Yunnan Intelligent Vibration Aging Instrument, Internal Stress Relief Equipment

Vibration aging equipment manufacturer

The development trend and intelligent upgrade of vibration aging instrument

With the advancement of industry4.0With the arrival of the times, vibration aging instruments are undergoing profound technological changes. Intelligence, automation, and informatization have become the main directions for the development of vibration aging equipment. This article will analyze the development trend of vibration aging instruments and explore the technological innovations brought about by intelligent upgrades.

The intelligent upgrade of the vibration aging instrument is first reflected in the innovation of the control system. The new generation of VSR adopts an intelligent control system based on industrial Internet, which can realize remote monitoring and management of equipment. Through IoT technology, operators can view the real-time operation status, processing parameters, and timeliness of devices from anywhere through their mobile phones or computers. The system also has self diagnostic function, which can automatically identify faults and provide repair suggestions, greatly improving the reliability and maintenance efficiency of the equipment.

In terms of data processing and analysis, modern vibration aging machines are equipped with * data acquisition and analysis systems. The device can collect real-time vibration signals, stress changes, and other data, and establish a mathematical model between the workpiece and process parameters through big data analysis technology. Based on machine learning algorithms, the system can automatically optimize process parameters based on historical data, achieving personalized and precise time processing. This intelligent parameter optimization not only improves processing efficiency, but also reduces reliance on operator experience.

The development of vibration aging instruments is also reflected in functional integration. The new equipment not only performs vibration aging treatment, but also integrates multiple functions such as stress detection, deformation measurement, and quality evaluation. A complete quality control system has been formed through linkage with other testing equipment. For example, automatic stress detection is performed before and after processing to evaluate the timeliness effect in real time, ensuring that each workpiece meets the predetermined quality standards.

In terms of hardware, vibration aging instruments are developing towards miniaturization and lightweighting. The new exciter adopts rare earth permanent magnet materials and precision manufacturing technology, greatly reducing its volume and weight, while significantly improving the excitation force and frequency range. This enables vibration aging technology to be applied in more situations, especially in environments with limited space.

Looking ahead to the future, vibration aging instruments will be more closely integrated into intelligent manufacturing systems through collaboration withMESTheERPIntegrate the management system to achieve full process digital management of the production process. The application of artificial intelligence technology will enable vibration aging machines to have stronger autonomous decision-making capabilities, truly achieving unmanned automated production. These technological innovations will drive the application of vibration aging technology to new heights in the manufacturing industry.

During the processes of welding, casting, forging, and mechanical processing, residual stresses are generated inside the components, which greatly affect the dimensional stability, stiffness, strength, fatigue life, and mechanical processing performance of the components, and even lead to cracks and stress corrosion. Stress relief is to reduce residual stress and stabilize the accuracy of component dimensions.

Vibration aging refers to the resonance of the workpiece under the periodic external force applied by the exciter, the relaxation of residual stress, and the achievement of dimensional accuracy stability. That is, under the action of machinery, the component undergoes local plastic deformation, thereby releasing residual stress and achieving the goal of reducing and adjusting residual stress. Therefore, vibration aging often aims to reduce stress (mainly the peak residual stress) and redistribute it.

The advantages of vibration aging technology in practical applications:

The reason why vibration aging technology can partially replace thermal aging in practical applications is inseparable from some excellent features of this technology. For example, low investment, short production cycle, easy use, strong adaptability, energy saving, cost reduction, high mechanization, simple operation, avoiding defects such as warping deformation, oxidation, decarburization, and hardness reduction of metal parts during thermal aging process.