RS-485 connector lug processing and forming equipment capable of continuously discharging

Abstract

The invention discloses RS-485 connector lug machining and forming equipment capable of continuously discharging, and relates to the technical field of connector lug machining and forming equipment, the RS-485 connector lug machining and forming equipment comprises a feeding box, two carrying devices, an injection molding device, a conveying device, an injection mold and a cooling device, the two carrying devices are symmetrically arranged relative to the injection molding device, and the conveying device is arranged on the feeding box; the feeding box, the carrying device, the injection molding device and the conveying device are sequentially placed, a plurality of injection molds are stored in the feeding box, a plurality of cooling devices are arranged on the conveying device, the cooling devices are fixedly connected with the conveying device, the injection molds are stored in the feeding box, the carrying device is responsible for carrying the injection molds, and the injection molding device is responsible for injection molding of the injection molds. The conveying device is responsible for conveying the injection mold, and the cooling device is responsible for cooling the injection mold.

Description

Technical Field

[0001] The invention relates to the technical field of terminal head processing and forming equipment, in particular to RS-485 terminal head processing and forming equipment capable of continuously discharging materials. Background Art

[0002] RS485 terminal block is a powerful, flexible and reliable serial communication standard, which is widely used in various fields. It is a differential transmission interface that can support multi-point connection and has the advantages of high speed, security and reliability.

[0003] During the processing of existing RS485 connectors, it is necessary to wait for the injection mold to cool down before taking out the RS485 connectors. Otherwise, workers may be at risk of scalding when taking out the RS485 connectors. At the same time, the production efficiency is reduced during the waiting process for cooling. When processing each RS485 connector, it is necessary to wait for the injection mold to cool down before taking it out, which greatly increases the time cost and reduces the company's profits. Summary of the invention

[0004] The object of the present invention is to provide a RS-485 terminal head processing and forming device capable of continuously discharging materials, so as to solve the problems raised in the prior art.

[0005] To achieve the above object, the present invention provides the following technical solutions: The present invention provides a technical solution for RS-connection head processing and molding equipment that can continuously discharge materials. The RS-connection head processing and molding equipment comprises a loading box, a handling device, an injection molding device, a transport device, an injection mold and a cooling device. There are two handling devices, and the two handling devices are symmetrically placed about the injection molding device. The loading box, the handling device, the injection molding device and the transport device are placed in sequence. The loading box stores a plurality of injection molds. The transport device is provided with a plurality of cooling devices, and the plurality of cooling devices and the transport device are fastened to each other.

[0006] The injection mold in the loading box is transported to the injection molding device by a transport device close to the loading box, and the injection molding device is used to perform injection molding on the injection mold. After the injection molding is completed, the injection mold on the injection molding device is transported to the cooling device on the transport device by a transport device close to the transport device, and then the cooling device starts to cool the injection mold, and then the injection mold quickly cools the high temperature area. At the same time, the operation of the transport device drives the cooling device to move, and the movement of the cooling device drives the injection mold to start moving until it moves to the designated position to unload the injection mold and take out the RS-connector.

[0007] Furthermore, the carrying device includes a carrying base, a base motor, an output cylinder, a carrying plate and a carrying column. The carrying base and the base motor are tightly connected, the output end of the base motor and the output cylinder are tightly connected, the output end of the output cylinder and the carrying plate are tightly connected, there are four carrying columns, and the four carrying columns are tightly connected to the carrying plate.

[0008] The transport base is used as the main installation foundation to support other components. The output torque of the base motor drives the output cylinder to rotate. When the output cylinder rotates to the loading box position, the output cylinder outputs displacement to drive the transport plate to move, and the movement of the transport plate drives the transport column to move until the transport column and the injection mold are connected. Then the output cylinder brings the injection mold back, and then the base motor outputs torque to drive the output cylinder to rotate until it rotates to the injection molding device position. The output cylinder outputs displacement to send the injection mold to the injection molding device for injection molding.

[0009] Furthermore, the injection molding device includes an injection molding base, an injection molding machine, a first injection molding plate, a second injection molding plate, a support column, a driving rod and a transmission device. The injection molding base is tightly connected to the injection molding machine, a feeding through hole is provided on the first injection molding plate, and the output end of the injection molding machine is tightly connected to the feeding through hole. There are four support columns, four supporting through holes are provided on the first injection molding plate, and four fixing through holes are provided on the second injection molding plate. The four support columns pass through the four supporting through holes and the four fixing through holes in turn. The transmission device is tightly connected to the injection molding base, the driving rod is threadedly connected to the transmission device, and the driving rod is rotatably connected to the second injection molding plate.

[0010] The injection molding base is used as the main installation foundation for installing other components in place. The driving rod is driven to rotate through the transmission device. The driving rod rotates and drives the second injection molding plate to move along the support column until the second injection molding plate and the first injection molding plate clamp the injection mold, and then the injection molding machine performs injection molding on the injection mold through the feeding through hole. At the same time, the base motor near the transportation device outputs a torque to drive the output cylinder to rotate until the transport plate rotates to the transport position. The output displacement of the output cylinder drives the transport column to move until the transport column and the injection mold are connected. After the injection molding is completed, the output cylinder near the loading box is recovered, and the connected transport column and the injection mold are disconnected. At the same time, the transmission device drives the driving rod, and the driving rod rotates to drive the second injection molding plate to move. The second injection molding plate moves to cancel the clamping of the injection mold. The output cylinder near the transportation device takes out the injection mold, and then the base motor rotates to turn the output cylinder until the output cylinder is turned to the loading position of the transportation device. Then the output displacement of the output cylinder drives the transport column to move, and the transport column sends the injection mold after injection molding to the cooling device for cooling.

[0011] Furthermore, the injection mold includes a mold body and a thermal sensing device, the mold body is provided with a cooling air path, a first mounting hole, a second mounting hole, a fixing hole, an air inlet hole and an injection hole, the thermal sensing device is connected to the first mounting hole, the thermal sensing device is connected to the second mounting hole, the cooling air path is connected to the first mounting hole, the cooling air path is connected to the second mounting hole, there are several first mounting holes, there are several second mounting holes, there are several thermal sensing devices, there are several fixing holes, several fixing holes are symmetrically distributed on the mold body, the fixing holes away from the air inlet holes are connected to the cooling air path, the air inlet holes are connected to the cooling air path, the injection hole and the feed through hole are of the same size, a fixing cylinder is provided in the fixing hole, and the fixed cylinder and the fixing hole are tightly connected.

[0012] The first mounting hole and the second mounting hole are used as the main mounting base for installing the thermal sensing device. The transport column is extended into the fixed hole through the transport column and the mold body is connected. At the same time, the fixed cylinder outputs displacement during connection to fix the transport column in the fixed hole, thereby realizing the operation of transporting the mold body. The injection molding machine injects the mold body through the feed through hole and the injection hole in turn. After the injection molding is completed, the cooling device conveys gas to the cooling gas path, allowing the gas to flow in the cooling gas path to take away the heat in the mold body, and finally flows out through the fixed hole. At the same time, the thermal sensing device controls the gas flow to perform targeted cooling in places with higher temperatures, which speeds up the cooling efficiency and reduces the cooling time.

[0013] Furthermore, the thermal induction device includes an induction shell, an induction magnet, an induction coil and an induction cylinder. The induction shell is placed in a first mounting hole, and the induction shell and the first mounting hole are tightly connected. An induction bin is provided in the induction shell, and the induction magnet is placed in the induction bin. The induction magnet and the induction bin are slidingly connected. The induction magnet divides the induction bin into two parts, an upper part and an lower part. Vaporized liquid is placed in the induction bin, and the vaporized liquid is placed in the lower part of the induction bin. The induction magnet is placed above the vaporized liquid. Several turns of induction coils are provided on the outside of the induction bin, and the induction coils and the induction shell are tightly connected. There are two induction cylinders, and the two induction cylinders are distributed on the left and right sides of the induction shell. The two induction cylinders are placed in adjacent second mounting holes, and the induction cylinders and the second mounting holes are tightly connected.

[0014] The induction shell is used as the main installation basis for the installation of other components. At the beginning, all the induction cylinders close the gas flow. When the temperature at the location of the thermal induction device is too high, the liquid in the induction chamber vaporizes and drives the magnet to move. The movement of the magnet causes the induction coil to cut the magnetic flux lines to produce a change in the induced electromotive force, and finally generates an induced current to control the opening and closing of the induction cylinder, thereby controlling the direction of the gas and allowing the gas to flow through the high-temperature area to quickly take away the heat.

[0015] Furthermore, the cooling device includes a cooling base, a cooling cylinder, a driving cylinder and an air nozzle. The cooling base is firmly connected to the transport device, the cooling base is firmly connected to the cooling cylinder, the cooling cylinder output end is firmly connected to the driving cylinder, and the driving cylinder output end is firmly connected to the air nozzle.

[0016] The cooling base is used as the main installation foundation for the installation and positioning of other components. The cooling cylinder outputs displacement to drive the driving cylinder to move, and the driving cylinder movement drives the jet nozzle to move until the jet nozzle moves to the working height. Then, the driving cylinder outputs displacement to drive the jet nozzle to move to the working position until the jet nozzle and the air inlet are connected. Then, the jet nozzle starts to output gas to the air inlet, allowing the gas to flow in the cooling gas path.

[0017] Furthermore, a mold groove is provided on the cooling base, and the width of the mold groove is greater than the mold body.

[0018] The mold groove is provided to facilitate the installation of the mold body, so that the mold body can be quickly sent to the cooling base for cooling.

[0019] Furthermore, the air nozzle is in a truncated cone shape, the top of the air nozzle faces the mold body, and a rubber ring is sleeved on the outer side of the air nozzle.

[0020] The air jet nozzle is set in a truncated cone shape to facilitate the connection between the air jet nozzle and the cooling gas path. The rubber ring is set to ensure that the air jet nozzle and the cooling gas path have a certain degree of sealing when connected.

[0021] Compared with the prior art, the present invention has the following beneficial effects: 1. By setting up a replaceable injection mold, the injection mold can be replaced separately, which speeds up the injection molding efficiency. There is no need to wait for the cooling to be completed on the injection molding machine before performing the injection molding work of the next injection mold.

[0022] 2. By setting up a thermal sensing device, the position of the cooling gas path with higher temperature in the mold body is detected. The gas path connection method is changed through the sensing cylinder to pass the gas from the higher temperature area to take away the heat and achieve rapid cooling of the high temperature area. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a structural schematic diagram of the injection molding device of the present invention; Figure 3 It is a schematic diagram of the structure of the injection mold of the present invention; Figure 4 for Figure 3 A magnified view of a part B; Figure 5 for Figure 3 A partial C magnified view of; Figure 6 It is a schematic diagram of the structure of the cooling device of the present invention; Figure 7 for Figure 6 A magnified view of the local area.

[0024] In the figure: 1. Loading box; 2. Handling device; 21. Handling base; 22. Base motor; 23. Output cylinder; 24. Handling plate; 25. Handling column; 3. Injection molding device; 31. Injection molding base; 32. Injection molding machine; 33. First injection molding plate; 34. Second injection molding plate; 35. Support column; 36. Driving rod; 37. Transmission device; 4. Transport device; 5. Injection mold; 51. Mold body; 511. Cooling air path; 512. The first mounting hole; 513, the second mounting hole; 514, the fixing hole; 5141, the fixing cylinder; 515, the air inlet hole; 516, the injection hole; 52, the thermal sensing device; 521, the sensing housing; 5211, the sensing bin; 522, the sensing magnet; 523, the sensing coil; 524, the sensing cylinder; 6, the cooling device; 61, the cooling base; 611, the mold groove; 62, the cooling cylinder; 63, the driving cylinder; 64, the air nozzle. DETAILED DESCRIPTION

[0025] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0026] Example: Figure 1-Figure 7 As shown, the present invention provides a technical solution for RS-485 terminal block processing and molding equipment that can continuously discharge materials. The RS-485 terminal block processing and molding equipment includes a loading box 1, a handling device 2, an injection molding device 3, a transportation device 4, an injection mold 5 and a cooling device 6. There are two handling devices 2, and the two handling devices 2 are symmetrically placed about the injection molding device 3. The loading box 1, the handling device 2, the injection molding device 3 and the transportation device 4 are placed in sequence. The loading box 1 stores a plurality of injection molds 5. The transportation device 4 is provided with a plurality of cooling devices 6. The plurality of cooling devices 6 and the transportation device 4 are fastened to each other.

[0027] The injection mold 5 in the loading box 1 is transported to the injection molding device 3 by the transporting device 2 close to the loading box 1, and the injection mold 5 is injection-molded by the injection molding device 3. After the injection is completed, the injection mold 5 on the injection molding device 3 is transported to the cooling device 6 on the transporting device 4 by the transporting device 2 close to the transportation device 4, and then the cooling device 6 starts to cool the injection mold 5, and then the injection mold 5 quickly cools the high temperature area. At the same time, the operation of the transportation device 4 drives the cooling device 6 to move, and the movement of the cooling device 6 drives the injection mold 5 to start moving, until it moves to the designated position to unload the injection mold 5 and take out the RS-485 terminal block.

[0028] like Figure 1-Figure 2 As shown, the transport device 2 includes a transport base 21, a base motor 22, an output cylinder 23, a transport plate 24 and a transport column 25. The transport base 21 and the base motor 22 are tightly connected, the output end of the base motor 22 and the output cylinder 23 are tightly connected, the output end of the output cylinder 23 and the transport plate 24 are tightly connected, there are four transport columns 25, and the four transport columns 25 and the transport plate 24 are tightly connected.

[0029] The transport base 21 is used as the main installation foundation to support other components. The base motor 22 outputs a rotational torque to drive the output cylinder 23 to rotate. When the output cylinder 23 rotates to the position of the loading box 1, the output cylinder 23 outputs a displacement to drive the transport plate 24 to move. The movement of the transport plate 24 drives the transport column 25 to move until the transport column 25 is connected to the injection mold 5. Then the output cylinder 23 brings the injection mold 5 back. Then the base motor 22 outputs a rotational torque to drive the output cylinder 23 to rotate. Until it rotates to the position of the injection molding device 3, the output cylinder 23 outputs a displacement to send the injection molding device 3 for injection molding.

[0030] like Figure 1-Figure 2 As shown, the injection molding device 3 includes an injection molding base 31, an injection molding machine 32, a first injection molding plate 33, a second injection molding plate 34, a support column 35, a drive rod 36 and a transmission device 37. The injection molding base 31 and the injection molding machine 32 are fastened together, a feed through hole is provided on the first injection molding plate 33, and an output end of the injection molding machine 32 is fastened together with the feed through hole. There are four support columns 35, four support through holes are provided on the first injection molding plate 33, four fixing through holes are provided on the second injection molding plate 34, and four support columns 35 pass through the four supporting through holes and the four fixing through holes in sequence. The transmission device 37 is fastened together with the injection molding base 31, the drive rod 36 is threadedly connected to the transmission device 37, and the drive rod 36 is rotatably connected to the second injection molding plate 34.

[0031] The injection molding base 31 is used as the main installation foundation for the installation and positioning of other components. The driving rod 36 is driven to rotate through the transmission device 37. The driving rod 36 rotates and drives the second injection molding plate 34 to move along the support column 35 until the second injection molding plate 34 and the first injection molding plate 33 clamp the injection mold 5. Then the injection molding machine 32 performs injection molding on the injection mold 5 through the feed through hole. At the same time, the base motor 22 close to the transportation device 4 outputs a rotational torque to drive the output cylinder 23 to rotate until the transport plate 24 rotates to the transport position. The output cylinder 23 outputs a displacement to drive the transport column 25 to move until the transport column 25 is connected to the injection mold 5. After completion, the output cylinder 23 near the loading box 1 is recovered, and the connected conveying column 25 and the injection mold 5 are disconnected. At the same time, the transmission device 37 drives the driving rod 36, and the driving rod 36 rotates to drive the second injection plate 34 to move. The second injection plate 34 moves to cancel the clamping of the injection mold 5. The output cylinder 23 near the transportation device 4 takes out the injection mold 5, and then the base motor 22 rotates to turn the output cylinder 23 until the output cylinder 23 is transferred to the loading position of the transportation device 4. Then the output cylinder 23 outputs the displacement to drive the conveying column 25 to move, and the conveying column 25 sends the injection mold 5 after the injection molding to the cooling device 6 for cooling treatment.

[0032] like Figure 3-Figure 5 As shown, the injection mold 5 includes a mold body 51 and a thermal sensing device 52. The mold body 51 is provided with a cooling air path 511, a first mounting hole 512, a second mounting hole 513, a fixing hole 514, an air inlet hole 515 and an injection hole 516. The thermal sensing device 52 is connected to the first mounting hole 512, the thermal sensing device 52 is connected to the second mounting hole 513, the cooling air path 511 is connected to the first mounting hole 512, the cooling air path 511 is connected to the second mounting hole 513, and the first mounting hole 512 is connected. 12, there are several second mounting holes 513, there are several thermal sensing devices 52, there are several fixing holes 514, and the several fixing holes 514 are symmetrically distributed on the mold body 51, the fixing holes 514 away from the air inlet hole 515 are connected to the cooling air path 511, the air inlet hole 515 is connected to the cooling air path 511, the injection hole 516 and the feed through hole are of the same size, a fixing cylinder 5141 is provided in the fixing hole 514, and the fixing cylinder 5141 and the fixing hole 514 are fastened.

[0033] The first mounting hole 512 and the second mounting hole 513 are used as the main mounting base for installing the thermal sensing device 52. The transport column 25 is extended into the fixing hole 514 through the transport column 25, and the transport column 25 is connected to the mold body 51. At the same time, the fixed cylinder 5141 outputs displacement during connection to fix the transport column 25 in the fixing hole 514, thereby realizing the operation of transporting the mold body 51. The injection molding machine 32 injects the mold body 51 through the feed through hole and the injection hole 516 in turn. After the injection is completed, the cooling device 6 conveys gas to the cooling gas path 511, allowing the gas to flow in the cooling gas path 511 to take away the heat in the mold body 51, and finally flows out through the fixing hole 514. At the same time, the thermal sensing device 52 controls the gas flow to perform targeted cooling in places with higher temperatures, thereby accelerating the cooling efficiency and reducing the cooling time.

[0034] like Figure 3-Figure 5 As shown, the thermal induction device 52 includes an induction housing 521, an induction magnet 522, an induction coil 523 and an induction cylinder 524. The induction housing 521 is placed in the first mounting hole 512. The induction housing 521 and the first mounting hole 512 are fastened together. An induction bin 5211 is provided in the induction housing 521. The induction magnet 522 is placed in the induction bin 5211. The induction magnet 522 and the induction bin 5211 are slidably connected. The induction magnet 522 divides the induction bin 5211 into two parts, the upper part and the lower part. 211 contains vaporized liquid, the lower part of the induction chamber 5211 contains vaporized liquid, the induction magnet 522 is placed above the vaporized liquid, a plurality of induction coils 523 are provided on the outside of the induction chamber 5211, the induction coils 523 are firmly connected to the induction housing 521, there are two induction cylinders 524, the two induction cylinders 524 are distributed on the left and right sides of the induction housing 521, the two induction cylinders 524 are placed in adjacent second mounting holes 513, and the induction cylinders 524 are firmly connected to the second mounting holes 513.

[0035] The induction housing 521 is used as the main installation base for the installation of other components. At the beginning, all the induction cylinders 524 close the gas flow. When the temperature at the location of the thermal induction device 52 is too high, the liquid in the induction chamber 5211 vaporizes and drives the induction magnet 522 to move. The movement of the induction magnet 522 causes the induction coil 523 to cut the magnetic flux lines to generate a change in the induced electromotive force, and finally generates an induced current to control the opening and closing of the induction cylinder 524, thereby controlling the direction of the gas and allowing the gas to flow through the high-temperature area to quickly take away the heat.

[0036] like Figure 1 , Figure 6 and Figure 7As shown, the cooling device 6 includes a cooling base 61, a cooling cylinder 62, a driving cylinder 63 and an air nozzle 64, the cooling base 61 and the transportation device 4 are fastened together, the cooling base 61 and the cooling cylinder 62 are fastened together, the output end of the cooling cylinder 62 and the driving cylinder 63 are fastened together, and the output end of the driving cylinder 63 and the air nozzle 64 are fastened together.

[0037] The cooling base 61 is used as the main installation base for the installation and positioning of other components. The cooling cylinder 62 outputs displacement to drive the driving cylinder 63 to move, and the movement of the driving cylinder 63 drives the nozzle 64 to move until the nozzle 64 moves to the working height. Then, the driving cylinder 63 outputs displacement to drive the nozzle 64 to move to the working position until the nozzle 64 is connected to the air inlet 515. Then, the nozzle 64 starts to output gas to the air inlet 515, allowing the gas to flow in the cooling gas path 511.

[0038] like Figure 1 As shown, a mold groove 611 is provided on the cooling base 61 , and the groove width of the mold groove 611 is greater than the mold body 51 .

[0039] The mold groove 611 is provided to facilitate installation of the mold body 51 , so that the mold body 51 can be quickly sent to the cooling base 61 for cooling.

[0040] like Figure 1 , Figure 6 and Figure 7 As shown, the air nozzle 64 is in the shape of a truncated cone, the surface of the air nozzle 64 faces the mold body 51, and a rubber ring is sleeved on the outer side of the air nozzle 64.

[0041] The air nozzle 64 is configured in a truncated cone shape to facilitate the connection between the air nozzle 64 and the cooling air path 511 . The rubber ring is configured to ensure a certain sealing performance when the air nozzle 64 and the cooling air path 511 are connected.

[0042] The working principle of the present invention is as follows: the base motor 22 outputs a rotational torque to drive the output cylinder 23 to rotate. When the output cylinder 23 rotates to the position of the loading box 1, the output cylinder 23 outputs a displacement to drive the conveying plate 24 to move. The movement of the conveying plate 24 drives the conveying column 25 to move until the conveying column 25 extends into the fixing hole 514. When connected, the fixing cylinder 5141 outputs a displacement to fix the conveying column 25 in the fixing hole 514, thereby realizing the operation of conveying the mold body 51. Then the output cylinder 23 brings the mold body 51 back. The base motor 22 outputs a rotational torque to drive the output cylinder 23 to rotate. When it rotates to the position of the injection molding device 3, the output cylinder 23 outputs a displacement to send the mold body 51 to the first injection molding plate 3 3 and the second injection molding plate 34, and then the transmission device 37 drives the driving rod 36 to rotate, and the driving rod 36 rotates to drive the second injection molding plate 34 to move along the supporting column 35 until the second injection molding plate 34 and the first injection molding plate 33 clamp the mold body 51, and the injection molding machine 32 starts to inject the mold body 51 through the feeding through hole and the injection hole 516 in turn. After the injection molding is completed, the output cylinder 23 close to the loading box 1 is recovered, and the fixed cylinder 5141 in the fixed hole 514 connected to it is recovered to cancel the fixation of the conveying column 25, and the conveying column 25 is recovered. At the same time, the base motor 22 close to the transport device 4 outputs a rotational torque to drive the output cylinder 23 to rotate, and then the output cylinder 23 drives The transport column 25 is connected to the fixing hole 514, and the transmission device 37 drives the driving rod 36 at the same time. The driving rod 36 rotates to drive the second injection molding plate 34 to move. The second injection molding plate 34 moves to cancel the clamping and fixing of the mold body 51, and then the output cylinder 23 close to the transportation device 4 takes out the mold body 51, and the base motor 22 rotates to turn the output cylinder 23 until the output cylinder 23 is transferred to the loading position of the transportation device 4, and then the output cylinder 23 outputs displacement to drive the transport column 25 to move, and the transport column 25 sends the mold body 51 after injection molding to the mold groove 611, and then the transport column 25 is withdrawn, and the cooling cylinder 62 outputs displacement to drive the driving cylinder 63 to move, and the driving cylinder 63 moves to drive the nozzle 64 moves until the air nozzle 64 moves to the working height, and then drives the air cylinder 63 to output displacement to drive the air nozzle 64 to move to the working position until the air nozzle 64 is connected to the air inlet 515, and then the air nozzle 64 starts to output gas to the air inlet 515, so that the gas flows in the cooling gas path 511, and the temperature at the location is detected by the thermal sensing device 52. When the temperature is too high, the liquid in the induction chamber 5211 vaporizes and drives the induction magnet 522 to move. The movement of the induction magnet 522 causes the induction coil 523 to cut the magnetic flux lines to generate a change in the induced electromotive force, and finally generates an induced current, thereby controlling the opening and closing of the induction cylinder 524, thereby controlling the direction of the gas, and allowing the gas to flow through the high-temperature area to quickly take away the heat.

[0043] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

Claims

1. A RS-485 terminal processing and forming equipment capable of continuously discharging materials, characterized in that: The RS-485 terminal processing and molding equipment comprises a loading box (1), a handling device (2), an injection molding device (3), a transport device (4), an injection mold (5) and a cooling device (6). There are two handling devices (2), and the two handling devices (2) are symmetrically placed with respect to the injection molding device (3). The loading box (1), the handling device (2), the injection molding device (3) and the transport device (4) are placed in sequence. The loading box (1) stores a plurality of injection molds (5). The transport device (4) is provided with a plurality of cooling devices (6). The plurality of cooling devices (6) and the transport device (4) are fastened to each other.

2. The RS-485 terminal processing and forming equipment capable of continuously discharging materials according to claim 1, characterized in that: The transport device (2) comprises a transport base (21), a base motor (22), an output cylinder (23), a transport plate (24) and a transport column (25); the transport base (21) and the base motor (22) are tightly connected; the output end of the base motor (22) and the output cylinder (23) are tightly connected; the output end of the output cylinder (23) and the transport plate (24) are tightly connected; there are four transport columns (25); and the four transport columns (25) and the transport plate (24) are tightly connected.

3. The RS-485 terminal processing and forming equipment capable of continuously discharging materials according to claim 2, characterized in that: The injection molding device (3) comprises an injection molding base (31), an injection molding machine (32), a first injection molding plate (33), a second injection molding plate (34), a support column (35), a driving rod (36) and a transmission device (37); the injection molding base (31) and the injection molding machine (32) are tightly connected; the first injection molding plate (33) is provided with a feeding through hole; the output end of the injection molding machine (32) is tightly connected to the feeding through hole; there are four support columns (35); the first injection molding plate (33) is provided with four supporting through holes; the second injection molding plate (34) is provided with four fixing through holes; the four support columns (35) pass through the four supporting through holes and the four fixing through holes in sequence; the transmission device (37) and the injection molding base (31) are tightly connected; the driving rod (36) and the transmission device (37) are threadedly connected; the driving rod (36) and the second injection molding plate (34) are rotatably connected.

4. The RS-485 terminal processing and forming equipment capable of continuously discharging materials according to claim 3 is characterized in that: The injection mold (5) comprises a mold body (51) and a thermal sensing device (52); the mold body (51) is provided with a cooling air path (511), a first mounting hole (512), a second mounting hole (513), a fixing hole (514), an air inlet hole (515) and an injection hole (516); the thermal sensing device (52) is connected to the first mounting hole (512); the thermal sensing device (52) is connected to the second mounting hole (513); the cooling air path (511) is in communication with the first mounting hole (512); the cooling air path (511) is in communication with the second mounting hole (513); the first mounting hole ( There are a plurality of second mounting holes (512), there are a plurality of second mounting holes (513), there are a plurality of thermal sensing devices (52), there are a plurality of fixing holes (514), the plurality of fixing holes (514) are symmetrically distributed on the mold body (51), the fixing holes (514) away from the air inlet holes (515) are connected to the cooling air path (511), the air inlet holes (515) are connected to the cooling air path (511), the injection holes (516) and the feed through holes are of the same size, a fixing cylinder (5141) is provided in the fixing hole (514), and the fixing cylinder (5141) and the fixing hole (514) are fastened together.

5. The RS-485 terminal block processing and forming equipment capable of continuously discharging materials according to claim 4 is characterized in that: The thermal induction device (52) comprises an induction housing (521), an induction magnet (522), an induction coil (523), and an induction cylinder (524); the induction housing (521) is placed in a first mounting hole (512); the induction housing (521) and the first mounting hole (512) are fastened together; an induction bin (5211) is provided in the induction housing (521); the induction magnet (522) is placed in the induction bin (5211); the induction magnet (522) and the induction bin (5211) are slidably connected; the induction magnet (522) divides the induction bin (5211) into an upper portion and a lower portion; The lower part of the induction chamber (5211) contains vaporized liquid, the induction magnet (522) is placed above the vaporized liquid, a plurality of induction coils (523) are arranged outside the induction chamber (5211), the induction coils (523) and the induction housing (521) are tightly connected, there are two induction cylinders (524), the two induction cylinders (524) are distributed on the left and right sides of the induction housing (521), the two induction cylinders (524) are placed in adjacent second mounting holes (513), and the induction cylinders (524) and the second mounting holes (513) are tightly connected.

6. The RS-485 terminal block processing and forming equipment capable of continuously discharging materials according to claim 5, characterized in that: The cooling device (6) comprises a cooling base (61), a cooling cylinder (62), a driving cylinder (63) and an air nozzle (64); the cooling base (61) and the transport device (4) are tightly connected; the cooling base (61) and the cooling cylinder (62) are tightly connected; the output end of the cooling cylinder (62) and the driving cylinder (63) are tightly connected; and the output end of the driving cylinder (63) and the air nozzle (64) are tightly connected.

7. The RS-485 terminal block processing and forming equipment capable of continuously discharging materials according to claim 6, characterized in that: The cooling base (61) is provided with a mold groove (611), and the mold groove (611) has a groove width greater than the mold body (51).

8. The RS-485 terminal block processing and forming equipment capable of continuously discharging materials according to claim 7, characterized in that: The air nozzle (64) is in the shape of a truncated cone, the surface of the air nozzle (64) faces the mold body (51), and a rubber ring is sleeved on the outer side of the air nozzle (64).

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