Factory Show

1. Component preparation: Based on design drawings and requirements, necessary components such as frames, motors, controllers, etc. are produced and undergo quality inspection and debugging to ensure they meet production requirements.
2. Assembly: Components are assembled according to the production process to form a complete two-wheeled electric vehicle. Automated equipment can perform most assembly tasks, such as body assembly, battery installation, motor fixation, etc.
3. Inspection: Automated equipment performs quality inspection on the assembled two-wheeled electric vehicles, including appearance inspection and performance testing. Products with are filtered out to ensure product quality.
4. Packaging: Two-wheeled electric vehicles that have undergone painting are packaged for transportation and sale. Packaging process needs to protect products and ensure they are not damaged during transportation.
5. Delivery of quality goods: After quality inspection and packaging, two-wheeled electric vehicles are loaded onto transportation vehicles and sent to sales markets.
Through the above automatic production process, production efficiency can be significantly improved, production costs can be reduced, product quality can be improved, and manual intervention can be reduced to reduce production risks and error rates.

1. Part preparation: Produce the required vehicle frame components such as body sheet metal and connectors based on design drawings and requirements. These parts undergo quality inspections and cutting processes to ensure they meet production requirements.
2. Assembling: Assemble individual parts into a complete vehicle frame framework according to the production process. Automated equipment can complete this step, precisely attaching each part according to a pre-set program.
3. Welding: Vehicle frames require welding for stability and safety. Automated welding equipment can complete this step using laser welding, arc welding, etc., increasing production efficiency and product quality.
4. Inspection: Automated equipment performs quality inspections on welded vehicle frames including, strength testing, etc. Unsatisfactory frames are removed to ensure product quality.
5. Electroplating or spray coating: Vehicle frames require electroplating or spray coating to increase appearance aesthetics and rust resistance. Automated spray coating equipment can complete this step, increasing production efficiency and product quality.

1. Preparation stage: First, the plastic parts to be painted are prepared and placed in the painting equipment. The painting equipment needs to be cleaned and debugged prior to use to ensure a clean and tidy environment.
2. Preheating: After placing the plastic parts in the painting equipment, they need to be preheated to reach the desired temperature. Automated equipment follows pre-set temperature and time settings to ensure easy drying of the paint on the plastic surface.
3. Coating: Automated spraying equipment is used to apply the paint, which can be either clear or base coat, onto the plastic parts. The equipment follows pre-set programming and parameters to ensure even coverage of the paint on the surface of the plastic.
4. Drying: The painted plastic parts then enter the drying stage in the painting equipment. Automated equipment follows pre-set temperature and time settings to ensure complete drying of the paint on the surface of the plastic. During the drying process, the equipment continuously monitors the temperature and humidity of the paint to ensure a safe and stable drying process.
5. Inspection: After drying, the plastic parts undergo quality inspection, including appearance inspection and coating thickness. Automated inspection equipment can complete this step, and any parts that do not meet quality standards are removed.
6. Cooling: The painted plastic parts need to cool for a period of time to ensure they do not warp or damage due to high temperatures.
7. Packaging: The painted and cooled plastic parts are then packaged for transportation and sale.
Automated painting processes can improve production efficiency, reduce production costs, improve product quality and safety, and reduce manual intervention, thereby reducing production risks and error rates. It is important to note that automated painting equipment needs to be adjusted and optimized based on actual conditions to ensure optimal production efficiency and product quality. Additionally, attention must be paid to ensuring the quality and safety of the paint, while ensuring that it does not adversely affect the environment or human health. For different types and specifications of plastic parts, specific adjustments and optimizations may be required to ensure satisfactory painting results.

1. Raw material preparation: Prepare the required raw materials for cables, such as conductors, insulation materials, etc., based on production needs.
2. Processing and forming: Use automated equipment to process the raw materials into the specific shape and size of cables.
3. Insulation treatment: Perform insulation treatment on the conductors of the cables, such as extrusion insulation, coating, etc.
4. Covering processing: Perform covering processing on the cables based on requirements, such as extrusion covering, wrapping, etc.
5. Terminal crimping: For cables that need to be connected to external devices, perform terminal crimping to connect the cables to the external devices.
6. Bundling and packaging: Bundle the produced cables according to certain specifications and requirements, and package them appropriately for transportation and storage.
7. Quality inspection: Perform quality inspection on the produced cables, including外观 inspection and performance inspection, to ensure that product quality meets requirements.
8. Automated transportation: Use automated equipment to transport the produced cables to the next process or the finished goods warehouse.
Through this process, automated production of cables can be achieved, which improves production efficiency, reduces costs, improves product quality and safety, and requires continuous optimization and improvement of automated production equipment and technology to adapt to market demand and continuously increasing production requirements.