CN117259161A - Tunnel type curing device and control detection method - Google Patents

Abstract

The invention discloses a tunnel type solidifying device and a control detection method, comprising the following steps: conveying assembly, curing assembly and guide subassembly, conveying assembly includes the material conveying spare, the material conveying spare is used for transporting the material along appointed direction, the curing assembly includes casing and ultraviolet curing spare, the casing cover is located on the material conveying spare, the inside cavity and the both sides opening of casing, enclose between the inner wall of casing and the material conveying spare and form the curing channel, the relative material conveying spare setting of ultraviolet curing spare, and connect in the top inner wall of curing channel, and the projection of ultraviolet curing spare is formed with the curing zone on the material conveying spare, guide subassembly is connected in the casing, be used for guiding to treat the relative material conveying spare translation of curing material, just to the curing zone when making to treat curing material below the ultraviolet curing spare. The invention can solve the problem that the ultraviolet curing effect of the product is poor because the upper surface of the product cannot be completely covered by ultraviolet light when the product passes through the tunnel curing area.

Description

A tunnel type curing device and control and detection method

Technical field

The invention relates to the technical field of ultraviolet curing, and in particular to a tunnel curing device and a control and detection method.

Background technique

In order to improve the production efficiency and UV curing effect of UV glue curing, the curing device came into being.

For example, the Chinese invention patent with application number: CN201810986741. , the bottom surfaces of the UV box and the heat-setting box are open; the UV box and the heat-setting box are arranged side by side on the conveyor belt in order, the UV box and the heat-setting box are connected through the transmission channel, a UV lamp is installed in the UV box, and inside the heat-setting box Set up the thermosetting lamp; the control module is connected to the ultraviolet lamp, conveyor belt and thermosetting lamp control respectively. The device has a simple structure and is easy to operate. The UV curing and thermal curing processes can realize automatic transfer and avoid manual contamination of the device. However, when the product passes through the tunnel curing area, it cannot be guaranteed that the upper surface of the product is completely covered by UV light, resulting in poor UV curing effect of the product.

Therefore, there is an urgent need for a tunnel-type curing device and a control and detection method to solve the problem in the existing technology that the upper surface of the product cannot be completely covered by ultraviolet light when passing through the tunnel curing area, resulting in poor ultraviolet curing effect of the product. The problem.

Contents of the invention

In view of this, it is necessary to provide a tunnel-type curing device and a control and detection method to solve the problem in the existing technology that the upper surface of the product cannot be completely covered by ultraviolet light when passing through the tunnel curing area, resulting in poor ultraviolet curing effect of the product. Good technical issues.

In order to achieve the above technical objectives, the technical solution of the present invention provides a tunnel type curing device, including:

Conveying components, including material conveying components used to convey materials;

Curing assembly, including a shell and a UV curing part. The shell is covered by the material transfer member. The interior of the shell is hollow and open on both sides. The shell and the material transfer member are enclosed. A curing channel is formed, the ultraviolet curing member is connected to the inner wall of the curing channel, and the projection of the ultraviolet curing member forms a curing area on the material transfer member;

A material guide assembly is connected to the housing and is used to guide the material to be cured to move in translation relative to the material transfer member, so that the material to be cured faces the curing area when passing under the ultraviolet curing member.

Further, the top of the housing is provided with a receiving groove and a communication hole. The communication hole is provided on the center line of the bottom of the receiving groove and is connected with the interior of the receiving groove and the housing. , the ultraviolet curing part is embedded in the communication hole, the curing assembly also includes a cover plate, the cover plate is detachably connected to the open end of the receiving tank, and the cover plate is opposite to the ultraviolet curing part A first air outlet is provided.

Further, the guide assembly includes at least two guide blocks, which are arranged on both sides of the communication hole along the guide of the material transfer member and connected to the inner wall of the housing, and the The cross-sectional area of the guide blocks gradually increases in the direction close to the communication hole, so that opposite sides of the two guide blocks are formed with guide slopes.

Furthermore, the guide inclined surface is provided with a plurality of spherical grooves along its length direction, and the guide assembly also includes a plurality of guide balls. The guide balls are rotatably embedded in the spherical grooves and can interact with the material to be processed. The solidified materials are in contact with each other.

Further, the number of guide blocks in the guide assembly is four, and the four guide blocks form a pair, and the two guide blocks located on the same side of the UV curing part They are symmetrically distributed along the center line of the UV curing part.

Further, the housing is also provided with at least two first air inlets, and at least two first air inlets are symmetrically distributed on both sides of the communication hole, and are both connected to the accommodation groove. The UV curing part includes an air duct bracket, a radiator, a COB module, a protective glass, a front cover and at least one first fan. The air duct bracket is embedded in the communication hole and connected to the housing. The radiator is arranged relative to the first air inlet and embedded in the air duct bracket. The radiator, COB module and protective glass are arranged in sequence and abut against each other. The front cover abuts against the air duct bracket. The protective glass is clamped with the air duct bracket for detachably connecting the radiator, COB module and protective glass to the air duct bracket. At least one first fan is opposite to the first outlet. Air holes are provided and connected to the air duct bracket.

Furthermore, the housing is also provided with at least one second air inlet hole and at least one second air outlet hole, and the first air inlet hole is arranged on both sides of the communication hole relative to the second air outlet hole. , and are all connected with the curing channel. The curing assembly also includes at least one second fan. The at least one second fan is arranged relative to the second air inlet and connected to the housing.

Further, the curing channel has an inlet end and an outlet end, and the curing assembly further includes two light shielding plates. The two light shielding plates are respectively arranged relative to the openings of the inlet end and the outlet end and are slidably connected to the shell. The body is used to adjust the opening size of the inlet end and outlet end of the solidification channel.

Further, the transmission assembly also includes a lower machine cover, a mesh cover, a plurality of sensors and a controller. The lower machine cover is used to connect to the material transfer member. A first installation is provided on one side of the lower machine cover. hole, the mesh sleeve is arranged along the guide of the material transfer member, and is rolled and sleeved on the conveyor belt of the material transfer member. A plurality of sensors are evenly arranged at the inlet end and outlet end of the solidification channel, and are connected to Housing, the controller is embedded in the first mounting hole and connected to the lower hood.

The technical solution of the present invention provides a tunnel-type curing device control and detection method, which includes the following steps:

S1. The material to be solidified passes through the entrance end of the solidification channel;

S2. The sensor detects the material to be solidified, triggers the COB module to light up, and starts the energy self-check. If the energy self-check passes, it will automatically enter the next step. If the energy self-check fails, the equipment will alarm and trigger the material transfer part. The conveyor belt reversal signal causes the material to be cured to pass through the entrance end of the curing channel again, or triggers the stop signal of the conveyor belt of the material transfer part. After the UV curing part is inspected until the energy meets the requirements, the material to be cured passes through the entrance end of the curing channel again, and restarts. Trigger the COB module to light up and start the energy self-test. If the energy self-test passes, it will automatically enter the next step. If the energy self-test fails, repeat the above steps again;

S3. If the energy self-test is qualified, the material to be cured contacts the guide ball and enters the curing area along the direction of the guide block, so that the UV light generated by the COB module completely covers the material to be cured;

S4. The processed solidified material passes through the exit end of the solidification channel and triggers the sensor response;

S5. The sensor triggers the counting signal and starts counting. After the counting is completed, a QR code is automatically generated. If no material passes through the material to be cured from the sensor at the entrance to the sensor at the exit, the UV lamp will automatically turn off. ;

S6. The printer prints the QR code generated in step S5 and pastes the QR code on the surface of the material.

Compared with the existing technology, the beneficial effects of the present invention include: the material transfer part can transport the material to be cured in a designated direction, the housing cover is provided on the material transfer part, and forms a curing channel with the material transfer part, and the ultraviolet curing part is opposite The material transfer part is arranged and connected to the top inner wall of the curing channel, and the projection of the ultraviolet curing part forms a curing area on the material transfer part, which is used for ultraviolet curing of the material to be cured passing through the curing area, and the material guide assembly is connected to the shell The body is used to guide the material to be cured to face the curing area and enter the curing area. Compared with the existing technology, a guide component is provided to guide the material to be cured to move in translation relative to the material transfer part, so that the material to be cured faces the curing area when passing under the UV curing part, thereby achieving correction of the material to be cured and achieving UV curing. The projection of the part is all irradiated on the upper surface of the material to be cured, thereby ensuring the curing effect. It can solve the problem in the existing technology that the upper surface of the product cannot be completely covered by ultraviolet light when passing through the tunnel curing area, resulting in ultraviolet curing of the product. Technical issues that don’t work well.

Description of the drawings

Figure 1 is a schematic three-dimensional structural diagram of a tunnel-type curing device provided by an embodiment of the present invention;

Figure 2 is a schematic diagram of a three-dimensional explosion structure of a tunnel-type curing device provided by an embodiment of the present invention;

Figure 3 is a schematic three-dimensional structural diagram of a tunnel-type curing device provided by an embodiment of the present invention;

Figure 4 is a partially enlarged schematic diagram of position A in Figure 3;

Figure 5 is a schematic diagram of the three-dimensional exploded structure of the ultraviolet curing part provided by the embodiment of the present invention;

Figure 6 is a schematic cross-sectional structural view of an ultraviolet curing part provided by an embodiment of the present invention.

Detailed ways

The preferred embodiments of the present invention will be described in detail below with reference to the accompanying drawings. The drawings constitute a part of this application and are used together with the embodiments of the present invention to illustrate the principles of the present invention, but are not intended to limit the scope of the present invention.

Referring to Figures 1 to 3, the present invention provides a tunnel-type curing device, which includes: a transmission component 1, a curing component 2, and a guide component 3. The transmission component 1 includes a material transmission component 11, and the material transmission component 11 is used along the The material to be cured is transported in a designated direction. The curing component 2 includes a shell 21 and a UV curing part 22. The shell 21 is covered on the material transfer part 11. The interior of the shell 21 is hollow and open on both sides. The inner wall of the shell 21 is in contact with the material. The transmission members 11 are enclosed to form a curing channel. The ultraviolet curing member 22 is arranged relative to the material conveying member 11 and is connected to the top inner wall of the curing channel. The projection of the ultraviolet curing member 22 forms a curing area on the material conveying member 11, which guides The material assembly 3 is connected to the housing 21 and is used to guide the material to be cured to move in translation relative to the material transfer member 11 so that the material to be cured faces the curing area when passing under the ultraviolet curing member 22 .

In this device, the material transfer part 11 can transport the material to be cured in a designated direction. The housing 21 is covered on the material transfer part 11 and forms a curing channel with the material transfer part 11. The ultraviolet curing part 22 is arranged opposite to the material transfer part 11. , and is connected to the top inner wall of the curing channel, and the projection of the ultraviolet curing member 22 forms a curing area on the material transfer member 11 for UV curing of the material to be cured passing through the curing area, and the material guide assembly 3 is connected to the housing 21, used to guide the material to be cured to face and enter the curing area.

Compared with the existing technology, the guide assembly 3 is provided to guide the material to be cured to move in translation relative to the material transfer member 11, so that the material to be cured faces the curing area when passing under the ultraviolet curing member 22, thereby realizing the correction of the material to be cured. The projection of the ultraviolet curing part 22 is all irradiated on the upper surface of the material to be cured, thereby ensuring the curing effect, and solving the problem in the prior art that the upper surface of the product cannot be completely covered with ultraviolet light when passing through the tunnel curing area. Technical problems that lead to poor UV curing effects of products.

Specifically, the material conveyor 11 in this device is a belt conveyor that is common and easy to purchase on the market. The belt conveyor is placed horizontally and used to transport materials in a specified direction. The belt conveyor can transport materials in the forward or reverse direction. This The material transfer member 11 is a conventional arrangement well known to those skilled in the art, and will not be described in detail.

As shown in Figures 2 and 3, the transmission assembly 1 also includes a lower machine cover 12, a mesh cover 13, a plurality of sensors 14, a controller 15 and a main chassis 16. The lower machine cover 12 is used to connect to the material conveyor 11. A first installation hole is provided on one side of the hood 12. The mesh sleeve 13 is arranged along the guide of the material transfer member 11 and is rolled on the conveyor belt of the material transfer member 11. A plurality of sensors 14 are evenly arranged at the entrance end of the curing channel and The outlet end is connected to the housing 21 . The controller 15 is embedded in the first mounting hole and connected to the lower hood 12 . The main chassis 16 is connected to the lower hood 12 .

The material transfer part 11 is placed on the lower hood 12 to form a support for the material transfer part 11. The material of the mesh cover 13 is Teflon. The Teflon mesh belt is used for UV glue curing production, and the Teflon mesh belt It is a common and easy-to-purchase material in the market. It is a conventional arrangement well known to those skilled in the art and will not be described in detail. The four corners of the lower hood 12 are also provided with lifting rings for the convenience of this device. For transportation, emergency stop buttons are also provided at both ends of the lower hood 12. The emergency stop buttons are used to control the emergency stop of the material transfer member 11. The emergency stop buttons here are common and easy-to-purchase equipment on the market. , are conventional settings well known to those skilled in the art and will not be described in detail.

Furthermore, the lower hood 12 forms a support for the material transfer member 11, and cooperates with the housing 21 to form a desktop tunnel curing device, which can be suitable for different usage scenarios, thereby expanding the scope of use and facilitating production.

Specifically, the number of sensors 14 is four, two sensors 14 form a group, and are evenly distributed at the entrance and exit ends of the curing channel for detecting the position of the material. The sensors 14 here are common in the market and easy to purchase. The position sensor 14 is a common and easy-to-purchase device on the market. It is a conventional arrangement well known to those skilled in the art and will not be described in detail.

Further, the controller 15 is embedded in the lower hood 12. As the control system of the device, the controller 15 is used to control and allocate the material transfer part 11 and the ultraviolet curing part 22 to complete the curing process of the material to be cured. Here, the controller 15 is The device 15 is a common and easy-to-purchase device on the market. It is a conventional arrangement well known to those skilled in the art and will not be described in detail.

As shown in FIG. 2 , the curing assembly 2 also includes a cover plate 23 , at least one second fan 24 , and two light shielding plates 25 .

Among them, the top of the housing 21 is provided with a receiving groove and a communication hole. The communication hole is arranged on the center line of the bottom of the receiving groove and is connected with the interior of the receiving groove and the housing 21. The ultraviolet curing part 22 is embedded in the communicating hole. hole, the curing assembly 2 also includes a cover plate 23, the cover plate 23 is detachably connected to the open end of the receiving groove, and the cover plate 23 has a first air outlet hole relative to the ultraviolet curing member 22.

The UV curing part 22 is embedded in the communication hole to irradiate the material transfer part 11, and the cover 23 is detachably connected to the housing 21 to facilitate the replacement and maintenance of the UV curing part 22, and the cover 23 is provided with a third An air outlet is used to communicate with the receiving groove to realize ventilation and heat dissipation of the ultraviolet curing part 22 .

As shown in Figures 5 and 6, the housing 21 is also provided with at least two first air inlets. The at least two first air inlets are symmetrically distributed on both sides of the communication hole, and are both connected to the accommodation slot. The cured part 22 includes an air duct bracket 221, a radiator 222, a COB module 223, a protective glass 224, a front cover 225 and at least one first fan 226. The air duct bracket 221 is embedded in the communication hole and connected to the housing 21. The radiator 222 is arranged relative to the first air inlet and is embedded in the air duct bracket 221. The radiator 222, the COB module 223 and the protective glass 224 are arranged in sequence and abut against each other. The front cover 225 abuts against the protective glass 224, and It is clamped with the air duct bracket 221 to detachably connect the radiator 222, COB module 223 and protective glass 224 to the air duct bracket 221. At least one first fan 226 is arranged relative to the first air outlet and connected to the air duct bracket 221. Road bracket 221.

The air duct bracket 221, the radiator 222, the COB module 223, the protective glass 224, the front cover 225 and at least one first fan 226 form the structure of the UV curing part 22. This structure is connected with the first air inlets on both sides of the casing 21 The hole and the first air outlet opened on the cover 23 form a ventilation and heat dissipation structure, which can effectively solve the heat dissipation problem of the COB module 223, thereby improving the stability of the operation of the COB module 223.

Furthermore, the radiator 222, the COB module 223 and the first fan 226 are all common and easy-to-purchase equipment on the market. These are conventional settings well known to those skilled in the art and will not be described in detail.

As an embodiment, as shown in the figure, the casing 21 is also provided with at least one second air inlet and at least one second air outlet. The first air inlet is disposed between the communication holes relative to the second air outlet. Both sides are connected to the curing channel. At least one second fan 24 is disposed relative to the second air inlet and connected to the housing 21 .

The second fan 24 is arranged relative to the second air inlet and connected to the casing 21 to dissipate heat in the space in the curing channel to avoid damage to the product surface due to high temperature.

As another embodiment, as shown in Figure 2, the curing channel has an inlet end and an outlet end. Two light shielding plates 25 are respectively disposed relative to the openings of the inlet end and the outlet end, and are slidably connected to the housing 21 for adjusting the curing. The opening size of the entrance and exit ends of the channel.

Specifically, the light-shielding plates 25 are threadedly connected to the housing 21 through fasteners, and the light-shielding plates 25 can slide relative to the housing 21 to adjust the opening size of the inlet and outlet of the curing channel, so as to facilitate the application of the device. Different products.

As shown in FIGS. 3 and 4 , the guide assembly 3 includes at least two guide blocks 31 and a plurality of guide balls 32 .

Among them, the guide block 31 is arranged on both sides of the communication hole along the guide of the material transfer member 11 and is connected to the inner wall of the housing 21, and the cross-sectional area of the guide block 31 gradually increases in the direction approaching the communication hole, so as to Therefore, the opposite sides of the two guide blocks 31 are formed with guide slopes.

By arranging the guide block 31, under the guidance of the guide slope, the material will translate along the guide of the guide member relative to the material transfer member 11, so that the material to be cured is adjusted to face the curing area and enters the curing area. area, thereby improving the efficiency of material solidification and avoiding rework.

As an embodiment, as shown in FIG. 4 , the guide slope is provided with a plurality of spherical grooves along its length direction. The guide balls 32 are rotatably embedded in the spherical grooves and can contact the material to be solidified.

The guide ball 32 rotates and is embedded in the spherical groove and contacts the material to be solidified, thereby reducing the friction between the material and the guide block 31, so that the material to be solidified can be better guided along the guide slope. Correction will help improve the curing effect of the curing device.

Furthermore, the guide ball 32 in this device is a common ball on the market, and its material is Teflon, which can effectively avoid the impact of high temperature. Here, the guide ball 32 is well known to those skilled in the art. General settings, no need to go into details.

As a preferred embodiment, as shown in FIG. 3 , the number of guide blocks 31 in the guide assembly 3 is four. The four guide blocks 31 form a pair and are located on the same side as the UV curing part 22 . The two guide blocks 31 on the side are symmetrically distributed along the center line of the UV curing part 22 .

The guide blocks 31 are evenly distributed relative to the inlet and outlet of the solidification channel, and form a guide structure similar to a bell mouth, which can effectively guide the movement of the material, thereby ensuring that the material can accurately move to the destination after passing through the guide block 31 Facing the curing area, thereby improving the curing effect of the device, the inlet and outlet of the curing channel are equipped with trumpet-shaped guide components for forward transportation and delivery of material transfer parts suitable for different situations. Reverse transport.

Furthermore, the width of the solidification zone in this device is larger than the gap between the two opposite material guide blocks 31, thereby effectively ensuring that the material is transported into the solidification zone.

The invention also provides a control and detection method for a tunnel-type curing device, which includes the following steps:

S1. The material to be solidified passes through the entrance end of the solidification channel;

S2. The sensor 14 detects the material to be solidified, triggers the COB module 223 to light up, and starts the energy self-check. If the energy self-check passes, it will automatically enter the next step. If the energy self-check fails, the equipment will alarm and trigger the material transfer. The conveyor belt reversal signal of the component 11 causes the material to be cured to pass through the entrance of the curing channel again, or the conveyor belt stop signal of the material transport component 11 is triggered. After the UV curing component 22 is inspected until the energy meets the requirements, the material to be cured passes through the curing channel again. entrance, and re-triggers the COB module 223 to light up and start the energy self-test. If the energy self-test is qualified, it will automatically enter the next step. If the energy self-test is unqualified, the above steps will be repeated again;

S3. If the energy self-test is qualified, the material to be cured contacts the guide ball 32 and enters the curing area along the direction of the guide block 31, so that the ultraviolet light generated by the COB module 223 completely covers the material to be cured;

S4. The processed solidified material passes through the outlet end of the solidification channel and triggers the sensor 14 to respond;

S5. The sensor 14 triggers the counting signal and starts counting. After the counting is completed, a QR code is automatically generated. If the material to be solidified moves from the sensor 14 at the entrance end to the sensor 14 at the exit end within one cycle (plus extension time), If no material passes through, the UV lamp will automatically turn off;

S6. The printer prints the QR code generated in step S5 and pastes the QR code on the surface of the material.

The specific work flow of the present invention is that the material transfer part 11 can transport the material to be cured in a designated direction. The housing 21 is covered on the material transfer part 11 and forms a curing channel with the material transfer part 11. The ultraviolet curing part 22 is opposite to the material transfer. Part 11 is provided and connected to the top inner wall of the curing channel, and the projection of the ultraviolet curing part 22 forms a curing area on the material transfer part 11, which is used for ultraviolet curing of the material to be cured passing through the curing area, and the material guide component 3 is connected The housing 21 is used to guide the material to be solidified to face the solidification area and enter the solidification area. Compared with the existing technology, the guide assembly 3 is provided to guide the material to be cured to move in translation relative to the material transfer member 11, so that the material to be cured faces the curing area when passing under the ultraviolet curing member 22, thereby realizing the correction of the material to be cured. The projection of the ultraviolet curing part 22 is completely irradiated on the upper surface of the material to be cured, thereby ensuring the curing effect.

Furthermore, the present invention forms a desktop tunnel curing equipment, and the structure of setting the guide assembly 3 to correct the deviation ensures that the product is completely covered by ultraviolet light when passing through the curing area. At the same time, the control and detection method involved in the present invention can timely Identify the curing effect and generate product-related information (QR code) in a timely manner; its main gain effect is to improve product quality and reduce product costs (reduce labor).

Through the above structure, this device can solve the technical problem in the prior art that the upper surface of the product cannot be completely covered by ultraviolet light when the product passes through the tunnel curing area, resulting in poor ultraviolet curing effect of the product.

The above are only preferred specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto. Any person familiar with the technical field can easily think of changes or modifications within the technical scope disclosed in the present invention. All substitutions are within the scope of the present invention.

Claims (10)

1. A tunnel type curing device, characterized by comprising: Conveying components, including material conveying components used to convey materials; Curing assembly, including a shell and a UV curing part. The shell is covered by the material transfer member. The interior of the shell is hollow and open on both sides. The shell and the material transfer member are enclosed. A curing channel is formed, the ultraviolet curing member is connected to the inner wall of the curing channel, and the projection of the ultraviolet curing member forms a curing area on the material transfer member; A material guide assembly is connected to the housing and is used to guide the material to be cured to move in translation relative to the material transfer member, so that the material to be cured faces the curing area when passing under the ultraviolet curing member. 2. The tunnel type curing device according to claim 1, characterized in that a receiving groove and a communication hole are provided on the top of the housing, and the communication hole is provided on the center line of the bottom of the receiving groove, and Communicated with the inside of the accommodation tank and the housing, the UV curing component is embedded in the communication hole, and the curing assembly further includes a cover plate, which is detachably connected to the accommodation tank. The open end of the cover plate is provided with a first air outlet relative to the ultraviolet curing part. 3. The tunnel type curing device according to claim 2, characterized in that the material guide assembly includes at least two guide blocks, and the guide blocks are arranged on both sides of the communication hole along the guide of the material transfer member. side, and is connected to the inner wall of the housing, and the cross-sectional area of the guide blocks gradually increases in the direction close to the communication hole, so that the opposite sides of the two guide blocks are formed with guide blocks Bevel. 4. The tunnel type curing device according to claim 3, characterized in that the guide inclined surface is provided with a plurality of spherical grooves along its length direction, and the guide assembly further includes a plurality of guide balls. The guide ball rotates and is embedded in the spherical groove and can contact the material to be solidified. 5. The tunnel type curing device according to claim 4, characterized in that the number of the guide blocks in the guide assembly is four, and the four guide blocks form a pair and are located at The two guide blocks on the same side of the UV curing part are symmetrically distributed along the center line of the UV curing part. 6. The tunnel type curing device according to claim 2, wherein the housing is further provided with at least two first air inlets, and the at least two first air inlets are symmetrically distributed in the communication Both sides of the hole are connected to the receiving slot. The UV curing part includes an air duct bracket, a radiator, a COB module, a protective glass, a front cover and at least one first fan. The air duct bracket is embedded in Provided in the communication hole and connected to the housing, the radiator is arranged relative to the first air inlet and embedded in the air duct bracket, the radiator, COB module and protective glass Arranged in sequence and in contact with each other, the front cover is in contact with the protective glass and clamped with the air duct bracket for detachably connecting the radiator, COB module and protective glass to the In an air duct bracket, at least one first fan is arranged relative to the first air outlet and connected to the air duct bracket. 7. The tunnel type curing device according to claim 2, wherein the housing is further provided with at least one second air inlet and at least one second air outlet, and the first air inlet is opposite to the second air inlet. The second air outlets are provided on both sides of the communication hole and are both connected to the curing channel. The curing assembly also includes at least one second fan, and at least one second fan is opposite to the second fan. An air inlet is provided and connected to the housing. 8. The tunnel type curing device according to claim 1, wherein the curing channel has an inlet end and an outlet end, and the curing assembly further includes two light shielding plates, and the two light shielding plates are respectively opposite to the The openings at the inlet end and the outlet end are provided and slidably connected to the housing for adjusting the opening size of the inlet end and the outlet end of the solidification channel. 9. The tunnel curing device according to claim 8, wherein the transmission component further includes a lower machine cover, a mesh cover, a plurality of sensors and a controller, and the lower machine cover is used to connect to the material. The transmission part has a first installation hole on one side of the lower machine cover. The mesh sleeve is arranged along the guide of the material transmission part and is rolled on the conveyor belt of the material transmission part. A plurality of sensors are evenly arranged. The controller is embedded in the first mounting hole and connected to the lower hood. 10. A tunnel-type curing device control and detection method, characterized in that it includes the following steps: S1. The material to be solidified passes through the entrance end of the solidification channel; S2. The sensor detects the material to be solidified, triggers the COB module to light up, and starts the energy self-check. If the energy self-check passes, it will automatically enter the next step. If the energy self-check fails, the equipment will alarm and trigger the material transfer part. The conveyor belt reversal signal causes the material to be cured to pass through the entrance end of the curing channel again, or triggers the stop signal of the conveyor belt of the material transfer part. After the UV curing part is inspected until the energy meets the requirements, the material to be cured passes through the entrance end of the curing channel again, and restarts. Trigger the COB module to light up and start the energy self-test. If the energy self-test passes, it will automatically enter the next step. If the energy self-test fails, repeat the above steps again; S3. If the energy self-test is qualified, the material to be cured contacts the guide ball and enters the curing area along the direction of the guide block, so that the UV light generated by the COB module completely covers the material to be cured; S4. The processed solidified material passes through the exit end of the solidification channel and triggers the sensor response; S5. The sensor triggers the counting signal and starts counting. After the counting is completed, a QR code is automatically generated. If no material passes through the material to be cured from the sensor at the entrance to the sensor at the exit, the UV lamp will automatically turn off. ; S6. The printer prints the QR code generated in step S5 and pastes the QR code on the surface of the material.