A ferroelectric analyzer is a precision measuring instrument used to study the properties of ferroelectric materials. Ferroelectric materials are a type of material with spontaneous polarization characteristics, exhibiting special hysteresis loops and dielectric responses within a certain temperature range.

1、 The main function of ferroelectric analyzer

1. Study the polarization characteristics of ferroelectric materials

The analyzer can measure the hysteresis loop of ferroelectric materials, which is the curve of polarization strength changing with electric field strength, in order to analyze key parameters such as ferroelectricity, residual polarization, and coercive field of the material.

2. Analyze dielectric properties

By measuring the changes in dielectric constant and loss factor with frequency or temperature, the dielectric response characteristics of ferroelectric materials are studied, and their application performance in energy storage, filtering, and other fields is evaluated.

3. Characterize fatigue characteristics

Under the action of a cyclic electric field, the polarization of ferroelectric materials gradually decays (fatigue effect). The analyzer can evaluate the fatigue life and stability of materials through multiple cyclic tests.

4. Study temperature characteristics

The polarization and dielectric properties of ferroelectric materials are usually temperature sensitive. The analyzer can be combined with a temperature control system to analyze the phase transition temperature (such as Curie temperature Tc) and pyroelectric effect of materials.

5. Support material research and device design

By analyzing the polarization, dielectric, fatigue and other characteristics of ferroelectric materials, experimental evidence is provided for the design and optimization of devices such as ferroelectric memory, capacitors, sensors, actuators, etc.

2、 Core functions of ferroelectric analyzer

1. Measurement of hysteresis loop

Apply a periodic electric field, measure the polarization response of the material, and plot the hysteresis loop.

Key parameters that can be extracted include residual polarization, saturation polarization, coercive field, etc.

2. Dielectric temperature spectrum/spectrum measurement

Measure the variation of dielectric constant and loss factor with temperature or frequency.

Analyze the dielectric relaxation, phase transition, and pyroelectric behavior of materials.

3. Fatigue testing

Test the polarization attenuation of materials under a cyclic electric field and evaluate their fatigue characteristics.

Parameters such as cycle number and electric field amplitude can be set.

4. Leakage current measurement

Measure the leakage current of ferroelectric materials under the action of an electric field, and analyze the insulation performance and conductivity mechanism of the materials.

5. Pulse measurement

Support single pulse or double pulse excitation to measure the dynamic polarization response of materials.

Used to study the transient characteristics and switching behavior of materials.

6. Impedance spectrum analysis (optional)

Partial ferroelectric analyzers can extend their impedance spectroscopy measurement capabilities to analyze the frequency dependent changes in the complex impedance of materials.

7. Integration of temperature control system (optional)

Equipped with high and low temperature control systems, study the ferroelectric and dielectric properties of materials at different temperatures.