3DVC automatic heating sealing machine

Abstract

The utility model relates to a 3DVC automatic heating sealing machine which comprises a rack, first linear modules are symmetrically arranged on the rack, the lower ends of the first linear modules are slidably connected with a material transferring mechanism, and the lower end of the material transferring mechanism is slidably connected with a cutting sealing mechanism. The rack is further provided with a heating mechanism arranged below the first linear module and a material temporary storage mechanism arranged at the left end of the heating mechanism, the heating mechanism is connected with a positioning mechanism, and the material transferring mechanism is used for clamping materials and transferring the materials to the heating mechanism for heating treatment. The cutting and sealing mechanism is used for cutting off and sealing the ends of the materials after the materials are heated. All the technical characteristics are mutually associated and cooperatively work to jointly form a complete working system of the 3DVC automatic heating sealing machine. The full-automatic production reduces the requirement of manual labor, improves the production efficiency and the product quality, and reduces the rejection rate, so that the production cost is reduced, and the economic benefits of enterprises are improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to a heat dissipation device manufacturing equipment field, concretely relates to a 3DVC automatic heating sealing machine. BACKGROUND

[0002] 3DVC radiator is widely used in 5G chips, servers and other high-power equipment as high-efficiency heat dissipation element. Its processing flow usually includes key procedures such as liquid injection, heating degassing, cutting sealing. At present, in the prior art, manual operation accounts for a high proportion, and the production efficiency is low. Traditional 3DVC production relies on assembly line type manual operation area. Heating degassing needs manual material loading into the oven and time control. Cutting sealing needs manual adjustment of fixture and cutter position. For example, after liquid injection, manual operation is needed to transfer to the heating station. After heating, manual operation is needed to transfer to the cutting device. After cutting, manual operation is needed to transfer to the sealing device. Workers need to frequently operate high-temperature equipment, which has safety hazards. This manual operation method can easily cause uneven heating temperature, cutting position deviation and loose sealing, etc. In addition, manual operation can easily cause material bumping, affecting product appearance quality.

[0003] Although some processes are now automated on the market, such as mechanical cutting machine, tunnel oven, automatic sealing, etc., each device operates independently, lacks collaborative control, and the production efficiency is still low, which cannot meet the user's demand.

[0004] Therefore, how to overcome the above-mentioned defects has become an important topic for technicians in the field to solve. INVENTION CONTENTS

[0005] The utility model overcomes the technical insufficiency, provides a 3DVC automatic heating sealing machine.

[0006] To achieve the above-mentioned purpose, the utility model adopts the following technical scheme:

[0007] A 3DVC automatic heating sealing machine, including the frame, the frame is symmetrically provided with the first linear module, the first linear module lower end is slidably connected with the material transfer mechanism, the material transfer mechanism lower end is slidably connected with the cutting sealing mechanism, the frame is also equipped with the heating mechanism arranged below the first linear module and the material temporary storage mechanism arranged at the left end of the heating mechanism, the heating mechanism is connected with the positioning mechanism, the material transfer mechanism is used for clamping and transferring the material to the heating mechanism for heating treatment, the cutting sealing mechanism is used for cutting and sealing the material end after heating.

[0008] Further, the first linear module includes a first sliding rail and a first motor for driving the material transfer mechanism to slide along the first sliding rail.

[0009] Further, the material transferring mechanism comprises a first support slidably connected to the first linear module, a second linear module mounted on the first support, a first telescopic cylinder slidably connected to the second linear module, and a clamping jaw cylinder connected to the lower end of the first telescopic cylinder.

[0010] Further, the second linear module comprises a fixed base, a second sliding rail and a first guide rod arranged on the fixed base, and a first driving cylinder connected to the first guide rod.

[0011] Further, the cutting and sealing mechanism comprises a second support slidably connected to the lower end of the first support, a second driving cylinder connected to one end of the second support, a second telescopic cylinder connected to the other end of the second support, a second guide rod connected to the second support and located between the second driving cylinder and the second telescopic cylinder, and a cutting and sealing die slidably connected to the second guide rod, the cutting and sealing die being slidable along the second guide rod under the driving of the second driving cylinder, the second telescopic cylinder being provided with a cutting and sealing cutter head at the end thereof, the cutting and sealing cutter head being arranged towards the cutting and sealing die, the cutting and sealing die comprising a positioning block for cooperating with the structure of the cutting and sealing cutter head, and a waste frame being connected to the side wall of the second support.

[0012] Further, the heating mechanism comprises a first fixed seat connected to the rack, a third linear module mounted on the first fixed seat, a heating module slidably connected to the third linear module, and a temperature measuring module arranged on the heating module, the heating module comprising a heating rod and a heating hole for inserting the material.

[0013] Further, the third linear module comprises a first sliding base, a third sliding rail and a third guide rod mounted in the first sliding base, and a second motor connected to one end of the third guide rod.

[0014] Further, the positioning mechanism comprises a rotating cylinder mounted on the first sliding base, the upper end of the rotating cylinder being connected with a baffle capable of rotating with the rotating cylinder, the baffle being connected with a supporting table, and the baffle being capable of rotating above the heating mechanism and pressing the material on the heating mechanism.

[0015] Further, the material temporary storage mechanism comprises a material frame connected to the rack, the material frame being formed with a material placing space, the side wall of the material frame being connected with a connecting plate, and the connecting plate being provided with a positioning hole corresponding to the material inserting hole.

[0016] Compared with the prior art, the utility model has the advantages of:

[0017] The application provides a 3DVC automatic heating sealing machine, which comprises a rack, a first linear module symmetrically arranged on the rack, a material transfer mechanism slidingly connected to the lower end of the first linear module, a cutting and sealing mechanism slidingly connected to the lower end of the material transfer mechanism, a heating mechanism arranged below the first linear module and a material temporary storage mechanism arranged at the left end of the heating mechanism on the rack, and a positioning mechanism connected to the heating mechanism, wherein the material transfer mechanism is used for clamping and transferring materials to the heating mechanism for heating treatment, and the cutting and sealing mechanism is used for cutting and sealing the end of the material after the material is heated. The technical features are interrelated and cooperatively work to form a complete working system of the 3DVC automatic heating sealing machine. The rack serves as the basic support structure of the whole device and provides mounting positions for other components. The first linear module is symmetrically arranged on the rack and provides a horizontal movement basis for the material transfer mechanism. The material transfer mechanism can slide on the first linear module to realize the transfer of materials between different process positions. The cutting and sealing mechanism is slidingly connected to the lower end of the material transfer mechanism and performs cutting and sealing operations on the material after being moved to a suitable position with the material transfer mechanism. The heating mechanism is arranged below the first linear module and is a place for heating and degassing of the material. The positioning mechanism is connected to the heating mechanism and is used for fixing the material to facilitate stable heating. The material temporary storage mechanism is arranged at the left end of the heating mechanism and is used for storing the material after cutting and sealing to wait for subsequent process treatment. The 3DVC automatic heating sealing machine provided by the application realizes full automation of the heating, cutting, sealing and temporary storage processes of the 3DVC radiator through the cooperative work of the above components, reduces manual intervention, greatly shortens the production cycle and improves the output per unit time. The positioning mechanism ensures the accurate heating position of the material, the heating mechanism realizes uniform heating and degassing, the cutting and sealing mechanism accurately completes the cutting and sealing operations, effectively improves the vacuum degree and sealing performance of the product, reduces the product defect rate and improves the overall quality and performance of the product. Full automation reduces the demand for manual labor, improves production efficiency and product quality, reduces the scrap rate, thereby reducing production costs and improving the economic benefits of enterprises. Through the close cooperation and accurate control of the above components, the device maintains a stable working state during a long time of operation, reduces production failures and downtime caused by human factors or unstable equipment, and ensures the continuity and stability of production. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 is a perspective view of the automatic heating sealing machine of the application.

[0019] Figure 2 is a structural schematic view of the material transfer mechanism and the cutting and sealing mechanism of the application.

[0020] Figure 3 is a structural schematic view of the cutting and sealing die, the second telescopic cylinder and the cutting and sealing tool bit of the application.

[0021] Figure 4 is the structure schematic view of the heating mechanism and the positioning mechanism of the present application.

[0022] Figure 5 is the structure schematic view of the material temporary storage mechanism of the present application. DETAILED DESCRIPTION

[0023] The features of the present application and other related features are further described in detail by the following examples, so as to be understood by the skilled in the art:

[0024] It should be noted that the 3DVC automatic heating sealing machine of the present application includes rack and protective shell and some other common device mechanisms or components, which are the known technology in the art and are not the focus of protection of the present application. Therefore, in order to be more intuitive to understand and describe in combination with the drawings, the textual description of this part is simplified or omitted, and the drawings are also simplified or omitted.

[0025] The material 100 mentioned in the present application is a 3DVC heat sink, and is indicated in the drawings. For the convenience of description, it is called material 100 in the following description.

[0026] As shown in FIG. 1, the 3DVC automatic heating sealing machine of the present application comprises a machine frame 1, a material temporary storage mechanism 2, a heating mechanism 3, a positioning mechanism 4, a sealing mechanism 5 and a protective shell 6. Figures 1 to 5As shown, the case provides a 3DVC automatic heating sealing machine, including a rack. The first linear module 1 is symmetrically arranged on the rack, and the material transfer mechanism 2 is slidably connected to the lower end of the first linear module 1. The cutting and sealing mechanism 3 is slidably connected to the lower end of the material transfer mechanism 2. The heating mechanism 4 is arranged below the first linear module 1 on the rack, and the material temporary storage mechanism 5 is arranged at the left end of the heating mechanism 4. The positioning mechanism 6 is connected to the heating mechanism 4. The material transfer mechanism 2 is used to clamp and transfer the material 100 to the heating mechanism 4 for heating treatment, the first linear module 1 provides horizontal movement power and track for the material transfer mechanism 2, so that the material transfer mechanism 2 can move accurately, and the cooperation of the first linear module 1 and the material transfer mechanism 2 realizes the automation and precision of material transfer, improves the efficiency and accuracy of material transfer, and avoids errors and low efficiency problems caused by manual operation. The heating mechanism 4 heats the 3DVC radiator material after liquid injection and vacuumization treatment, further discharges the air in the material, and prepares for the subsequent cutting and sealing process. By heating and degassing, the vacuum degree in the 3DVC radiator is improved, the heat dissipation performance and reliability are enhanced, and the product quality is guaranteed. After the material is placed on the heating mechanism 4, the positioning mechanism 6 presses and accurately fixes the material at the heating position, ensures the position stability of the material during heating, and improves the heating effect and consistency. Avoid displacement or shaking of the material during heating, so as to ensure the stability of product quality. The cutting and sealing mechanism 3 is used to cut and seal the end of the material 100 after heating, so as to ensure the formation of a sealed vacuum environment in the 3DVC radiator and ensure its heat dissipation performance. The material temporary storage mechanism 5 is used to temporarily store the 3DVC radiator material after cutting and sealing, and waits for further processing in the subsequent process, so as to make the production process have a certain buffering property, ensure the smooth connection between processes, and improve the efficiency and flexibility of the whole production process.

[0027] In specific implementation, the automatic equipment of the case is used in the heating and cutting process of the full-automatic equipment for 3DVC full-process processing. After the previous liquid injection and vacuumization process is completed, the material is automatically transferred to the heating mechanism of the case. The positioning mechanism is started to press the material in the heating mechanism for heating operation to further discharge the air in the material. When the temperature measuring module senses that the heating mechanism is heated to the set temperature, the material transfer mechanism is started to clamp the material to be cut. The cutting and sealing mechanism performs cutting and sealing operation. The material transfer mechanism moves the cut waste material out of the discharge, and then the first linear module drives the material transfer mechanism and the cutting and sealing mechanism to move together, and temporarily stores the cut material in the material temporary storage mechanism.

[0028] It needs to be explained that in the implementation, the presence or absence of the object is detected by setting multiple induction switches, and the in-place condition of the object is detected, so as to trigger the action of each mechanism or change the state of each mechanism, thereby realizing the cyclic work of each mechanism. The related content here is a known technology in the art, and the setting position and number of each induction switch are not described one by one. In the implementation, those skilled in the art can adaptively set the corresponding induction switch to realize the linkage between each mechanism according to the common sense in the art and the mechanisms in the case.

[0029] Specifically, referring to Figure 1 , the first linear module 1 of the case includes a first sliding rail 11 and a first motor 12 for driving the material transfer mechanism 2 to slide along the first sliding rail 11. In the technical solution of the whole 3DVC automatic heating sealing machine, the first linear module 1 is a key motion driving component, which is closely connected with the material transfer mechanism 2. The first sliding rail 11 in the first linear module 1 provides a sliding track for the material transfer mechanism 2, and defines the movement path of the material transfer mechanism 2. The first motor 12 provides power for the sliding of the material transfer mechanism 2 along the first sliding rail 11, and through the operation of the motor, the material transfer mechanism 2 is accurately moved in a straight line on the first sliding rail 11. The material transfer mechanism 2 is connected with the cutting and sealing mechanism 3, and the movement of the material transfer mechanism 2 drives the cutting and sealing mechanism 3 to move, thereby realizing the transfer operation of the material 100 between the heating mechanism 4, the cutting and sealing mechanism 3 and the material temporary storage mechanism 5.

[0030] As shown in Figure 1 , Figure 2 , further, the material transfer mechanism 2 includes a first support 21 slidingly connected to the first linear module 1, a second linear module 22 installed on the first support 21, a first telescopic cylinder 23 slidingly connected to the second linear module 22, and a gripper cylinder 24 connected to the lower end of the first telescopic cylinder 23. The first support 21 is used to connect the rack and bear the second linear module 22, the first telescopic cylinder 23 and the gripper cylinder 24. Through the orthogonal motion of the first linear module 1 and the second linear module 22, combined with the vertical lifting of the first telescopic cylinder 23, the accurate positioning of the material 100 on the XYZ axis is realized. In the implementation, the second linear module 22 is adjustable, and the clamping force of the gripper cylinder 24 can also be debugged. Through this design, the equipment is compatible with 3DVC radiators of different lengths and pipe diameters, the replacement time is fast, and the applicability is good.

[0031] In specific implementation, the first linear module 1 drives the material transfer mechanism 2 to the upper side of the heating mechanism 4, the second linear module 22 drives the first telescopic cylinder 23 to move horizontally, and the clamping jaw cylinder 24 is aligned with the clamping position of the material 100. The piston rod of the first telescopic cylinder 23 is extended to drive the clamping jaw cylinder 24 to descend to the straight pipe section of the material 100, the clamping jaw is closed to clamp the material 100, and the subsequent cutting and sealing mechanism is operated for cutting and sealing.

[0032] As shown in Figure 1 , Figure 2 further, the second linear module 22 includes a fixed base 221, a second sliding rail 222 and a first guide rod 223 arranged on the fixed base 221, and a first driving cylinder 224 connected to the first guide rod 223. In specific implementation, the first driving cylinder 224 is used to drive the first telescopic cylinder 23 to slide along the second guide rod 223 and the second sliding rail 222, so as to drive the clamping jaw cylinder 24 to slide together. The cooperation of each component of the second linear module 22 provides precise horizontal movement control for the first telescopic cylinder 23, so that the clamping jaw cylinder 24 can more accurately align with the clamping position of the material 100, improve the accuracy of the material 100 in the horizontal direction, and help the subsequent heating, cutting and sealing process to proceed smoothly, and ensure the product quality. The stable support of the fixed base 221, the precise guidance of the second sliding rail 222 and the first guide rod 223, and the stable driving of the first driving cylinder 224 make the movement of the material transfer mechanism 2 in the horizontal direction more stable and reliable, reduce the vibration and shaking of the equipment during operation, reduce the failure rate of the equipment, and prolong the service life of the equipment. The fast response and stable driving of the first driving cylinder 224 can quickly adjust the horizontal position of the first telescopic cylinder 23 and the clamping jaw cylinder 24, reduce the transfer time of the material 100 in the horizontal direction, improve the efficiency of the whole production process, and shorten the production cycle.

[0033] When it is necessary to adjust the position of the material 100 in the horizontal direction, the control system sends an instruction to the first driving cylinder 224. The piston rod of the first driving cylinder 224 makes linear extension and contraction movement under the action of compressed air, and since the piston rod is connected with the first telescopic cylinder 23, the movement of the piston rod drives the first telescopic cylinder 23 to slide along the second sliding rail 222 and the first guide rod 223. The sliding of the first telescopic cylinder 23 further drives the clamping jaw cylinder 24 connected to the lower end thereof to move together, so that the clamping jaw cylinder 24 reaches the target clamping position of the material 100 or the target position to be transferred. When the transfer of the material 100 is completed, the piston rod of the first driving cylinder 224 reverses the movement, drives the first telescopic cylinder 23 and the clamping jaw cylinder 24 to return to the initial position, waits for the next operation instruction, and thus realizes the continuous transfer of the material 100 in the horizontal direction.

[0034] further, as shown in Figures 1-3As shown, the cutting and sealing mechanism 3 includes a second support 31 slidably connected to the lower end of the first support 21, a second drive cylinder 32 connected to one end of the second support 31, a second telescopic cylinder 33 connected to the other end of the second support 31, a second guide rod 34 connected to the second support 31 and located between the second drive cylinder 32 and the second telescopic cylinder 33, and a cutting and sealing die 35 slidably connected to the second guide rod 34. The second support 31 serves as the mounting base for the other components of the cutting and sealing mechanism 3 and can slide on the first support 21 to move the entire cutting and sealing mechanism 3, achieving the transfer of the material 100 between different stations. The cutting and sealing die 35 can slide along the second guide rod 34 under the drive of the second drive cylinder 32. The end of the second telescopic cylinder 33 is connected to a cutting and sealing knife head 36, which is arranged towards the cutting and sealing die 35. The cutting and sealing die 35 includes a positioning block 351 for cooperating with the structure of the cutting and sealing knife head 36.

[0035] The second drive cylinder 32 provides power for the cutting and sealing die 35 to slide along the second guide rod 34, making it approach or move away from the cutting and sealing knife head 36. The movement position and speed of the cutting and sealing die 35 can be accurately controlled to ensure the cooperation precision with the cutting and sealing knife head 36 during cutting and sealing, improving the quality of cutting and sealing. The second telescopic cylinder 33 drives the cutting and sealing knife head 36 to move towards the cutting and sealing die 35 to achieve cutting and sealing of the material 100, providing stable and powerful driving force to ensure that the cutting and sealing knife head 36 can quickly and accurately complete the cutting and sealing action, improving work efficiency and product quality. The cutting and sealing die 35 cooperates with the cutting and sealing knife head 36 to fix the material 100 during cutting and provide corresponding support and forming action during sealing. This ensures the accurate position of the material 100 during cutting and sealing, improves the quality and sealing of cutting and sealing, and reduces the scrap rate. By setting the positioning block 351, the cutting and sealing die 35 accurately cooperates with the cutting and sealing knife head 36 during cutting and sealing, ensuring the accurate cutting position of the material 100 and improving the quality and sealing of the sealing. This reduces errors during cutting and sealing, improves product consistency and qualification rate. The waste frame 37 is also connected to the side wall of the second support 31 to store the waste material after cutting, facilitating centralized processing, effectively maintaining the cleanliness of the work area, avoiding the impact of waste material on equipment and working environment, and improving production safety and efficiency.

[0036] In specific implementation, after the heating process and the temperature measuring process are completed, the cutting operation needs to be performed. At this time, the first telescopic cylinder 23 slides on the third linear module to find the accurate position, and then the first telescopic cylinder 23 is lowered to drive the clamping jaw cylinder 24 to be lowered, and the clamping jaw cylinder 24 clamps the upper end of the straight pipe of the material 100 to be cut off, and then the cutting and sealing mechanism 3 is started, the second driving cylinder 32 drives the cutting and sealing die 35 to be close to the cutting and sealing cutter head 36, and the second telescopic cylinder 33 drives the cutting and sealing cutter head 36 to move towards the cutting and sealing die 35 to cut the pipe at the upper end of the material 100 to be cut. After cutting, the first telescopic cylinder 23 is raised to drive the clamping jaw cylinder 24 to be raised, and the first telescopic cylinder 23 slides on the second linear module 22 and places the cut waste material 100 in the waste frame 37. At this time, although the cutting work is completed, the cutting and sealing die 35 and the cutting and sealing cutter head 36 are not separated, and the cut material 100 is always clamped between the cutting and sealing die 35 and the cutting and sealing cutter head 36. Through the way of pneumatic cooperation with the slide rail connection, the second support 31 is driven to slide relative to the first support 21 to take out the material 100 from the heating and sealing mechanism 3, and then the first linear module 1 drives the material 100 to be transferred to the mechanism to start, drives the cutting and sealing mechanism 3 to slide along the first linear module 1 to the material temporary storage mechanism 5, and then drives the second support 31 to slide relative to the first support 21 to reset, temporarily stores the cut material 100 in the material temporary storage mechanism 5, and then the cutting and sealing die 35 and the cutting and sealing cutter head 36 are loosened and reset to complete the whole process.

[0037] As shown in Figure 1 , Figure 4 specifically, the heating mechanism 4 includes a first fixed seat 41 connected to the rack, a third linear module 42 installed on the first fixed seat 41, a heating module 43 slidably connected to the third linear module 42, and a temperature measuring module provided on the heating module 43. The heating module 43 includes a heating rod 431 and a heating hole 432 for inserting the material 100.

[0038] As mentioned above, in practice, the heating mechanism 4 is an integrated component, including the heating rod 431 and the heating hole 432. The heating rod 431 usually adopts a resistance heating element, which can convert electrical energy into heat energy; the size and shape of the heating hole 432 are designed according to the specifications of the material 100, to ensure that the material 100 can be inserted smoothly and maintain a proper distance from the heating rod 431. The heat generated by the heating rod 431 is transferred to the material 100 inserted into the heating hole 432, causing the air inside the material 100 to be expelled, preparing for the subsequent cutting and sealing process. The provision of the heating module 43 can achieve effective heating of the material 100, improve the vacuum degree inside the material 100, and enhance the heat dissipation performance and reliability of the product. The heating hole 432 provides space for the material 100 to be inserted, allowing the material 100 to come into full contact with the heating rod 431 and receive heat, ensuring that the material 100 can be accurately placed in the heating position, improving the accuracy and consistency of heating. Users can choose different models and quantities of heating holes 432 according to the needs of different models of materials 100, allowing the equipment to adapt to diverse production needs and improving the flexibility and applicability of the equipment. The temperature measurement module mentioned in this case usually uses temperature sensors such as thermocouples or thermistors, which have high-precision temperature measurement capabilities, can monitor the temperature of the heating module 43 in real time, and feed back the temperature signal to the control system, so that the control system adjusts the power of the heating rod 431 according to the set temperature value, achieving precise control of the heating temperature, ensuring temperature stability and accuracy during the heating process, avoiding the impact of excessive or insufficient temperature on the heating effect of the material 100 and product quality, and improving the controllability of the production process and the consistency of the product.

[0039] Therefore, the heating process occupies a relatively long time, in order to improve the overall production efficiency, the corresponding number of heating mechanisms need to be added according to the actual situation and the demand for production efficiency, to balance the time of each process. In this case, six heating mechanisms are provided. Of course, users can set different numbers of heating mechanisms according to actual needs, and the number mentioned in this case is not limited.

[0040] Continuing to refer to Figure 1 , Figure 4 As shown in

[0041] Continuing to refer to Figure 1 ,Figure 4 As shown, the positioning mechanism 6 includes a rotary air cylinder 61 mounted on the first sliding seat 421, the upper end of the rotary air cylinder 61 is connected with a baffle 62 which can rotate with the rotary air cylinder, the baffle 62 is connected with a support table 63, and the baffle 62 can rotate above the heating mechanism 4 and press the material on the heating mechanism 4. Through the positioning mechanism 6 formed by the above structure, stable positioning and pressing effect are provided, which can avoid problems such as uneven heating, poor contact with the heating mechanism 4, etc. caused by displacement or shaking of the material 100 during heating, thereby reducing the scrap rate of products and improving the production efficiency.

[0042] When the material 100 is inserted into the heating hole 432 of the heating mechanism 4, the control system sends a command to the rotary air cylinder 61. The rotary air cylinder 61 starts to work under the action of compressed air, drives the rotary shaft to rotate, thereby driving the baffle 62 connected to the upper end of the rotary shaft to rotate. The baffle 62 gradually rotates above the heating mechanism 4 in the rotating process, at this time the support table 63 connected to the baffle 62 contacts the material 100 and presses the material 100 on the heating mechanism 4, realizing the positioning and fixing of the material 100, and until the material is transferred to the material temporary storage mechanism.

[0043] As shown in Figure 1 , Figure 5 The material temporary storage mechanism 5 includes a material frame 51 connected to the rack, the material frame 51 forms a storage space 511 inside, the side wall of the material frame 51 is connected with a connecting plate 52, and the connecting plate 52 is provided with a positioning hole 521 corresponding to the insertion of the material 100. The material temporary storage mechanism 5 realizes the temporary storage and positioning of the material 100 through the combination of the material frame 51 and the connecting plate 52. The material frame 51 serves as the basic frame and is connected to the rack to provide the storage space 511 for the material 100. The connecting plate 52 is fixed to the side wall of the material frame 51 and realizes the accurate positioning of the material 100 through the positioning hole 521. The positioning hole 521 matches the shape of the material 100 to ensure the accuracy of the direction and position when the material 100 is inserted. In specific implementation, the user can select and set different types and quantities of positioning holes 521 according to the requirements of different types of materials.

[0044] The material transfer mechanism 2 clamps and moves the material 100 after cutting and sealing to above the material frame 51. The straight pipe section of the material 100 is aligned with the positioning hole 521 of the connecting plate 52, and after the positioning mechanism 6 is loosened, it is vertically inserted into the storage space 511 of the material frame 51. The material 100 is temporarily stored in the material frame 51 and is transferred to the next process by manual or automatic equipment. When producing different types of 3DVC heat sinks, the user can quickly adapt to the size and positioning requirements of the new material 100 by disassembling and replacing the connecting plate 52 corresponding to the positioning hole 521.

[0045] As described above, the case protects a 3DVC automatic heating sealing machine, all the same or similar technical solutions should be shown to fall within the scope of the protection of the case.

Claims

1. A 3DVC automatic heat sealer, characterized in that: The utility model provides a material cutting and sealing device, including frame, first linear module (1) are symmetrically arranged on the frame, material transfer mechanism (2) are slidably connected to the lower end of first linear module (1), cutting and sealing mechanism (3) are slidably connected to the lower end of material transfer mechanism (2), heating mechanism (4) are further provided on the frame and are arranged below first linear module (1), and material temporary storage mechanism (5) are arranged at the left end of heating mechanism (4), positioning mechanism (6) are connected to heating mechanism (4), material transfer mechanism (2) are used to clamp and transfer material (100) to heating mechanism (4) and carry out heating treatment, and cutting and sealing mechanism (3) are used to cut and seal the end of material (100) after heating.

2. The 3DVC automatic heat sealer according to claim 1, characterized in that: The first linear module (1) comprises a first sliding rail (11) and a first motor (12) for driving the material transfer mechanism (2) to slide along the first sliding rail (11).

3. The 3DVC automatic heat sealer according to claim 1, wherein: The material transfer mechanism (2) comprises a first support (21) slidably connected to the first linear module (1), a second linear module (22) mounted on the first support (21), a first telescopic cylinder (23) slidably connected to the second linear module (22), and a clamping jaw cylinder (24) connected to the lower end of the first telescopic cylinder (23).

4. The 3DVC automatic heat sealer according to claim 3, characterized in that: The second linear module (22) comprises a fixed base (221), a second sliding rail (222) and a first guide rod (223) arranged on the fixed base (221), and a first drive cylinder (224) connected to the first guide rod (223).

5. The 3DVC automatic heat sealer according to claim 3, wherein: The cutting and sealing mechanism (3) comprises a second support (31) slidably connected to the lower end of the first support (21), a second drive cylinder (32) connected to one end of the second support (31), a second telescopic cylinder (33) connected to the other end of the second support (31), a second guide rod (34) connected to the second support (31) and located between the second drive cylinder (32) and the second telescopic cylinder (33), and a cutting and sealing die (35) slidably connected to the second guide rod (34), the cutting and sealing die (35) can slide along the second guide rod (34) under the drive of the second drive cylinder (32), the end of the second telescopic cylinder (33) is connected with a cutting and sealing tool bit (36), the cutting and sealing tool bit (36) is arranged towards the cutting and sealing die (35), the cutting and sealing die (35) comprises a positioning block (351) for cooperating with the structure of the cutting and sealing tool bit (36), and a waste frame (37) is connected to the side wall of the second support (31).

6. The 3DVC automatic heat sealer of claim 1, wherein: The heating mechanism (4) comprises a first fixed seat (41) connected to the frame, a third linear module (42) mounted on the first fixed seat (41), a heating module (43) slidably connected to the third linear module (42), and a temperature measuring module arranged on the heating module (43), the heating module (43) comprises a heating rod (431) and a heating hole (432) for inserting the material (100).

7. A 3DVC automatic heat sealer according to claim 6, characterized in that: The third linear module (42) comprises a first sliding base (421), a third sliding rail (422) and a third guide rod (423) installed in the first sliding base (421), and a second motor (424) connected to one end of the third guide rod (423).

8. The 3DVC automatic heat sealer of claim 6, wherein: The positioning mechanism (6) comprises a rotary air cylinder (61) installed on the first sliding base (421), an upper end of the rotary air cylinder (61) being connected with a baffle (62) capable of rotating with the rotary air cylinder, and a supporting table (63) being connected to the baffle (62), the baffle (62) being capable of rotating above the heating mechanism (4) and pressing the material on the heating mechanism (4).

9. The 3DVC automatic heat sealer according to claim 1, wherein: The material temporary storage mechanism (5) comprises a material frame (51) connected to the rack, a storage space (511) being formed in the material frame (51), and a connecting plate (52) being connected to a side wall of the material frame (51), a positioning hole (521) corresponding to the connecting plate (52) being formed on the connecting plate (52) and being used for inserting the material (100).

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