
Piezoelectric actuators (transducers) are high-speed, high-force, and virtually limitless resolution precision ceramic actuators that transform electrical energy directly into linear motion.
Semiconductor tests and inspection to super-resolution microscopy, bio-nanotechnology and astronomy/aerospace technology, these actuators in every modern high-tech industry in manufacturing company piezo actuator.
Monolayer production in its most basic level
● The pressing of shaped bodies using spray-dried granular material is the core process for making piezoceramic components manufacturing company piezo actuator.
● High-capacity presses with up to 1 MN compacting force used to accomplish this.
● The shaped bodies made true-to-size, accounting for sintering contraction or machining excesses reduced to obtain the needed precision.
● It is feasible to create components (discs, plates, tubes, etc.) with a thickness as low as 0.2 mm utilising high-volume inboard diamond sawing equipment.
Distinction between a transducer and an actuator
The terms transducer and actuator interchanged when it comes to piezoelectric devices.
● However, piezoelectric actuators used when motion or force is the primary goal transducers used when sensing or high-frequency applications such as ultrasound, flow, or distance measurement are the primary goal.
● Actuators are rarely at resonance, although transducers are frequently.
● Essentially, both respond to external pressure by accumulating an electric charge, and when an electric field provided, they change shape.
Multilayer Piezo Chips, Cofired Multilayer Piezo Stacks
● PI Ceramic, PI's piezo ceramics branch, manufactures these piezo stacks and chips using multilayer cofiring technology.
● The innovative design includes an all-ceramic outer covering that functions as insulation and increases the actuator's durability.
● In high vacuum applications, the lack of conformal coating is advantageous.
● In sealed versions, an inert gas filling can employ.
● Custom actuator designs include non-magnetic travel ranges, forces, and faster reactions are possible.
● And life sciences because they give high forces and limitless resolution in the sub-nanometer range.