Forming and slitting integrated carrier tape production device

Abstract

The forming and slitting integrated carrier tape production device comprises a base, a bottom support is arranged in the base, a cylinder and a heat dissipation mechanism are arranged above the bottom support, a driving shaft is arranged in the cylinder, and a plurality of forming mechanisms are arranged in the cylinder; a first transmission shaft and a transmission roller are arranged on the surface of the base; a first transmission part is arranged between the driving shaft and the first transmission shaft, and a second transmission part is arranged between the driving shaft and the heat dissipation mechanism; a cam is arranged on the surface of the driving shaft, the forming mechanism comprises a protruding block and a forming part, and the bottom support comprises a heat source pipe, a heating groove and a slitting mechanism. The heat dissipation mechanism comprises a second transmission shaft and a fan. According to the invention, the carrier tape can be continuously heated, formed, cooled and slit, the production line and the equipment investment cost can be effectively simplified, the transmission and the receiving of the carrier tape are more synchronous, and the tensile deformation of the carrier tape in the transmission process can be effectively avoided.

Description

Technical Field

[0001] The invention relates to the technical field of electronic component production, and in particular to a forming and slitting integrated carrier tape production device. Background Art

[0002] Carrier tape is a strip product used for packaging electronic products. It has a certain thickness and is mainly used with cover tape. It can carry and store electronic components such as resistors, capacitors, and transistors in the space inside the carrier tape. The space for storing electronic components is then closed with the cover tape to form a closed package, which can effectively protect the electronic components from contamination and damage during transportation. The space on the surface of the carrier tape for storing electronic components is commonly known as a pocket. During the mounting process of electronic components, the cover tape needs to be peeled off, and the mounting equipment is positioned through the index holes of the carrier tape, and the electronic components stored in the pockets of the carrier tape are taken out one by one and placed on the integrated circuit board.

[0003] In the production process of carrier tape, it needs to go through forming and slitting. The purpose of forming is to form pockets of different depths and sizes on the surface of the carrier tape to accommodate electronic components of different categories and volumes. In the actual production process, for some small-scale carrier tape manufacturers, the forming and slitting processes of some carrier tapes need to go through two or more processes to achieve, which not only affects the efficiency of carrier tape production, but also requires the addition of more production equipment to meet production needs. It not only increases the process nodes of the carrier tape production line, affecting the production efficiency of the carrier tape, but also increases the cost expenditure caused by the addition of production lines, which is not conducive to the operation of small carrier tape manufacturers.

[0004] There are many ways to form carrier pockets, such as heated compression molding, heated vacuum molding, etc. When the heated compression molding method is used, the heated portion of the carrier is easily affected by the traction force, causing the heated portion to be elongated. This problem is caused by the different traction forces at the feeding end and the receiving end of the carrier. When the forces at both ends of the carrier are different, it will inevitably cause the carrier to stretch or bulge during transmission, affecting the normal production process of the carrier and the molding quality of the carrier. Summary of the invention

[0005] The object of the present invention is to provide a forming and slitting integrated carrier tape production device to solve the problems raised in the above-mentioned background technology.

[0006] To achieve the above object, the present invention provides the following technical solution: a forming and slitting integrated carrier tape production device, comprising a base, a bottom bracket is arranged inside the base, a cylinder and a heat dissipation mechanism are arranged above the bottom bracket, a driving shaft is arranged inside the cylinder, and a plurality of forming mechanisms are arranged inside the cylinder;

[0007] A first transmission shaft and a transmission roller are arranged on the surface of the base, a first meshing portion is arranged between the first transmission shaft and the transmission roller; a first transmission portion is arranged between the drive shaft and the first transmission shaft, and a second transmission portion is arranged between the drive shaft and the heat dissipation mechanism;

[0008] The end of the driving shaft away from the second transmission part is connected to a driving mechanism, the surface of the driving shaft is provided with cams distributed in a staggered manner, the molding mechanism includes a convex block and a molding component, the surface of the molding component is provided with a plurality of molding dies, the convex block is arranged inside the molding mechanism, and the convex block is connected to the surface of the molding component;

[0009] The base includes a heat source tube, a heating tank and a slitting mechanism, wherein the heating tank and the slitting mechanism are respectively located on both sides of the base surface, and the heat source tube is respectively connected to the inside of the heating tank;

[0010] The heat dissipation mechanism comprises a second transmission shaft and a fan, and a second meshing portion is disposed between the second transmission shaft and the fan.

[0011] Preferably, the first meshing portion and the second meshing portion are both designed in the form of bevel gear meshing.

[0012] Preferably, the first transmission part is designed in the form of belt transmission.

[0013] Preferably, the second transmission part is designed in the form of bevel gear meshing.

[0014] Preferably, the driving mechanism adopts a DC servo motor.

[0015] Preferably, the base further comprises a transmission groove and a cutting groove, the number of the transmission grooves is the same as the number of the heating grooves, and the cutting grooves are located between the transmission grooves;

[0016] The slitting mechanism is composed of a plurality of slitting blades, and the cutting grooves correspond to the positions of the slitting blades.

[0017] Preferably, a heat insulation cover is provided above the base, and the heat insulation cover corresponds to the position of the heating tank;

[0018] The edges of the heating tanks are all provided with drainage grooves, and the drainage grooves run through the edges on both sides of the bottom bracket.

[0019] Preferably, the molding mechanism further includes a spring and a limiting rod, the spring is located between the protrusion and the inner wall of the molding mechanism, a plurality of limiting rods all penetrate the interior of the molding mechanism, and a plurality of limiting rods are connected to the surface of the molding component.

[0020] Preferably, the number of the transmission slots is the same as that of the forming mold, and the number of the transmission slots is the same as that of the heating slots.

[0021] Preferably, a winding mechanism and a feeding mechanism are respectively provided at both ends of the base.

[0022] Compared with the prior art, the present invention has the following beneficial effects:

[0023] 1. The present invention integrates heating softening, compression molding, cooling and slitting into one, thereby reducing production line nodes and reducing equipment investment costs, which not only improves the production efficiency of the carrier tape, but also reduces the operating costs of the enterprise.

[0024] 2. The present invention achieves the effect of reducing the manufacturing cost of the equipment and synchronizing the rotation of the transmission rollers by synchronously driving the fan and the first transmission shaft to rotate through the driving shaft. The driving mechanism is used as the main power output source, which can reduce the need for setting up additional power sources and reduce the manufacturing cost of the equipment. The first transmission shaft can synchronously drive the two transmission rollers, so that the transmission speed of the carrier at the feed end and the discharge end at both ends of the base can be kept consistent, avoiding the problems of carrier bulge and carrier stretching caused by different transmission speeds at both ends of the carrier, and ensuring the production quality of the carrier.

[0025] 3. The present invention achieves the effect of multiple molding by setting a cam and multiple molding mechanisms. The cam and the protrusion are in periodic contact, so that the effect of contact between the molding component and the heated carrier can be achieved. The carrier surface can be in contact multiple times to avoid the problem of pocket shrinkage caused by the temperature of the carrier decreasing after the pocket is formed. It can effectively solve the undesirable problems after one-time compression molding and further improve the quality of carrier molding. Secondly, the surface of the molding component attached to the molding mechanism can be equipped with molding molds of different shapes according to the actual production needs, so as to be combined into different molding carrier pocket molding sequences, which can improve the flexibility of carrier pocket molding.

[0026] 4. The present invention achieves the effect of flexibly adjusting the spacing between molding components and flexibly replacing molding components of different shapes by arranging the molding mechanisms equidistantly below the cylinder. It is not only suitable for the needs of spacing between different carrier pockets, but also conducive to the continuous production of pockets suitable for other electronic components, thereby improving the flexibility of practical applications. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a schematic diagram of the appearance structure of the present invention;

[0028] Figure 2 It is a schematic diagram of the internal structure of the present invention;

[0029] Figure 3 It is a schematic diagram of the appearance structure of the cylinder and the forming mechanism of the present invention;

[0030] Figure 4 It is a schematic diagram of the explosion structure of the cylinder and the drive shaft of the present invention;

[0031] Figure 5 It is a schematic cross-sectional structural diagram of the molding mechanism of the present invention;

[0032] Figure 6 It is a schematic diagram of the cross-sectional structure of the bump and the spring of the present invention;

[0033] Figure 7 For the present invention Figure 6 A schematic diagram of the enlarged structure in the middle;

[0034] Figure 8 It is a schematic diagram of the structure of the drive shaft and the first transmission shaft of the present invention;

[0035] Fig. 9 It is a schematic diagram of the appearance structure of the heat dissipation mechanism of the present invention;

[0036] Fig.10 It is a schematic diagram of the appearance structure of the transmission roller of the present invention;

[0037] Fig.11 This is a schematic diagram of the appearance structure of the base of the present invention;

[0038] Fig.12 It is a schematic diagram of the top view of the bottom bracket of the present invention;

[0039] Fig.13 It is a schematic diagram of the bottom support structure of the present invention when viewed from above.

[0040] In the figure:

[0041] 100, base; 110, first transmission shaft; 111, first transmission part; 112, first meshing part; 120, winding mechanism; 130, feeding mechanism; 140, transmission roller;

[0042] 200, cylinder; 210, driving mechanism; 220, driving shaft; 221, cam; 222, second transmission part;

[0043] 300, bottom support; 310, heat source pipe; 320, slitting mechanism; 330, heating tank; 331, drain tank; 340, transmission tank; 350, cutting tank; 360, heat shield;

[0044] 400, heat dissipation mechanism; 410, second transmission shaft; 420, fan; 430, second meshing portion;

[0045] 500, forming mechanism; 510, bump; 520, forming component; 530, spring; 540, limiting rod. DETAILED DESCRIPTION

[0046] 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.

[0047] See also Figures 1 to 13 The present invention provides the following three embodiments:

[0048] Embodiment 1:

[0049] See also Figure 1 and Figure 2 A forming and slitting integrated carrier tape production device includes a base 100, a winding mechanism 120 and a feeding mechanism 130 are respectively arranged at both ends of the base 100, a bottom support 300 is arranged inside the base 100, a cylinder 200 and a heat dissipation mechanism 400 are arranged above the bottom support 300, a driving shaft 220 is arranged inside the cylinder 200, and a plurality of forming mechanisms 500 are arranged inside the cylinder 200.

[0050] Please refer to the figure Figure 1 , Figure 2 , Figure 8 and Fig.10 The surface of the base 100 is provided with a first transmission shaft 110 and a transmission roller 140, and a first meshing portion 112 is provided between the first transmission shaft 110 and the transmission roller 140, and the first meshing portion 112 is designed in the form of bevel gear meshing; a first transmission portion 111 is provided between the driving shaft 220 and the first transmission shaft 110, and the first transmission portion 111 is designed in the form of belt transmission. The staff guides the carrier material from the feeding mechanism 130, and passes the carrier material through the top of the bottom bracket 300, and at the same time places the carrier material on the two Below the transmission roller 140, the carrier tape is transmitted by rotating the transmission roller 140. Both transmission rollers 140 are driven by the first transmission part 111, the first transmission shaft 110 and the first meshing part 112. The power source provided by the driving mechanism 210 synchronously drives the two transmission rollers 140 to rotate synchronously, keeping the transmission speed of the carrier tape at the feed end and the discharge end at both ends of the base 300 consistent, avoiding the problems of carrier tape bulging and carrier tape stretching caused by different transmission speeds at both ends of the carrier tape, and ensuring the production quality of the carrier tape.

[0051] See also Figure 2 To Figure Figure 4The end of the driving shaft 220 away from the second transmission part 222 is connected to the driving mechanism 210, and the driving mechanism 210 adopts a DC servo motor. The DC servo motor has the advantages of a DC motor and has a large starting torque. A plurality of cams 221 distributed in a staggered manner are arranged on the surface of the driving shaft 220. The size and number of the cams 221 can be appropriately adjusted according to the output speed of the driving mechanism 210, so as to adapt to the transmission speed of the carrier.

[0052] See also Figures 5 to 7 The molding mechanism 500 includes a protrusion 510 and a molding component 520 . The protrusion 510 is disposed inside the molding mechanism 500 , and the protrusion 510 is connected to the surface of the molding component 520 .

[0053] The forming mechanism 500 further includes a spring 530 and a limiting rod 540. The spring 530 is located between the protrusion 510 and the inner wall of the forming mechanism 500. The spring 530 is used to push the protrusion 510 out by elastic force to achieve the effect of separating the forming component 520 from the surface of the carrier tape. Multiple limiting rods 540 all penetrate the inside of the forming mechanism 500, and multiple limiting rods 540 are connected to the surface of the forming component 520. The limiting rods 540 can limit the two ends of the forming component 520 to keep the forming component 520 rising and falling smoothly.

[0054] A plurality of molding dies are arranged on the surface of the molding component 520, and the number of the molding dies is the same as that of the transmission slot 340 and the heating slot 330. Before actual production, the staff selects the molding component 520 composed of molding dies of specific specifications according to the production needs of the carrier pocket, and installs the molding mechanism 500 composed of the molding component 520 under the cylinder 200, and accurately adjusts the spacing between the molding mechanisms 500, and positions the molding mechanism 500 under the cylinder 200 through the bolts on the surface of the molding mechanism 500. When the cam 221 contacts the internal protrusion 510 of the molding mechanism 500, the arc-shaped surface of the cam 221 slides with the surface of the protrusion 510 to press the protrusion 510 downward, thereby making the molding component 520 contact with the heated carrier surface, thereby squeezing the carrier surface through the molding die on the lower surface of the molding component 520, thereby forming a pocket for holding electronic components.

[0055] After the first compression molding, the other cams 221 on the surface of the drive shaft 220 contact the protrusion 510 again, and cooperate with the transmission of the carrier to achieve secondary compression molding. The secondary compression molding can re-mold the pocket formed by the first compression molding, which can not only maintain the shape of the inner wall of the pocket and prevent the pocket from shrinking and deforming due to cooling, but also can mold new shape features in the pocket again on the basis of the first compression molding. It is suitable for pockets with complex shapes that cannot be completed by only one compression molding. According to the required molding process, multiple cams 221 and different molding mechanism 500 combinations are set on the surface of the drive shaft 220 to achieve compression molding of various pockets.

[0056] See also Figures 11 to 13 The base 300 includes a heat source pipe 310, a heating groove 330 and a slitting mechanism 320. The heating groove 330 and the slitting mechanism 320 are respectively located on both sides of the surface of the base 300. The heat source pipe 310 is respectively connected to the inside of the heating groove 330. The heat source pipe 310 is connected to the hot air blower, and hot air is input into the heating groove 330 through the heat source pipe 310 for preheating. The base 300 also includes a transmission groove 340 and a cutting groove 350. The number of the transmission grooves 340 and the heating grooves 330 is the same, and the cutting grooves 350 are located between the transmission grooves 340.

[0057] The slitting mechanism 320 is composed of a plurality of slitting blades, and the cutting groove 350 corresponds to the position of the slitting blades. The edges of the heating groove 330 are provided with drainage grooves 331, and the drainage grooves 331 run through the edges of both sides of the base 300. A heat shield 360 is provided above the base 300, and the heat shield 360 corresponds to the position of the heating groove 330. The carrier tape cooled by the heat dissipation mechanism 400 contacts the slitting mechanism 320, and the multiple blades of the slitting mechanism 320 precisely divide the carrier tape along the cutting groove 350, which is convenient for the collection of the winding mechanism 120.

[0058] See also Figure 2 , Figure 8 and Fig. 9 A second transmission part 222 is provided between the driving shaft 220 and the heat dissipation mechanism 400, and the second transmission part 222 is designed in the form of bevel gear meshing;

[0059] The heat dissipation mechanism 400 includes a second transmission shaft 410 and a fan 420. A second meshing portion 430 is provided between the second transmission shaft 410 and the fan 420. The second meshing portion 430 is designed in the form of a bevel gear meshing. After the pockets on the surface of the carrier are molded, the carrier is transmitted along the surface of the base 300. When passing under the heat dissipation mechanism 400, the driving shaft 220 drives the second transmission shaft 410 to rotate through the second transmission portion 222, and the second transmission shaft 410 drives multiple fans 420 to rotate respectively through the second meshing portion 430. The airflow generated by the rotation of the fan 420 acts on the surface of the carrier. By accelerating the air flow speed on the surface of the carrier, the air contacts the surface of the carrier to generate heat exchange, thereby achieving the effect of cooling the surface of the carrier. Using the driving shaft 220 as the power source of the heat dissipation mechanism 400 can reduce the additional power source of the heat dissipation mechanism 400 and reduce the cost of equipment manufacturing.

[0060] Embodiment 2:

[0061] When applied to the situation where the same type of electronic products are stored in a carrier tape, the staff can replace the molding mold at the same position on the lower surface of the molding component 520, keep the molding molds on the molding line of the same carrier tape the same, and produce the same shape of the pockets formed on the same carrier tape, and the molding molds of the rest of the same molding component 520 can be replaced with other shapes of molding molds, and keep the same shape of the pockets formed on the surface of other carrier tapes. The molding components 520 are arranged in parallel below the cylinder 200, and the driving shaft 220 is driven to rotate by the driving mechanism 210, and the cam 221 contacts the protrusion 510 inside the molding mechanism 500, and the arc-shaped surface of the cam 221 slides with the surface of the protrusion 510, pressing the protrusion 510 downward, so that the molding component 520 contacts the heated carrier tape surface, so that the molding mold on the lower surface of the molding component 520 squeezes the carrier tape surface, thereby forming a pocket for holding electronic components.

[0062] After forming and slitting, multiple carrier tapes with the same inner pocket shape and different inner pocket shapes of adjacent carrier tapes can be obtained.

[0063] Embodiment three:

[0064] When applied to the situation where different types of electronic products are stored in a carrier, the staff can replace the molding molds on the same carrier molding path to form different pockets to form cycles. After molding, pockets of different shapes can be formed on the same carrier surface, and the molding molds on the remaining carrier molding paths can also be replaced. The molding parts 520 are arranged in parallel below the cylinder 200, and the drive shaft 220 is driven to rotate by the drive mechanism 210. The cam 221 contacts the protrusion 510 inside the molding mechanism 500, and the arc-shaped surface of the cam 221 slides on the surface of the protrusion 510, pressing the protrusion 510 downward, so that the molding part 520 contacts the heated carrier surface, so that the carrier surface is squeezed by the molding mold on the lower surface of the molding part 520, thereby forming a pocket for holding electronic components.

[0065] After forming and slitting, you can get the same carrier tape with different internal pocket shapes.

[0066] Working principle: Before actual production, the staff selects the molding component 520 composed of a molding mold of a specific specification according to the production needs of the carrier bag, and installs the molding mechanism 500 composed of the molding component 520 under the cylinder 200, and accurately adjusts the spacing between the molding mechanisms 500, and positions the molding mechanism 500 under the cylinder 200 through the bolts on the surface of the molding mechanism 500. The heat source pipe 310 is connected to the hot air blower, and the hot air is input into the heating tank 330 through the heat source pipe 310 for preheating.

[0067] The staff guides the carrier material out of the feeding mechanism 130, passes the carrier through the top of the base 300, and places the carrier under the two transmission rollers 140. The transmission rollers 140 rotate to transmit the carrier, and the driving mechanism 210 drives the driving shaft 220 to rotate. The cam 221 on the surface of the driving shaft 220 rotates. When the cam 221 contacts the internal protrusion 510 of the forming mechanism 500, the arc-shaped surface of the cam 221 slides with the surface of the protrusion 510, pressing the protrusion 510 downward, so that the molded part 520 contacts the heated surface of the carrier, so that the surface of the carrier is squeezed by the molding mold on the lower surface of the molding part 520, thereby forming a pocket for holding electronic components. After the first compression molding, the other cams 221 on the surface of the drive shaft 220 contact the protrusion 510 again, and cooperate with the transmission of the carrier to achieve secondary compression molding. The secondary compression molding can re-mold the pocket formed by the first compression molding, which can not only maintain the shape of the inner wall of the pocket and prevent the pocket from shrinking and deforming due to cooling, but also can mold new shape features in the pocket again on the basis of the first compression molding. It is suitable for pockets with complex shapes that cannot be completed by only one compression molding. According to the required molding process, multiple cams 221 and different molding mechanism 500 combinations are set on the surface of the drive shaft 220 to achieve compression molding of various pockets.

[0068] After the pockets on the surface of the carrier are molded, the carrier is transmitted along the surface of the base 300. When passing under the heat dissipation mechanism 400, the driving shaft 220 drives the second transmission shaft 410 to rotate through the second transmission part 222, and the second transmission shaft 410 drives multiple fans 420 to rotate through the second meshing part 430. The airflow generated by the rotation of the fans 420 acts on the surface of the carrier. By accelerating the air flow speed on the surface of the carrier, the air contacts the surface of the carrier to generate heat exchange, thereby achieving the effect of cooling the surface of the carrier. Using the driving shaft 220 as the power source of the heat dissipation mechanism 400 can reduce the additional power source of the heat dissipation mechanism 400 and reduce the cost of equipment manufacturing.

[0069] After being cooled by the heat dissipation mechanism 400, the carrier tape contacts the slitting mechanism 320. The multiple sets of blades of the slitting mechanism 320 accurately divide the carrier tape along the cutting groove 350, which is convenient for the collection of the winding mechanism 120. During the transmission of the carrier tape, the two transmission rollers 140 are driven by the first transmission part 111, the first transmission shaft 110 and the first meshing part 112. The power source provided by the driving mechanism 210 drives the two transmission rollers 140 to rotate synchronously, keeping the transmission speed of the carrier tape at the feeding end and the discharging end at both ends of the base 300 consistent, avoiding the problems of carrier tape bulging and carrier tape stretching caused by different transmission speeds at the two ends of the carrier tape, and ensuring the production quality of the carrier tape.

[0070] After cooling and slitting, the carrier tape can be individually wound in different compartments of the winding mechanism 120 for classified winding, completing the heating, forming, cooling and slitting processes of the carrier tape, which can effectively reduce the transfer nodes of the production line and reduce the equipment investment cost, which can not only improve the production efficiency of the carrier tape, but also reduce the operating costs of the enterprise.

[0071] 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 forming and slitting integrated carrier tape production device, characterized in that: The invention comprises a base (100), wherein a bottom bracket (300) is arranged inside the base (100), a cylinder (200) and a heat dissipation mechanism (400) are arranged above the bottom bracket (300), a driving shaft (220) is arranged inside the cylinder (200), and a plurality of molding mechanisms (500) are arranged inside the cylinder (200); A first transmission shaft (110) and a transmission roller (140) are arranged on the surface of the base (100); a first meshing portion (112) is arranged between the first transmission shaft (110) and the transmission roller (140); a first transmission portion (111) is arranged between the drive shaft (220) and the first transmission shaft (110); and a second transmission portion (222) is arranged between the drive shaft (220) and the heat dissipation mechanism (400); The end of the driving shaft (220) facing away from the second transmission part (222) is connected to a driving mechanism (210); the surface of the driving shaft (220) is provided with cams (221) distributed in a staggered manner; the molding mechanism (500) comprises a convex block (510) and a molding component (520); a plurality of molding dies are provided on the surface of the molding component (520); the convex block (510) is arranged inside the molding mechanism (500), and the convex block (510) is connected to the surface of the molding component (520); The base (300) comprises a heat source tube (310), a heating groove (330) and a slitting mechanism (320); the heating groove (330) and the slitting mechanism (320) are respectively located on two sides of the surface of the base (300); and the heat source tube (310) is respectively connected to the inside of the heating groove (330); The heat dissipation mechanism (400) comprises a second transmission shaft (410) and a fan (420), and a second meshing portion (430) is provided between the second transmission shaft (410) and the fan (420).

2. The forming and slitting integrated carrier tape production device according to claim 1, characterized in that: The first meshing portion (112) and the second meshing portion (430) are both designed in the form of bevel gear meshing.

3. The forming and slitting integrated carrier tape production device according to claim 1, characterized in that: The first transmission part (111) is designed in the form of belt transmission.

4. The forming and slitting integrated carrier tape production device according to claim 1, characterized in that: The second transmission part (222) is designed in the form of bevel gear meshing.

5. The forming and slitting integrated carrier tape production device according to claim 1, characterized in that: The driving mechanism (210) adopts a DC servo motor.

6. The forming and slitting integrated carrier tape production device according to claim 1, characterized in that: The base (300) further comprises a transmission groove (340) and a cutting groove (350), the number of the transmission grooves (340) is the same as the number of the heating grooves (330), and the cutting grooves (350) are located between the transmission grooves (340); The slitting mechanism (320) is composed of a plurality of slitting blades, and the cutting grooves (350) correspond to the positions of the slitting blades.

7. A forming and slitting integrated carrier tape production device according to claim 1 or 6, characterized in that: A heat insulation cover (360) is arranged above the base (300), and the heat insulation cover (360) corresponds to the position of the heating tank (330); The edges of the heating grooves (330) are each provided with drainage grooves (331), and the drainage grooves (331) penetrate the edges of both sides of the base (300).

8. The forming and slitting integrated carrier tape production device according to claim 1, characterized in that: The molding mechanism (500) further comprises a spring (530) and a limiting rod (540), wherein the spring (530) is located between the protrusion (510) and the inner wall of the molding mechanism (500), a plurality of limiting rods (540) all penetrate the interior of the molding mechanism (500), and a plurality of limiting rods (540) are connected to the surface of the molding component (520).

9. A forming and slitting integrated carrier tape production device according to claim 1 or 8, characterized in that: The number of the transmission grooves (340) is the same as that of the molding die, and the number of the transmission grooves (340) and the heating grooves (330) is the same.

10. The forming and slitting integrated carrier tape production device according to claim 1, characterized in that: A winding mechanism (120) and a feeding mechanism (130) are respectively provided at two ends of the base (100).

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