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Piezoelectric ceramic series products have the following core advantages:

High-precision displacement control: Through multi-layer stacking technology, the displacement resolution can reach nanoscale, which can achieve high-precision displacement output, such as in the semiconductor lithography machine can meet the requirements of the workpiece stage nanoscale positioning accuracy.
High energy density: The output force per unit volume is large, up to 500N or more, which is 10 times that of an electromagnetic motor. It can generate a larger driving force in a smaller volume and is suitable for precision driving scenarios with limited space.
Fast response: With millisecond response speed, it can quickly respond to electrical signals, realize fast action and precise control, and meet the needs of high-speed precision control.
Zero hysteresis characteristics: the repeated positioning error is less than 0.1% under closed-loop control, with good repeatability and stability, can provide accurate and reliable displacement output, and is suitable for applications requiring high-precision repeated positioning.
Strong environmental adaptability: It can maintain stable performance in harsh environments such as vacuum, strong magnetic field, and extreme temperature, making it an irreplaceable role in special environmental fields such as aerospace and deep-sea exploration.

The development trend of piezoelectric ceramic series products is as follows:

Performance improvement and material innovation: Develop new piezoelectric ceramic materials with higher piezoelectric coefficient, higher Curie temperature, lower dielectric loss and other properties, such as PMN-PT piezoelectric ceramics, bismuth-based high-temperature piezoelectric ceramics, etc., to meet the demand for high-temperature, high-performance piezoelectric materials in high-end fields such as aerospace and nuclear power generation. At the same time, piezoelectric ceramics are combined with other materials, such as flexible substrates, graphene, etc., to develop composite materials with unique properties and expand their applications in wearable devices, biomedicine and other fields.
Intelligent and integrated: integrate embedded sensors and AI algorithms to realize self-sensing and adaptive intelligent drive system, so that the piezoelectric ceramic driver can automatically adjust the working state according to changes in the environment and tasks, and improve the intelligent level and performance of the system. The combination of piezoelectric ceramics and micro-electromechanical systems (MEMS) technology can realize the miniaturization and integration of devices, which can be applied to micro sensors, actuators and other fields to meet the needs of miniaturization and high-performance devices such as the Internet of Things and smart wearable devices. Demand.
Application field expansion: in the field of new energy, it is used in piezoelectric energy recovery system to convert mechanical energy in the environment into electrical energy to realize energy recovery and utilization, such as vibration energy collection, wave energy power generation and other applications; in the biomedical field, in addition to the existing ultrasonic imaging, surgical instruments and other applications, it will also play a greater role in tissue engineering, cell manipulation, drug delivery and other emerging fields; with the development of automobile electrification and intelligence, the application of piezoelectric ceramics in automobile automatic driving system, intelligent sensor, energy recovery system and so on will continue to increase.
Green environmental protection and sustainable development: in the production process, the use of more environmentally friendly raw materials and production technology, reduce energy consumption and waste emissions, reduce the impact on the environment. At the same time, with the increasingly stringent environmental regulations, the development of recyclable, degradable piezoelectric ceramic materials or products to achieve sustainable development.
Manufacturing process improvement: advanced manufacturing technologies such as 3D printing and additive manufacturing will be more widely used in piezoelectric ceramic manufacturing, which can realize the rapid manufacturing of complex structures, improve production efficiency, reduce costs, and provide the possibility of personalized customization and innovative design of piezoelectric ceramics. In addition, the use of intelligent manufacturing technology, such as the Internet of Things, big data analysis, to achieve real-time monitoring and intelligent management of the production process, improve product quality and consistency.