Piezoelectric actuators are widely used in precision positioning applications due to their high resolution and responsiveness. However, their performance is highly sensitive to temperature changes. Temperature variations can lead to nonlinearities and hysteresis effects, impacting the accuracy of positioning systems. Understanding the temperature-dependent behavior of these actuators is crucial for developing effective compensation strategies. Research has shown that increasing the ambient temperature can enhance the voltage-displacement sensitivity of piezoelectric actuators, highlighting the importance of temperature considerations in actuator design and application.