Knowledge

Industrial robotic arms achieve high-precision operation through various mechanisms and technologies, including: 1)  Robotic arm design: Industrial robotic arms are designed with high rigidity and stiffness to minimize deflection and maintain stability during operation. They are usually made of materials such as steel or aluminum and are designed with lightweight structures to reduce inertia and improve dynamic performance.

Robots have found various applications in aviation manufacturing, including: 1) Aircraft assembly: Robots can be used in the assembly of aircraft components, such as fuselage, wings, tail, and engines. They can perform tasks such as drilling, riveting, fastening, and sealing with high precision and efficiency, ensuring the quality and consistency of aircraft assembly.

The application of industrial robotic arms in logistics, express delivery and warehousing can cover the following aspects: 1) Cargo handling and loading and unloading: Industrial robotic arms can be used for the handling and loading and unloading of goods, such as removing goods from shelves and placing them in the appropriate position in a warehouse, or unloading goods from transport vehicles and placing them at designated locations.

1. Keep 1/4-3/8 inches of welding wire elongation (the length of welding wire extending from the welding torch head); 2. Use small-diameter welding wire when welding thin plates; use large-diameter and high-current welding machines when welding thick plates. View the specific performance recommended by the welding machine;

Improve production efficiency: Robots can automatically perform tedious, repetitive and dangerous tasks, reducing labor costs and production cycles, while also working 24 hours a day, greatly improving production efficiency.

Deep learning technology: Deep learning technology has a wide range of applications in the autonomy of robotic arms, which can allow robotic arms to learn and master more complex tasks and skills through machine learning.

With the advancement of artificial intelligence technology, robotic arms can achieve autonomous decision-making and operation according to the environment and tasks through abilities such as perception, learning and reasoning.

Cargo loading and unloading: The robotic arm can realize the automatic loading and unloading of goods through the form of handling manipulator and hook-type manipulator, so as to improve efficiency, reduce labor costs, and reduce the risk of man-made damage during loading and unloading.

Packing and loading: The robotic arm can be used for the packaging and loading of food and beverages, such as automatic packaging machines, automatic case packers, etc., thereby improving packaging efficiency and accuracy.

Surgery: Robotic arms can be used to assist in surgery, such as neurosurgery, orthopedic surgery, etc., thereby improving the accuracy and safety of surgery. Rehabilitation: Robotic arms can be used for rehabilitation treatment, such as sports rehabilitation training, muscle rehabilitation, etc., to help patients recover physical functions.

Assembly: The robotic arm can be used to assemble individual parts of the product, thereby improving production efficiency and precision. Welding: The robotic arm can perform automated welding tasks, thereby improving the quality and speed of welding.

Welding and painting: Robotic arms can be used to automate the welding and painting of car bodies. This approach can increase productivity while also reducing workers' exposure to harmful chemicals.