driven to rotate around the second pivot portion 7013 toward the first feeding portion 2072, so that the guide plate 7011 is opposite to the first feeding portion 2072. When the second injection molded part moves to the guide plate 7011, the fourth drive member 7012 is driven to rotate around the second pivot portion 7013 toward the second feeding portion 2073, so that the guide plate 7011 is opposite to the second feeding portion 2073. When the third injection molded part moves to the guide plate 7011, the fourth drive member 7012 is driven to rotate around the third pivot portion toward the third feeding portion 2074, so that the guide plate 7011 is opposite to the third feeding portion 2074.

[0079] The stop member 702 includes a stop portion 7021 and a fifth drive member 7022. The stop portion 7021 is disposed between the feeding section 207 and the feeding track 20. Specifically, the stop portion 7021 is disposed at the opening of the feeding section 207 that communicates with the feeding track 20. The fifth drive member 7022 is mounted on the feeding section 207 and connected to the stop portion 7021. Figure 3 In the illustrated embodiment, the fifth driving member 7022 is mounted on the top wall of the feeding section 207. The fifth driving member 7022 is used to drive the stop section 7021 to move away from or towards the bottom wall of the feeding section 207, so that the stop section 7021 connects or blocks the feeding section 207 and the feeding track 20. The stop section 7021 corresponding to the first stop section 7023 is the first stop section 7026, the stop section 7021 corresponding to the second stop section 7024 is the second stop section 7027, and the stop section 7021 corresponding to the third stop section 7025 is the third stop section 7028. The first feeding section 2072, the second feeding section 2073, and the third feeding section 2074 are all correspondingly provided with the fifth driving member 7022.

[0080] When the first injection molded part moves to the first feeding section 2072, the fifth driving member 7022 drives the first cutting-off section 7026 to move away from the bottom wall of the feeding track 20, so as to connect the first feeding section 2072 and the feeding track 20. The fifth driving member 7022 also drives the second cutting-off section 7027 and the third cutting-off section 7028 to move closer to the bottom wall of the feeding track 20, so as to block the second feeding section 2073 and the third feeding section 2074 from moving with the feeding track 20. When the second injection molded part moves to the second feeding section 2073, the fifth driving member 7022 drives the second cutting-off section 7027 to move away from the bottom wall of the feeding track 20, so as to connect the second feeding section 2073 and the feeding track 20. The fifth driving member 7022 also drives the first cutting-off section 7026 and the third cutting-off section 7028 to move closer to the bottom wall of the feeding track 20, so as to block the first feeding section 2072 and the third feeding section 2074 from moving with the feeding track 20. When the third injection part moves to the third feeding section 2074, the fifth driving member 7022 drives the third cutting section 7028 to move away from the bottom wall of the feeding track 20 to connect the third feeding section 2074 and the feeding track 20. The fifth driving member 7022 also drives the first cutting section 7026 and the second cutting section 7027 to move closer to the bottom wall of the feeding track 20 to block the first feeding section 2072 and the second feeding section 2073 from both being connected to the feeding track 20.

[0081] Therefore, by controlling the rotation of the guide 701 through the fourth drive member 7012 and the movement of the stop part 7021 through the fifth drive member 7022, this arrangement can reduce the worker's workload compared to the worker manually controlling the guide 701 and the stop part 7021, thereby improving the user experience of the injection molding equipment 100.

[0082] In some embodiments of this application, a gravity detection element is provided inside the feeding frame 102, and a position detection element is provided inside the injection molding machine 10. The injection molding equipment 100 also includes a controller. Both the gravity detection element and the position detection element are communicatively connected to the controller. The gravity detection element is used to detect the magnitude of the gravity of the feeding frame 102, and the position detection element is used to detect the relative position of the feeding frame 102 and the injection molding machine 10. The controller is also communicatively connected to the guide element 701, the stop element 702, and the feeding frame 102. The controller is adapted to control the feeding frame 102 to feed material according to the detection signals of the gravity detection element and the position detection element, and to control the guide element 701 and the stop element 702 to guide the plastic part to the feeding section 207 corresponding to the plastic part. Furthermore, the first drive member 5014 and the second drive member 5015 are communicatively connected to the controller. The controller controls the partition to move away from or closer to the feeding track 20 through the first drive member 5014 according to the detection signal of the position detection member, so as to open or close the first connection port 5021. The controller also controls the second separation member 5012 to rotate around the first pivot part 5016 through the second drive member 5015, so as to open or close the second connection port 5022.

[0083] In some embodiments, the gravity detection element can be a piezoelectric mass sensor, and the position detection element can be a laser sensor, but this application is not limited thereto. The gravity detection element can also be a capacitive mass sensor, and the position detection element can also be an infrared sensor.

[0084] When the injection molded part and the injection gate enter the discharge frame 102, the gravity detection component detects the gravity of the discharge frame 102 and sends a detection signal to the controller. The controller controls the discharge frame 102 to rotate to the preset tilting position according to the detection signal of the gravity detection component, so that the injection molded part and the injection gate in the discharge frame 102 enter the feeding track 20. When the feeding frame 102 moves to the preset tilting position, the position detection component sends a detection signal to the controller. The controller controls the guide component 701 to move to the preset position opposite to the feeding section 207 according to the detection signal of the position detection component, and controls the stop component 702 to connect the feeding section 207 opposite to the guide component 701 and the feeding track 20, and controls the stop component 702 to block the feeding section 207 and the feeding track 20 that are not opposite to the guide component 701. The controller also controls the partition to move away from the feeding track 20 through the first drive component 5014 according to the detection signal of the position detection component, so that the height dimension of the first connecting port 5021 can match the height dimension of the injection molded part, and controls the second separating component 5012 to rotate away from the first connecting port 5021 through the second drive component 5015, so that the size of the second connecting port 5022 can match the size of the injection molded part, so that the injection molded part can move into the preset feeding section 207, thereby achieving the technical effect of automatically distinguishing the injection molded parts.

[0085] When the injection molded part and injection gate in the feeding frame 102 enter the feeding track 20, the gravity detection component sends a detection signal to the controller. The controller controls the feeding frame 102 to rotate around the pivot axis between the feeding frame 102 and the injection molding machine 10 according to the detection signal, so that the feeding frame 102 can return to the initial preset position. When the feeding frame 102 returns to the initial position, the position detection component sends a detection signal to the controller. The controller controls the partition to move closer to the feeding track 20 through the first drive component 5014 according to the detection signal, so as to close the first connecting port 5021. The controller also controls the second separating component 5012 to rotate in the direction of the first connecting port 5021 through the second drive component 5015, so that the second separating component 5012 is perpendicular to the side wall of the feeding track 20, so as to close the second connecting port 5022.

[0086] In some embodiments, a first gravity detection element and a first position detection element are provided in the first feeding frame 1021, a second gravity detection element and a second position detection element are provided in the second feeding frame 1022, and a third gravity detection element and a third position detection element are provided in the third feeding frame 1023.

[0087] When there are injection molded parts and injection gates in the first feeding frame 1021, the second feeding frame 1022 and the third feeding frame 1023, the first gravity detection component, the second gravity detection component and the third gravity detection component all send detection signals to the controller, and the controller controls the first feeding frame 1021, the second feeding frame 1022 and the third feeding frame 1023 to operate in sequence.

[0088] When the controller controls the corresponding feeding frame 102 to move to the preset tilting position, and the corresponding position detection component sends a detection signal to the controller, the controller locks the feeding frame 102 in the initial preset position. This prevents the feeding frame 102 in the initial preset position from pouring the injection molded parts and injection gates into the feeding track 20. When the feeding frame 102 that is not in the initial preset position returns to the initial preset position, the controller unlocks the locked feeding frame 102. This setting can prevent different injection molded parts from mixing together in the feeding track 20, thereby further improving the working reliability of the injection molding equipment 100.

[0089] According to the injection molding equipment 100 described in the embodiments of this application, the working principle of the injection molding equipment 100 is as follows: After the first injection molding machine 103 and / or the second injection molding machine 104 and / or the third injection molding machine 105 complete the injection molding process, the corresponding injection molded parts, injection sprue bar stock and injection sprue sheet stock all enter the corresponding discharge frame 102. The gravity detection device in the first discharge frame 1021 detects the gravity of the first discharge frame 1021 and sends a detection signal to the controller. The gravity detection device in the second discharge frame 1022 detects the gravity of the second discharge frame 1022 and sends a detection signal to the controller. The gravity detection device in the third discharge frame 1023 detects the gravity of the third discharge frame 1023 and sends a detection signal to the controller. The controller controls the first discharge frame 1021 to rotate to the preset tilting position, and the first injection molded parts, injection sprue bar stock and injection sprue sheet stock enter the feeding track 20. When the first feeding frame 1021 moves to the preset tilting position, the first position detection component sends a detection signal to the controller. The controller controls the first driving component 5014 to drive the baffle 5013 away from the bottom wall of the feeding track 20, so that the height of the first connecting port 5021 matches the height of the first injection molded part. The controller also controls the second separating component 5012 to rotate away from the first connecting port 5021, so that the size of the second connecting port 5022 matches the size of the first injection molded part. Finally, the controller controls the guide component 701 to rotate. The first injection molded part is moved to the opposite side of the first feeding section 2072, and the fifth driving member 7022 is controlled to drive the first cut-off section 7026 away from the bottom wall of the feeding track 20, and drive the second cut-off section 7027 and the third cut-off section 7028 to move closer to the bottom wall of the feeding track 20. The first injection molded part enters the corresponding receiving frame 30 through the first feeding section 2072, the injection sprue bar material leaves the feeding track 20 through the first clearance hole 201, and the injection sprue plate material is blocked by the first separator 5011 and the second separator 5012.

[0090] When the graphic detector detects that there is no injection molded part in the feeding track 20, the controller controls the first valve 205 to open the second clearance hole 204 via the third drive component 206, controls the baffle 5013 to move closer to the feeding track 20, controls the second separator 5012 to rotate towards the first connecting port 5021, and controls the blower 60 to start working to blow the injection sprue material away from the feeding track 20. When the graphic detector detects that there is no injection molded part or injection sprue material in the feeding track 20, the controller controls the first valve 205 to close the second clearance hole 204, and the controller drives the first discharge frame 1021 to move to the initial preset position.

[0091] When the first feeding frame 1021 returns to the initial preset position, the controller controls the second feeding frame 1022 to rotate to the preset tilting position, and the second injection molded part, injection gate bar and injection gate plate enter the feeding track 20. When the second feeding frame 1022 moves to the preset tilting position, the second position detection component sends a detection signal to the controller. The controller controls the baffle 5013 to move away from the bottom wall of the feeding track 20 so that the height of the first connecting port 5021 matches the height of the second injection molded part. The controller also controls the second separating component 5012 to rotate away from the first connecting port 5021 so that the size of the second connecting port 5022 matches the size of the second injection molded part. The controller also controls the guide component 701 to rotate to be opposite to the second feeding part 2073. The controller also controls the fifth driving component 7022 to drive the second cutting part 7027 away from the bottom wall of the feeding track 20, and drives the first cutting part 7026 and the third cutting part 7028 to move closer to the bottom wall of the feeding track 20. The second injection molded part enters the corresponding receiving frame 30 through the second feeding part 2073. The injection sprue bar material leaves the feeding track 20 through the first clearance hole 201. The injection sprue plate material is blocked by the first separating component 5011 and the second separating component 5012.

[0092] When the graphic detector detects that there is no injection molded part in the feeding track 20, the controller controls the first valve 205 to open the second clearance hole 204 via the third drive component 206, controls the baffle 5013 to move closer to the feeding track 20, controls the second separator 5012 to rotate towards the first connecting port 5021, and controls the blower 60 to start working to blow the injection sprue material away from the feeding track 20. When the graphic detector detects that there is no injection molded part or injection sprue material in the feeding track 20, the controller controls the first valve 205 to close the second clearance hole 204, and the controller drives the second discharge frame 1022 to move to the initial preset position.

[0093] When the second feeding frame 1022 returns to the initial preset position, the controller controls the third feeding frame 1023 to rotate to the preset tilting position, and the third injection molded part, injection gate bar material, and injection gate plate material enter the feeding track 20. When the third feeding frame 1023 moves to the preset tilting position, the third position detection component sends a detection signal to the controller. The controller controls the baffle 5013 to move away from the bottom wall of the feeding track 20 so that the height of the first connecting port 5021 matches the height of the third injection molded part. The controller also controls the second separating component 5012 to rotate away from the first connecting port 5021 so that the size of the second connecting port 5022 matches the size of the third injection molded part. The controller also controls the guide component 701 to rotate to be opposite to the third feeding part 2074. The controller also controls the fifth driving component 7022 to drive the third cutting part 7028 away from the bottom wall of the feeding track 20 and to drive the first cutting part 7026 and the second cutting part 7027 to move closer to the bottom wall of the feeding track 20. The third injection molded part enters the corresponding receiving frame 30 through the third feeding part 2074. The injection sprue bar material leaves the feeding track 20 through the first clearance hole 201. The injection sprue plate material is blocked by the first separating component 5011 and the second separating component 5012.

[0094] When the graphic detector detects that there is no injection molded part in the feeding track 20, the controller controls the first valve 205 to open the second clearance hole 204 via the third drive component 206, controls the baffle 5013 to move closer to the feeding track 20, controls the second separator 5012 to rotate towards the first connecting port 5021, and controls the blower 60 to start working to blow the injection sprue material away from the feeding track 20. When the graphic detector detects that there is no injection molded part or injection sprue material in the feeding track 20, the controller controls the first valve 205 to close the second clearance hole 204, and the controller drives the third discharge frame 1023 to move to the initial preset position.

[0095] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. An injection molding processing equipment, characterized in that, include: An injection molding machine (10) having a discharge port (101); A feeding track (20) is provided, one end of which is connected to the discharge port (101), and the other end of which extends downward at an incline. The bottom wall of the feeding track (20) is provided with a plurality of first clearance holes (201), which are arranged alternately in sequence. The first clearance holes (201) are adapted to allow the injection molding sprue bar to pass through and move out of the feeding track (20). A receiving frame (30) is located at one end of the feeding track (20) away from the injection molding machine (10); Vibrating element (40), the vibrating element (40) is disposed outside the feeding track (20) along the height direction of the injection molding material distribution equipment, the vibrating element (40) is used to drive the feeding track (20) to reciprocate; The separation mechanism (50) includes at least one separation member (501), which is disposed in the feeding track (20). The separation member (501) and the inner wall of the feeding track (20) together define a communication port (502). The separation member (501) is used to block the injection molding sprue sheet. After the injection molded part passes through the communication port (502), it moves towards the end of the feeding track (20) away from the injection molding machine (10).

2. The injection molding equipment according to claim 1, characterized in that, The separation mechanism (50) includes a plurality of separation components (501), which are arranged sequentially at intervals along the feeding track (20).

3. The injection molding equipment according to claim 2, characterized in that, The plurality of said separators (501) include: A first separating element (5011) and the bottom wall of the feeding track (20) together define a first connecting port (5021), and / or, The second separator (5012) is movably disposed within the feeding track (20) and together with the side wall of the feeding track (20) defines a second communication port (5022).

4. The injection molding equipment according to claim 3, characterized in that, A baffle (5013) is slidably provided on the side wall of the first separator (5011), and a first driving member (5014) is installed on the first separator (5011). The first driving member (5014) is connected and cooperates with the baffle (5013). The first driving member (5014) is used to drive the baffle (5013) to move along the side wall of the first separator (5011) closer to or away from the feeding track (20). The outer bottom wall of the feeding track (20) is provided with a second driving member (5015), and the second separating member (5012) has a first pivot part (5016). The first pivot part (5016) is disposed near the side wall of the feeding track (20). The first pivot part (5016) passes through the bottom wall of the feeding track (20) and is connected and cooperates with the second driving member (5015). The second driving member (5015) is used to drive the second separating member (5012) to rotate around the central axis of the first pivot part (5016).

5. The injection molding equipment according to claim 3, characterized in that, The sidewalls of the feeding track (20) include a left sidewall (202) and a right sidewall (203) arranged opposite to each other. Both the left sidewall (202) and the right sidewall (203) are provided with a second clearance hole (204). The second clearance hole (204) of the left sidewall (202) is arranged opposite to the second clearance hole (204) of the right sidewall (203). The second clearance hole (204) is arranged corresponding to the separator (501). The second clearance hole (204) is arranged close to the upper side of the corresponding separator (501) along the inclined direction of the feeding track (20). A fan (60) is provided on the outer side of one of the left side wall (202) and the right side wall (203). The air outlet (601) of the fan (60) is opposite to the second clearance hole (204) provided on the corresponding one of the left side wall (202) and the right side wall (203). The fan (60) is used to send air into the feeding track (20). The second clearance hole (204) provided on the other of the left side wall (202) and the right side wall (203) is adapted to allow the injection molding sprue sheet to pass through and move out of the feeding track (20).

6. The injection molding equipment according to claim 5, characterized in that, A first valve (205) is provided at the second clearance hole (204), and a third driving member (206) is provided on the side wall of the feeding track (20). The first valve (205) is connected to the third driving member (206) in a transmission manner. The third driving member (206) is used to drive the first valve (205) to open or close the second clearance hole (204).

7. The injection molding equipment according to claim 6, characterized in that, The separation mechanism (50) further includes: a controller and an image detection component, the image detection component being communicatively connected to the controller, and the image detection component being used to acquire image information at the separation component (501); The third drive unit (206) and the fan (60) are both communicatively connected to the controller. The controller is adapted to control the third drive unit (206) to drive the first valve (205) to open or close the second clearance hole (204) according to the image information of the graphic detection unit, and to control the fan (60) to send air into the feeding track (20).

8. The injection molding equipment according to claim 1, characterized in that, The feeding track (20) is provided with a plurality of feeding sections (207) at the end away from the injection molding machine (10). The plurality of feeding sections (207) are arranged along the radial direction of the injection molding equipment (100). Any two adjacent feeding sections (207) have an included angle. Each feeding section (207) defines a feeding channel (2071) that communicates with the inside of the feeding track (20). The injection molding equipment (100) further includes: a material distribution mechanism (70), which is located between the separation mechanism (50) and the plurality of feeding parts (207). The material distribution mechanism (70) includes a guide (701) and a plurality of stoppers (702). The guide (701) is movably disposed within the feeding track (20). The guide (701) is used to control the plastic part to move along a preset route to one of the plurality of feeding parts (207). The stoppers (702) are disposed between the feeding part (207) and the feeding track (20). The stoppers (702) are used to connect or block the feeding part (207) and the feeding track (20). A feeding frame (102) is provided inside the injection molding machine (10). One side wall of the feeding frame (102) is open to the discharge port (101), and the upper wall of the feeding frame (102) is also open. The feeding frame (102) is pivotally connected to the injection molding machine (10). The injection molding machine (10) is adapted to drive the feeding frame (102) to rotate around the rotation axis so that the plastic parts, injection sprue bars and injection sprue sheets placed in the feeding frame (102) are discharged from the discharge port (101) outside the injection molding machine (10).

9. The injection molding equipment according to claim 8, characterized in that, The guide member (701) includes a guide plate (7011) and a fourth drive member (7012). The guide plate (7011) has a second pivot portion (7013). The fourth drive member (7012) is disposed on the outer bottom wall of the feeding track (20). The second pivot portion (7013) passes through the bottom wall of the feeding track (20) and is connected and cooperated with the fourth drive member (7012). The fourth drive member (7012) is used to drive the guide plate (7011) to rotate around the central axis of the second pivot portion (7013) to adjust the angle of the guide plate (7011) in the feeding track (20). The cut-off member (702) includes a cut-off part (7021) and a fifth driving member (7022). The cut-off part (7021) is disposed between the feeding part (207) and the feeding track (20). The fifth driving member (7022) is installed on the feeding part (207) and connected to the cut-off part (7021). The fifth driving member (7022) is used to drive the cut-off part (7021) to move away from or closer to the bottom wall of the feeding part (207) so that the cut-off part (7021) connects or blocks the feeding part (207) and the feeding track (20).

10. The injection molding equipment according to claim 8, characterized in that, The feeding frame (102) is equipped with a gravity detection device, the injection molding machine (10) is equipped with a position detection device, and the injection molding equipment (100) also includes a controller. The gravity detection device and the position detection device are both connected to the controller. The gravity detection device is used to detect the gravity of the feeding frame (102), and the position detection device is used to detect the relative position of the feeding frame (102) and the injection molding machine (10). The controller is also communicatively connected to the guide (701), the stop (702) and the feeding frame (102). The controller is adapted to control the feeding frame (102) to feed material according to the detection signal of the gravity detector and the detection signal of the position detector, and to control the guide (701) and the stop (702) to guide the plastic part to the feeding part (207) corresponding to the plastic part.

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