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    PE Accelerometer Sensor, 150g, 1500m/s2

    SKU: SUCH-AS-C0015
    $532.65
    ● Measuring range: 150g, 1500m/s2 (peak) ● Axial sensitivity: 500pC/g (20±5°C) ● Capacitance: ~2000pF ● Maximum lateral sensitivity: ≤5%
    🚚 Free shipping
    🕒 Delivery date: 6-12 days
    🔁 30-day Returns
    Overview

    The PE accelerometer features high sensitivity of 500 pC/g and a wide frequency response range of 0.3 to 3000 Hz. The sensor has a range of up to 150 g (1500 m/s² peak) and an L5 side-exit wiring method, equipped with a 2-meter double-ended cable for easy installation. This PE accelerometer is compatible with the  portable dynamic signal analyzer and is suitable for dynamic vibration testing environments.

    Feature

    PE accelerometer sensor feature

    • The accelerometer uses general-purpose, low-frequency vibration measurement with a wide frequency response range.
    • It features a passive, piezoelectric effect internally, offering excellent dynamic characteristics and strong interference resistance.
    • Accelerometer sensor has a wide range of applications, with axial sensitivity up to 500 pC/g.

    Dimension (unit: mm)

    PE accelerometer sensor dimension

    System Structure

    PE accelerometer sensor system

    Note: Since the output signal of a charge-type accelerometer is a charge quantity, a charge amplifier is required between the sensor and the data acquisition unit to convert the charge quantity into a voltage quantity. For example, a dynamic signal analyzer can directly interface with the charge signal and has an internal charge amplifier, so a separate charge amplifier is not needed.

    Temp Curve/ Typical Frequency Response Curve

    PE accelerometer sensor temp curve
    Typical frequency response curve
    Specs
    Axial Sensitivity 500pC/g (20±5°C)
    Measuring Range 150g (1500m/s2 peak)
    Matched Dynamic Signal Analyzer SUCH-AS-SA1801B
    Maximum Lateral Sensitivity ≤5%
    Frequency Response 0.3 to 3,000 Hz (See frequency response curve) 10%
    Mounting Resonance Frequency 10000 Hz
    Output Method Side L5
    Temperature Response See temperature curve
    Polarity Positive (Acceleration direction from bottom to sensor)
    Insulation Resistance >109Ω
    Capacitance ~2000pF
    Operating Temperature Range -40°C~+150°C
    Transient Temperature 3mg/°C (0.3Hz)
    Magnetic Sensitivity 1g/T
    Base Strain 0.2mg/με
    Weight 50g
    Case Material Stainless steel
    Mounting M5
    Sensitive Material Piezoelectric ceramic
    Structural Design Planar shear
    Accessories Transducer certificate of conformity (calibration parameters, frequency response curve)
    M5, M5/M8 bolts, protective caps
    2m double-ended L5 STYV-1
    Application
    Bridge vibration monitoring

    Bridge Vibration Monitoring

    Piezo accelerometer sensor of wind power industry

    Wind Turbine Vibration Monitoring

    Railway track vibration monitoring

    Railway Track Vibration Monitoring

    FAQ
    ❯

    PE (charge output) accelerometers typically require a charge amplifier or a dynamic signal analyzer with charge input functionality. These sensors do not have an internal excitation power source, and their output is a high-impedance charge signal. This signal must be converted into a standard voltage signal using a matching amplifier before data acquisition and spectral analysis can be performed.

    ❯

    PE accelerometers are particularly suitable for high-temperature, high-frequency, or high-dynamic-range vibration testing, such as modal analysis of aerospace components, engine combustion vibration measurement, and material impact testing. They have strong anti-interference capabilities and can provide stable signal output in harsh industrial environments.

    ❯

    PE accelerometer sensors have pure charge output and require an external charge amplifier, making them suitable for complex or high-temperature environments. IEPE accelerometer sensors, on the other hand, have built-in charge amplifiers, making them convenient to use and requiring only a constant current source for excitation. The former is suitable for more demanding testing requirements, while the latter is suitable for portable or rapid deployment applications.

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