Automatic tin bar adding device for wave soldering

Abstract

The utility model discloses an automatic tin bar adding device for wave soldering, which relates to the technical field of tin adding devices and integrates a tin furnace, a supporting mechanism, a storage mechanism, a conveying mechanism, a clamping mechanism, a control mechanism and a detection mechanism. According to the device, all the components are integrated through the supporting mechanism, the storage mechanism is used for storing tin bars and is connected with the conveying mechanism, and efficient conveying of the tin bars to the clamping position is achieved. The clamping mechanism is ingeniously arranged above the conveying mechanism, and the tin bars are accurately clamped and transferred into the tin furnace. The detection mechanism is tightly matched with the control mechanism, the tin surface temperature and the tin bar stock are monitored in real time, information is fed back to the control mechanism in time, and an accurate control instruction for the conveying mechanism and the clamping mechanism is triggered. The device is high in automation degree, tin adding operation can be automatically adjusted according to actual working conditions, the stability and the welding quality of the wave soldering process are effectively guaranteed, the production efficiency is improved, and the manual intervention cost is reduced.

Description

TECHNICAL FIELD

[0001] The utility model relates to tin device technical field, specifically, it is a kind of automatic tin strip device of wave-soldering. BACKGROUND

[0002] The purpose of automatic tin strip device is to replace manual tin, and most of the current wave-soldering is manually added tin strip once, which cannot accurately control the liquid level in the tin furnace, and causes large fluctuations in liquid level and temperature before and after adding, affecting the quality of wave-soldering products, and the number of added tin strip is manually recorded, and there is a risk of error in the use of the number.

[0003] Therefore, an automatic tin strip device for wave-soldering is needed to realize automatic tin process, accurately control the amount of tin, improve welding quality, reduce labor costs and improve production efficiency. UTILITY MODEL CONTENT

[0004] The utility model aims at providing an automatic tin strip device for wave-soldering to solve the problem of frequent manual replenishment of liquid tin in the tin furnace of the wave-soldering machine, difficulty in accurately controlling the amount of tin and unstable welding quality and low production efficiency caused thereby in the prior art.

[0005] The utility model solves the above problems by the following technical solutions:

[0006] An automatic tin strip device for wave-soldering includes a tin furnace, a support mechanism, a storage mechanism, a conveying mechanism, a clamping mechanism, a control mechanism and a detection mechanism. The support mechanism is used to install the tin furnace, the storage mechanism, the conveying mechanism, the clamping mechanism, the control mechanism and the detection mechanism. The storage mechanism is used to store tin strip. The storage mechanism is drivingly connected with the conveying mechanism. The transmission mechanism conveys the tin strip in the storage mechanism to a clamping position. The clamping mechanism is arranged above the transmission mechanism. The clamping mechanism moves the tin strip at the clamping position to the tin furnace. The detection mechanism is signal-connected with the control mechanism to detect the temperature of the tin surface and the inventory of tin strip and feed back to the control mechanism to send corresponding control signals to the conveying mechanism and the clamping mechanism. The control mechanism controls the conveying mechanism and the clamping mechanism to move the tin strip.

[0007] Further, the support mechanism includes a wave-soldering cabinet body, a profile base is fixed at the bottom of the wave-soldering cabinet body, a stepping motor mounting plate and a table mounting plate are fixed on the profile base.

[0008] Further, the material storage mechanism comprises a flange plate, a tin bar container bottom plate, a plurality of first profiles, an intermediate limiting disc and a top limiting disc, the conveying mechanism comprises a transmission shaft, a first synchronous wheel, a second synchronous wheel, a synchronous belt and a stepping motor; the flange plate is fixedly connected with the tin bar container bottom plate, the lower portions of the plurality of first profiles pass through the intermediate limiting disc and are fixed on the tin bar container bottom plate, the upper portions of the plurality of first profiles are fixed with the top limiting disc,

[0009] The upper end of the transmission shaft is connected with the flange plate, the lower end of the transmission shaft is provided with the second synchronous wheel, the second synchronous wheel and the first synchronous wheel are connected through the synchronous belt, the stepping motor is installed on the stepping motor mounting plate and is used for driving the transmission shaft to rotate, and the square belt bearing seat is further fixed on the table top mounting plate.

[0010] Further, the clamping mechanism comprises a transverse movement servo module, a lifting servo module, a second profile, a clamping cylinder, a servo module mounting plate and a cylinder mounting plate, the servo module mounting plate is fixed on the top of the wave soldering cabinet body, the transverse movement servo module is installed on the servo module mounting plate, the lifting servo module is installed on the transverse movement servo module, the second profile is installed on the lifting servo module, the cylinder mounting plate is fixed on the second profile, and the clamping cylinder is installed on the cylinder mounting plate.

[0011] Further, the detection mechanism comprises a tin bar in-place sensor and a tin surface temperature sensor, the profile base is further provided with a sensor support, the tin bar in-place sensor is installed on the top of the sensor support, and the tin surface temperature sensor is installed in the tin furnace.

[0012] Further, the control mechanism is a PLC control all-in-one machine.

[0013] Compared with the prior art, the utility model has the following advantages and beneficial effects:

[0014] The utility model discloses a wave -soldering tin -adding system which is integrated with a storage mechanism, a conveying mechanism, a clamping mechanism, a detection mechanism and a control mechanism, and has the advantages of high efficiency and automation, improved welding quality and production efficiency, reduced labor cost, and comprehensive optimization and upgrading of the wave -soldering tin -adding process. The storage mechanism ensures sufficient storage of the tin bar and provides a material basis for automatic tin -adding. The precise cooperation between the conveying mechanism and the clamping mechanism realizes the automatic process of the tin bar from storage to feeding without manual intervention, thereby greatly improving the efficiency and accuracy of tin -adding. The detection mechanism monitors the temperature of the liquid tin in the tin furnace and the tin bar inventory in real time, and provides accurate data support for the control mechanism, so that the control mechanism can intelligently adjust the tin -adding strategy to ensure that the tin -adding is just right each time, meeting the welding requirements and avoiding waste. BRIEF DESCRIPTION OF DRAWINGS

[0015] Figure 1 It is a front view of the utility model;

[0016] Figure 2 It is a perspective view of the utility model;

[0017] Among them, 1 - servo module mounting plate, 2 - wave -soldering cabinet body, 3 - horizontal shift servo module, 4 - tin furnace, 5 - stepper motor, 6 - stepper motor mounting plate, 7 - first synchronous wheel, 8 - profile base, 9 - synchronous belt, 10 - second synchronous wheel, 11 - transmission shaft, 12 - table mounting plate, 13 - square belt bearing seat, 14 - flange plate, 15 - first profile, 16 - clamping cylinder, 17 - cylinder mounting plate, 18 - second profile, 19 - lifting servo module, 20 - tin bar container bottom plate, 21 - intermediate limit disc, 22 - top limit disc, 23 - tin surface temperature sensor, 24 - sensor support, 25 - tin bar in place sensor. DETAILED DESCRIPTION

[0018] To make the purpose, technical scheme and advantages of the utility model clearer, the technical scheme of the utility model will be described in detail below. Obviously, the described embodiments are only part of the embodiments of the utility model, not all the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by those skilled in the art without creative labor belong to the scope protected by the utility model.

[0019] In the following description, the terms "first", "second", "third", and the like, similar terms, are merely used to distinguish similar objects, and do not represent a specific order or sequence of the objects. Understandably, the "first", "second", "third" can be interchanged with a specific order or sequence as allowed, so that the embodiments described herein can be implemented in an order other than that illustrated or described herein. Unless otherwise defined, all technical and scientific terms used herein have the same meaning as understood by those skilled in the art to which the present application belongs. The terms used herein are merely for the purpose of describing the embodiments of the present application and are not intended to limit the present application. The present application will be further described in detail below in conjunction with the embodiments, but the embodiments of the present application are not limited thereto.

[0020] Embodiment:

[0021] In conjunction with the accompanying Figure 1 and the accompanying Figure 2 , a wave soldering automatic tin bar device is shown, comprising: a tin furnace 4, a supporting mechanism, a storage mechanism, a conveying mechanism, a clamping mechanism, a control mechanism and a detection mechanism; the supporting mechanism is used to install the tin furnace 4, the storage mechanism, the conveying mechanism, the clamping mechanism, the control mechanism and the detection mechanism, the storage mechanism is used to store tin bars, the storage mechanism is drivingly connected with the conveying mechanism, the transmission mechanism conveys the tin bars in the storage mechanism to a clamping position, the clamping mechanism is arranged above the transmission mechanism, the clamping mechanism moves the tin bars at the clamping position to the tin furnace 4, the detection mechanism is signal connected with the control mechanism, used to detect the tin surface temperature and the storage amount of the tin bars and feedback to the control mechanism, to send corresponding control signals to the conveying mechanism and the clamping mechanism, the control mechanism controls the conveying mechanism and the clamping mechanism to move the tin bars.

[0022] Working principle: when the detection mechanism detects that the tin surface temperature in the tin furnace 4 is reduced or the storage amount of the tin bars in the storage mechanism is insufficient, it will feed back these information to the control mechanism. After receiving the signal, the control mechanism will immediately issue an instruction to the conveying mechanism to drive it to convey the tin bars in the storage mechanism to the clamping position. At the same time, the clamping mechanism will also receive the instruction, accurately clamp the tin bars and move them to the tin furnace 4.

[0023] As an embodiment, in conjunction with the accompanying Figure 1 , the supporting mechanism comprises a wave soldering cabinet body 2, a profile base 8 is fixed at the bottom of the wave soldering cabinet body 2, a stepping motor mounting plate 6 and a table mounting plate 12 are fixed on the profile base 8.

[0024] Specifically, the wave soldering cabinet body 2 is the main part of the support mechanism, which is a solid box structure used to accommodate and protect various components inside the device. The cabinet not only provides sufficient space to install the tin furnace 4, storage mechanism, conveying mechanism, clamping mechanism, etc., but also ensures the stability of the entire device during operation through its solid structure.

[0025] The profile base 8 is the foundation of the wave soldering cabinet body 2, usually made of high-strength, corrosion-resistant metal materials such as stainless steel or aluminum alloy, etc. The profile base 8 is firmly fixed to the ground or production line through welding or bolt connection, etc., providing a solid support for the entire device. At the same time, the profile base 8 is also designed with a reasonable structure and layout to facilitate the installation and debugging of other components. On the profile base 8, the step motor mounting plate 6 and the table mounting plate 12 are further fixed. The step motor mounting plate 6 is used to install the step motor 5, usually with precise positioning and fixing functions to ensure that the step motor 5 can maintain stable and accurate output during operation. The step motor 5, as a key driving component of the conveying mechanism, its installation position and stability directly affect the conveying precision and efficiency of the tin bar. The table mounting plate 12 is used to install other components that need stable support, such as some transmission components of the conveying mechanism, sensor brackets 24 of the detection mechanism, etc. The design of the table mounting plate 12 usually takes into account the weight, size and installation position of the components, etc., to ensure that all components of the device can be in the best working state during operation.

[0026] During the operation of the wave soldering automatic tin bar feeding device, when the step motor 5 drives the conveying mechanism to rotate, it will generate certain vibration and force. As the foundation of the entire device, the profile base 8 can effectively absorb and disperse these vibrations and forces, ensuring the overall stability of the device. At the same time, the step motor mounting plate 6 and the table mounting plate 12 ensure that the step motor 5 and other components do not shift or shake during operation through precise positioning and fixing functions, thereby ensuring the accuracy and reliability of the entire device.

[0027] In summary, the support mechanism not only provides a solid support and protection for the entire device, but also ensures the stable operation and efficient cooperation of each component through precise installation and positioning functions.

[0028] As an embodiment, combined with the accompanying drawings Figure 1 and the accompanying drawings Figure 2As shown, the material storage mechanism includes a flange plate 14, a tin strip container bottom plate 20, a plurality of first profiles 15, an intermediate limiting disc 21 and a top limiting disc 22, the conveying mechanism includes a transmission shaft 11, a first synchronous wheel 7, a second synchronous wheel 10, a synchronous belt 9 and a stepping motor 5; the flange plate 14 is fixedly connected with the tin strip container bottom plate 20, the lower part of the plurality of first profiles 15 passes through the intermediate limiting disc 21 and is fixed on the tin strip container bottom plate 20, the upper part of the plurality of first profiles 15 is fixed with the top limiting disc 22,

[0029] The upper end of the transmission shaft 11 is connected with the flange plate 14, the lower end of the transmission shaft 11 is installed with the second synchronous wheel 10, the second synchronous wheel 10 and the first synchronous wheel 7 are connected through the synchronous belt 9, the stepping motor 5 is installed on the stepping motor mounting plate 6 and is used to drive the transmission shaft 11 to rotate, the square belt bearing seat 13 is also fixed on the table surface mounting plate 12, the transmission shaft 11 passes through the square belt bearing seat 13 and is fixedly connected together.

[0030] Specifically, the storage mechanism is used to store tin bars, which is composed of flange plate 14, tin bar container bottom plate 20, four first profiles 15, intermediate limiting disc 21 and top limiting disc 22. The flange plate 14 is a circular metal disc that is fixedly connected with the tin bar container bottom plate 20, forming the bottom support of the storage mechanism. The tin bar container bottom plate 20 is a flat metal plate used to carry the tin bars. The four first profiles 15 pass through the intermediate limiting disc 21 vertically and are fixed on the tin bar container bottom plate 20, not only enhancing the structural strength of the storage mechanism, but also providing stable support for the tin bars. The top limiting disc 22 is fixed on the upper part of the first profile 15, used to limit the movement of the tin bars in the vertical direction, ensuring that the tin bars will not fall out of the storage mechanism. Through such design, the storage mechanism can stably store a certain amount of tin bars, providing stable tin bar supply for the subsequent conveying and welding process. The conveying mechanism is used to accurately convey the tin bars in the storage mechanism to the clamping position. It is mainly composed of transmission shaft 11, first synchronous wheel 7, second synchronous wheel 10, synchronous belt 9 and stepping motor 5. The transmission shaft 11 is the core component of the conveying mechanism, the upper end is connected with the flange plate 14, and the lower end is installed with the second synchronous wheel 10. The first synchronous wheel 7 and the second synchronous wheel 10 are connected together through the synchronous belt 9, forming a stable transmission system. The stepping motor 5 is installed on the stepping motor mounting plate 6, which drives the transmission shaft 11 to rotate, and then drives the synchronous belt 9 and the second synchronous wheel 10 to rotate. The square belt bearing seat 13 is also fixed on the table mounting plate 12, the transmission shaft 11 passes through the square belt bearing seat 13 and is fixedly connected with it, which ensures the stability and accuracy of the transmission shaft 11 during rotation. When the stepping motor 5 starts, it will transmit the rotary motion to the storage mechanism through the transmission shaft 11 and the synchronous belt 9, so that the tin bars in the storage mechanism move at a predetermined speed and direction until they reach the clamping position.

[0031] Suppose a batch of tin bars needs to be conveyed from the storage mechanism to the clamping position for welding. First, the tin bars in the storage mechanism are stably stored in the storage space composed of flange plate 14, tin bar container bottom plate 20, first profile 15, intermediate limiting disc 21 and top limiting disc 22. Then, the control mechanism sends instructions to the stepping motor 5, which starts to rotate and drives the transmission shaft 11 to rotate. The rotation of the transmission shaft 11 is transmitted to the second synchronous wheel 10 through the synchronous belt 9, and then the whole storage mechanism starts to move. During the movement, the tin bars are stably supported on the first profile 15 and are limited by the top limiting disc 22, so they will not fall out of the storage mechanism. Finally, when the storage mechanism moves to the clamping position, the clamping mechanism will accurately clamp the tin bars and move them to the tin furnace 4 for welding.

[0032] As an embodiment, the accompanying drawings are combined Figure 1As shown, the clamping mechanism includes a horizontal movement servo module 3, a lifting servo module 19, a second profile 18, a clamping cylinder 16, a servo module mounting plate 1 and a cylinder mounting plate 17. The servo module mounting plate 1 is fixed on the top of the wave soldering cabinet body 2. The horizontal movement servo module 3 is installed on the servo module mounting plate 1. The lifting servo module 19 is installed on the horizontal movement servo module 3. The second profile 18 is installed on the lifting servo module 19. The cylinder mounting plate 17 is fixed on the second profile 18. The clamping cylinder 16 is installed on the cylinder mounting plate 17.

[0033] Specifically, the clamping mechanism mainly consists of a horizontal movement servo module 3, a lifting servo module 19, a second profile 18, a clamping cylinder 16, a servo module mounting plate 1 and a cylinder mounting plate 17. The servo module mounting plate 1 is firmly fixed on the top of the wave soldering cabinet body 2, providing a stable support foundation for the entire clamping mechanism. The horizontal movement servo module 3 is installed on the servo module mounting plate 1, responsible for driving the clamping mechanism to move horizontally, so as to clamp the tin bar from the storage mechanism and move it to the top of the tin furnace 4. The lifting servo module 19 is installed on the horizontal movement servo module 3 and can move horizontally with it. At the same time, the lifting servo module 19 is also responsible for driving the clamping mechanism to move vertically, to ensure that the tin bar can be accurately sent into the tin furnace 4. The second profile 18, as a support structure of the clamping mechanism, is installed on the lifting servo module 19. It not only enhances the structural strength of the clamping mechanism, but also provides stable support for the subsequent cylinder mounting plate 17. The cylinder mounting plate 17 is fixed on the second profile 18, which is used to install the clamping cylinder 16. The clamping cylinder 16 is responsible for the actual clamping action. When the clamping cylinder 16 receives a control signal, it will quickly extend and clamp the tin bar, and then move it to the tin furnace 4 under the drive of the lifting servo module 19 and the horizontal movement servo module 3. The horizontal movement servo module 3 drives the clamping mechanism to move to the top of the storage mechanism, then the lifting servo module 19 descends, making the clamping cylinder 16 close to the tin bar. Then the clamping cylinder 16 extends and clamps the tin bar, and the lifting servo module 19 rises again to lift the tin bar. Finally, the horizontal movement servo module 3 drives the clamping mechanism to move to the top of the tin furnace 4, and the lifting servo module 19 descends to accurately send the tin bar into the tin furnace 4. The whole process realizes stable clamping and accurate movement of the tin bar through precise mechanical structure and electrical control system, ensuring the continuity and stability of the welding process, greatly improving the welding efficiency and production quality.

[0034] As an embodiment, combined with the accompanying drawings Figure 1 and the accompanying drawings Figure 2As shown, the detection mechanism includes a tin bar in place sensor 25 and a tin surface temperature sensor 23, and a sensor support 24 is also fixed on the profile base 8, the tin bar in place sensor 25 is installed on the top of the sensor support 24, and the tin surface temperature sensor 23 is installed in the tin furnace 4.

[0035] Specifically, the detection mechanism mainly consists of two parts, tin bar in place sensor 25 and tin surface temperature sensor 23. On the profile base 8, a sensor support 24 is fixed, which provides stable support for the tin bar in place sensor 25. The tin bar in place sensor 25 is installed on the top of the sensor support 24, and its main task is to detect whether the tin bar has reached the predetermined clamping position. When the tin bar in the storage mechanism is conveyed to the clamping position, the tin bar in place sensor 25 will send a signal to the control system that the tin bar has arrived, and the clamping operation can begin, so as to ensure that the clamping mechanism can clamp the tin bar at the correct time, avoiding clamping failure or welding error due to the tin bar not being in place. The tin surface temperature sensor 23 is installed in the tin furnace 4, which is used to monitor the temperature of the tin furnace 4 in real time. In the wave soldering process, the temperature of the tin furnace 4 directly affects the quality and effect of welding. If the temperature of the tin furnace 4 is too high or too low, it will cause poor welding or damage to the components. Therefore, by monitoring the temperature of the tin furnace 4 in real time through the tin surface temperature sensor 23 and adjusting the heating power as needed, it can ensure that the temperature of the tin furnace 4 always remains within the appropriate range, thereby ensuring the stability and reliability of the welding.

[0036] Suppose in the wave soldering automatic tin bar feeding device, if there is no tin bar in place sensor 25, then the clamping mechanism may attempt to clamp when the tin bar is not in place, resulting in clamping failure or clamping to the wrong position. Similarly, if there is no tin surface temperature sensor 23 to monitor the temperature of the tin furnace 4, it is impossible to accurately know the current temperature of the tin furnace 4, and it is also impossible to adjust the heating power as needed. In this way, it may cause unstable welding quality, and even welding failure.

[0037] Therefore, the detection mechanism provides necessary feedback and basis for the control system by monitoring the status of the tin bar and the temperature of the tin furnace 4 in real time, ensuring the smooth progress of the welding process and the stable and reliable quality of the welding.

[0038] As an embodiment, combined with the accompanying drawings Figure 1 As shown, the control mechanism is a PLC control all-in-one machine.

[0039] Specifically, the PLC control all-in-one machine is a device that integrates a PLC controller with other necessary control elements such as input / output modules, power supplies, communication interfaces, etc. It has the advantages of small size, full functionality, high reliability, flexible programming, etc., and is suitable for industrial automation control. In the wave soldering automatic tin bar feeding device, the PLC control all-in-one machine is responsible for receiving instructions from the operation interface or the upper computer, then processing according to the preset program logic, and finally issuing control signals to various actuators (such as servo modules, air cylinders, heating elements, etc.) to realize the automatic storage, conveying, clamping and welding of tin bars.

[0040] Suppose the wave soldering automatic tin bar feeding device needs to be started. The operator issues a start command through the operation interface or the upper computer, which will be received by the PLC control all-in-one machine. Then, the PLC will check whether the state of each component meets the start condition (such as whether the temperature of the tin furnace 4 reaches the set value, whether there is a tin bar in the storage mechanism, etc.) according to the preset program logic. If the condition is met, the PLC will issue a control signal to the horizontal movement servo module 3 to drive the clamping mechanism to move above the storage mechanism. Then, the PLC will issue signals to the lifting servo module 19 and the clamping cylinder 16 to make them work together to clamp and move the tin bar to the tin furnace 4. Throughout the process, the PLC control all-in-one machine is constantly receiving feedback signals and adjusting the control signals as needed to ensure the stable operation of the entire system and the welding quality.

[0041] Therefore, the PLC control all-in-one machine realizes efficient and automated welding of tin bars through precise control and coordination.

[0042] Although the present application has been described with reference to the explanatory embodiments thereof, the above-described embodiments are merely preferred embodiments of the present application, and the embodiments of the present application are not limited by the above-described embodiments. It should be understood that those skilled in the art can design many other modifications and embodiments, which will fall within the scope and spirit of the principles disclosed in the present application.

Claims

1. A wave soldering automatic tin bar feeding device, characterized by comprising: Include: tin furnace, support mechanism, storage mechanism, conveying mechanism, clamping mechanism, control mechanism and detection mechanism; the support mechanism is used for installing the tin furnace, the storage mechanism, the conveying mechanism, the clamping mechanism, the control mechanism and the detection mechanism, the storage mechanism is used for storing tin bar, the storage mechanism is drivingly connected with the conveying mechanism, the conveying mechanism conveys the tin bar in the storage mechanism to the clamping position, the clamping mechanism is arranged above the transmission mechanism, the clamping mechanism moves the tin bar in the clamping position to the tin furnace, the detection mechanism is connected with the control mechanism, the control mechanism is connected with the conveying mechanism and the clamping mechanism control, and the control mechanism controls the conveying mechanism and the clamping mechanism to move the tin bar.

2. The apparatus according to claim 1, wherein The support mechanism includes a wave solder cabinet body, a profile base is fixed at the bottom of the wave solder cabinet body, a stepping motor mounting plate and a table surface mounting plate are fixed on the profile base.

3. The apparatus according to claim 2, wherein The storage mechanism includes a flange plate, a tin bar container bottom plate, a plurality of first profiles, an intermediate limiting disc and a top limiting disc, the conveying mechanism includes a transmission shaft, a first synchronous wheel, a second synchronous wheel, a synchronous belt and a stepping motor; the flange plate is fixedly connected with the tin bar container bottom plate, the lower parts of the plurality of first profiles pass through the intermediate limiting disc and are fixed on the tin bar container bottom plate, and the upper parts of the plurality of first profiles are fixed with the top limiting disc; the upper end of the transmission shaft is connected with the flange plate, the lower end of the transmission shaft is provided with the second synchronous wheel, the second synchronous wheel and the first synchronous wheel are connected through the synchronous belt, the stepping motor is mounted on the stepping motor mounting plate and used to drive the transmission shaft to rotate, and a square belt bearing seat is further fixed on the table surface mounting plate; the transmission shaft passes through the square belt bearing seat and is fixedly connected together.

4. The apparatus according to claim 3, wherein The clamping mechanism includes a horizontal movement servo module, a lifting servo module, a second profile, a clamping cylinder, a servo module mounting plate and a cylinder mounting plate, the servo module mounting plate is fixed at the top of the wave solder cabinet body, the horizontal movement servo module is mounted on the servo module mounting plate, the lifting servo module is mounted on the horizontal movement servo module, the second profile is mounted on the lifting servo module, the cylinder mounting plate is fixed on the second profile, and the clamping cylinder is mounted on the cylinder mounting plate.

5. A device for automatic application of a soldering strip to a wave-soldering machine according to any one of claims 2 to 4, characterized in that The detection mechanism includes a tin bar in-place sensor and a tin surface temperature sensor, a sensor support is further fixed on the profile base, the tin bar in-place sensor is mounted at the top of the sensor support, and the tin surface temperature sensor is mounted in the tin furnace.

6. A device for automatic application of a soldering strip to wave-soldering according to claim 1, characterized in that The control mechanism is a PLC control all-in-one machine.

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