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Corrugated board is a structural material made by bending and shaping metal sheets through processes such as stamping.It has a certain wave shape on its surface,forming a series of uneven"corrugations."This special structure gives corrugated board strong pressure resistance and heat resistance,making it widely used in various equipment such as containers,pipelines,and heat exchangers. In the production and manufacturing process of corrugated board,automated welding technology has become an indispensable production method.However,due to the irregular shape and structure of corrugated board,automated welding often encounters defects and problems. Firstly,because the corrugated shape of corrugated board is irregular,the uncertainty of the welding position is very large.This limits the accuracy of welding,making it difficult to guarantee the quality and stability of the weld. Secondly,the shape of corrugated board is very complex,and traditional welding methods are difficult to cover every welding position,leading to situations such as incomplete and incorrect welding. Thirdly,due to the thin thickness of corrugated board and the heat and deformation generated during the welding process,it is easy to cause deformation and warping of the plate,affecting the quality and stability of the weld. These problems have led to low efficiency and unstable quality of corrugated board welding,bringing considerable trouble to the production process. Weld tracking technology plays an important role in corrugated board welding. In order to solve the problems encountered in automated welding of corrugated board,weld tracking technology has emerged.Weld tracking technology refers to collecting data during the welding process through sensors to track and control the position and shape of the weld in real time,thereby ensuring the quality and stability of the weld. Specifically,weld tracking technology mainly realizes the tracking and control of the weld position through the following two methods: By using a laser sensor to track and control the position of the weld in real time.The sensor constantly scans the welding area,obtains information about the position of

A welding robot workstation is a widely used automation equipment in modern industry,which can replace human labor to complete welding tasks that are highly repetitive,low in efficiency,and high in danger.A typical welding robot workstation usually includes the following components: The components of a welding robot workstation include: Welding robot The welding robot is the core component of the workstation.It is responsible for completing the welding task according to the programmed welding path. Welding power supply The welding power supply is responsible for providing the welding current and voltage required by the welding process.It is an important component of the welding robot workstation. Welding torch The welding torch is responsible for supplying the welding wire and shielding gas required for welding.It is an important part of the welding process. Positioner The positioner is used to hold the workpiece during welding.It is responsible for controlling the position and angle of the workpiece and ensures that the welding torch is in the correct position during welding. Welding accessories Welding accessories include wire feeder,gas supply device,welding torch cleaner,and other necessary welding materials. Data management system The data management system is an essential part of modern welding robot workstations.It can monitor,record,and analyze welding data in real-time.The data management system helps welding engineers and management personnel optimize and manage welding processes,improve welding quality and efficiency. Human-machine interface The human-machine interface is the interface for interaction between the welding robot workstation and personnel.It usually includes a touch screen,buttons,indicator lights,etc.The human-machine interface provides a user-friendly interface and real-time feedback information for welding engineers and operators,enabling them to conveniently monitor the status and operation process of the welding robot. Power supply system The power supply system is an indispensable component of the welding robot workstation,including power supply lines,distribution boxes,transformers,etc.The power

With the continuous development of modern manufacturing,robot welding has become the preferred way for many enterprises to achieve automated production.Robot welding can improve production efficiency,reduce production costs,and ensure welding quality stability and consistency.However,in the actual welding production process,robot welding also faces some problems,such as the phenomenon of edge biting.This article will introduce the reasons and solutions for the edge biting phenomenon. I.Reasons for Edge Biting Phenomenon Edge biting is a common problem in robot welding,mainly manifested as protrusions or gaps at the welding point,and severe cases can even cause the welding seam to crack.So what are the reasons for the edge biting phenomenon?Below are several reasons: Welding current is too high or too low Welding current is an important parameter that affects welding quality.If the welding current is too high or too low,it will cause the welding temperature to be too high or too low,which will affect the welding quality and cause edge biting. Welding speed is too fast or too slow Welding speed is also an important parameter that affects welding quality.If the welding speed is too fast or too slow,it will reduce the welding quality and cause edge biting. Incorrect welding posture Welding posture refers to the angle and distance between the welding electrode and the workpiece.If the welding posture is incorrect,it will affect the welding quality and cause edge biting. Mismatched welding parameters During the welding process,different welding parameters need to be set according to different welding process requirements,such as welding current,welding speed,welding time,etc.If the welding parameters are mismatched,it will affect the welding quality and cause edge biting. Unclean workpiece surface During the welding process,if there are impurities such as oil and rust on the surface of the workpiece,it will affect the welding quality and cause edge biting. The above are several reasons for the edge biting phenomenon in robot welding.For these reasons,we can take some measures to solve the problem of edge biting. II.Solutions Adjust welding

With the development of manufacturing industry, robot welding technology has become an important tool for many manufacturing enterprises. One of the key links in robot welding technology is seam tracking, which can detect the position and shape of the seam in real time during the welding process, and then perform real-time compensation according to the detection results to ensure the accuracy and stability of welding. Then, how does robot seam tracking realize real-time compensation? This article will introduce in detail the specific steps of real-time compensation for robot seam tracking. 1. Weld inspection The first step in robotic seam tracking is seam inspection, which usually requires the use of sensors. Sensors can monitor the position and shape of the weld in real time, and then transmit this information to the robot control system. There are many types of sensors, such as optical sensors, laser sensors, cameras, etc. The selection of different sensors will be affected by many factors, such as working environment, welding materials, etc. 2. Coordinate transformation Since the coordinate system of the robot and the coordinate system of the welding seam are usually inconsistent, coordinate transformation is required during the welding seam tracking process of the robot. Specifically, information such as the position and shape of the weld seam detected by the sensor needs to be converted into coordinates in the robot tool coordinate system. This requires geometric transformation, such as rotation, translation and other operations. In practical applications, mathematical models are usually used for coordinate transformation. 3. Calculate the deviation Through coordinate transformation, we can convert the detected weld seam information into coordinates in the robot tool coordinate system. Next, we need to calculate the amount of deviation between the robot and the weld. This is usually achieved by calculating the Euclidean distance between the robot's current position and the position of the weld. If the distance between the robot and the weld exceeds the allowable error range, real-time compensation is required. 4. Real-time compensation After ca

Principles of weld seam tracking system Welding is a widely used industrial process, and its quality is crucial to ensure the safety and reliability of various products. Weld seam tracking systems use sensors to track the position and trajectory of the welding seam in real-time. The system can adjust the welding parameters according to the seam's position and ensure the consistency and accuracy of the welding process. Functions of weld seam tracking system Weld seam tracking system can improve the welding quality, reduce production costs, and enhance the safety of industrial processes. The system can help reduce the need for manual intervention during the welding process and minimize the risks of human error. By tracking the welding seam's position and trajectory, the system can adjust the welding parameters in real-time to ensure the quality and consistency of the welding process. Application areas of weld seam tracking system Weld seam tracking systems are widely used in various industrial fields, including automotive manufacturing, shipbuilding, petrochemical industry, and power equipment manufacturing. Here are some specific examples: Automotive manufacturing: Weld seam tracking system can improve the efficiency and accuracy of the welding process in car manufacturing, thereby reducing production costs and improving the quality of the final product. Shipbuilding: Shipbuilding involves complex welding processes that require high precision and consistency. Weld seam tracking systems can help ensure the welding quality, reduce the losses and maintenance costs during ship operations. Petrochemical industry: Welding is an essential process in the petrochemical industry. Weld seam tracking systems can help ensure the quality and consistency of welding, reducing potential safety risks. Power industry: Welding is crucial in power equipment manufacturing and maintenance. Weld seam tracking systems can improve production efficiency and quality while reducing costs. Case videos Here are some case videos showing the application of weld seam tracking systems in different fields: These videos show the application of weld seam tracking systems in different in

With the continuous advancement of technology,the use of welding robots is becoming more and more common.Both manual welding and welding robots have their advantages and disadvantages.Below,we will analyze them from the aspects of efficiency,precision,cost,and safety. I.Efficiency In terms of efficiency,welding robots have obvious advantages.Welding robots work very fast,can continuously weld multiple workpieces,and do not need to stop.Manual welding requires a lot of labor and resources and cannot work continuously like a robot,so its efficiency is far inferior to welding robots. II.Precision Welding precision is very important,especially for the welding of large workpieces.In this regard,welding robots also have advantages.Welding robots can precisely control welding parameters to ensure the accuracy and quality of welds.Manual welding requires manual control of welding parameters,and its precision and consistency are not as good as robots. III.Cost From the perspective of cost,manual welding and welding robots have their advantages and disadvantages.Manual welding requires a lot of labor,which can lead to high labor costs.Welding robots require a one-time high investment,but in the long-term operation,robots can improve production efficiency and quality,thereby reducing overall costs.Therefore,in the long run,welding robots are more advantageous. IV.Safety In terms of safety,welding robots have higher safety.Manual welding requires the operator to be close to the welding area,which may threaten the operator's safety.Welding robots can complete welding tasks without contacting the operator,thus reducing the operator's safety risk. V.Application areas The application areas of welding robots are very wide and can be used in multiple industries such as automotive,aviation,and construction.Manual welding is mainly used for welding small workpieces.Therefore,in the mass production field,welding robots have a wider range of applications. In summary,welding robots have significant advantages in terms of efficiency,precision,cost,and safety.However,manual welding still has its advantages in small workpiece welding and personalized product

Robot welding has become an important application in the manufacturing industry due to its high efficiency,consistency,and accuracy.However,as with any welding process,there are common defects that can occur in robot welding.These defects can cause a reduction in the quality of the welded joints and can lead to product failure.In recent years,the development of seam tracking systems has become a solution to these problems.This article will discuss the common defects in robot welding and the role of seam tracking systems in addressing them. Common Defects in Robot Welding Incomplete Penetration Incomplete penetration is a common defect in robot welding.This occurs when the weld is not deep enough,and it can cause a reduction in the strength of the weld.The cause of incomplete penetration can be due to several factors,such as a lack of heat input or an incorrect welding parameter. Porosity Porosity is another common defect that occurs in robot welding.Porosity is caused by the entrapment of gas in the weld pool,which creates small holes in the welded joint.Porosity can weaken the weld and increase the risk of failure. Burn-Through Burn-through is a defect that occurs when the weld pool becomes too hot,causing it to penetrate through the material.This can cause a hole in the welded joint and weaken its strength. Undercut Undercut is a groove that forms on the base material adjacent to the welded joint.This groove can weaken the weld and increase the risk of failure.Undercut is often caused by incorrect welding parameters or a lack of proper alignment. Role of Seam Tracking Systems in Addressing Common Defects Seam tracking systems are designed to monitor and control the position and orientation of the welding torch during the welding process.These systems can help to improve the quality of the welded joint and reduce the occurrence of defects.The following are some ways that seam tracking systems can address common defects in robot welding: Incomplete Penetration Seam tracking systems can help to ensure that the welding torch is positioned correctly,which can help to ensure that the weld is deep enough to avoid incomplete penetration.

Weld seam tracking sensors are important equipment in modern welding technology.They can achieve automatic welding and improve welding quality by accurately tracking the position of the weld seam.However,like any other machine equipment,the normal use of weld seam tracking sensors requires daily maintenance and upkeep to ensure their stability and reliability.In this article,we will provide a detailed introduction to the daily maintenance and upkeep of weld seam tracking sensors,including cleaning,adjustment,inspection,and maintenance. I.Cleaning During use,weld seam tracking sensors may be affected by various pollutants such as dust,grease,and welding slag,which can affect the accuracy and sensitivity of the sensor.Therefore,it is necessary to regularly clean the weld seam tracking sensor.When cleaning,use a clean brush or soft cloth to wipe the surface of the sensor.It is important to avoid using cleaning agents containing chemical components or items with corrosive properties,which can damage the sensor. II.Adjustment Weld seam tracking sensors may experience errors or deviations during use and require timely adjustment.Before adjustment,it is necessary to understand the motion pattern of the welding robot,determine the position and angle of the sensor,and the shape and position of the weld seam.Then,adjust the sensor according to the situation of the weld seam and the indication of the sensor.It is important to note that the adjustment process should be slow and step-by-step to avoid significant errors. III.Inspection Weld seam tracking sensors may be damaged or malfunction during use and require regular inspection.Inspection content includes checking whether the electrical connections of the welding robot are loose,whether the various parts of the sensor are damaged or worn,and whether the sensor's circuit and controller are working properly.If a problem is found,it should be repaired or replaced promptly. IV.Maintenance In addition to daily cleaning,adjustment,and inspection,weld seam tracking sensors also require regular maintenance.Maintenance includes replacing the sensor's parts,lubricating the moving parts of the sensor,and regularly c

Automatic welding robots are becoming increasingly important equipment in modern manufacturing, capable of completing various welding tasks automatically and improving production efficiency and product quality. However, when performing automated welding, the position of the weld seam often needs to be located before the robot starts welding. This article will introduce several common methods for locating weld seam positions to help you better understand the working principles of welding robots. Manual Measurement Method The manual measurement method is the most traditional method, which usually requires the use of measuring tools such as calipers, micrometers, and height gauges to measure the position of the weld seam. This method requires experienced operators to perform the measurement and consumes a lot of time and labor. Moreover, due to human factors, it is difficult to ensure the accuracy and consistency of the measurement. Therefore, this method has been replaced by automated technology. Vision Sensor Method The vision sensor method is a more advanced method that uses machine vision technology to identify and locate weld seam positions. This method usually requires the installation of a vision sensor on the welding workpiece, and then using the corresponding software to identify and locate the weld seam. The advantage of this method is that it can achieve automation without the need for operators to perform measurements. However, this method also has some limitations, such as recognition errors in low lighting conditions, and the need to calibrate the parameters of the vision sensor. Laser Sensor Method The laser sensor method is a method that uses laser to measure the position of the weld seam. It can quickly and accurately measure the position of the weld seam and is suitable for complex three-dimensional structures. This method usually requires the installation of a laser sensor on the welding workpiece, and then using the corresponding software to identify and locate the weld seam. Compared with the vision sensor method, the laser sensor method is not affected by lighting conditions and can achieve high-precision measurement. However, this method requires