AT-2040 Portable Vibration Calibrator

Gen-2 Smart Shaker with Real-Time Sensitivity Display

Lab-grade accuracy in the field. Four operating modes, built-in sensitivity display, data logging, and long-life LiFePO4 battery — all in one rugged portable unit.

Four operating modes — one complete verification workflow

Each mode supports a specific step in sensor testing, system validation, and reliability training.

select_mode_screenshot

Vibration Output

Manual Verification

Manual control of frequency and amplitude with live feedback on sensitivity, bias voltage, and waveform distortion.

Bearing Defect

Diagnostics & Training
Bearing Fault Simulator

Generate realistic inner race, outer race, and ball pass faults for technician training and diagnostic system validation.

Sensor Test

Automated Sensitivity Testing
Vibration Sensor Automatic Testing

Automated multi-point testing with real-time sensitivity display and onboard data logging.

Sensor Simulation

System Validation

Simulate accelerometer, velocity, and proximity probe signals to validate monitoring systems without applying physical vibration.

Together, these modes allow technicians to verify sensors, validate systems, and build confidence in vibration data — from initial setup through advanced diagnostics.

Vibration Output

Vibration Output mode is used for manual vibration testing with real-time measurement of actual shaker output. Rather than assuming vibration levels based on drive settings, the AT-2040 continuously measures true mechanical motion using its internal reference sensor.

In this mode, the user manually sets vibration frequency and amplitude while the system provides live feedback on measured vibration level, sensor sensitivity, displacement, harmonic distortion, and amplifier load. This closed-loop approach allows users to confidently verify sensor performance and system response under real mechanical excitation.

Vibration Output mode is particularly useful for manual verification, troubleshooting, and exploratory testing, where direct control and immediate feedback are required before transitioning to automated test routines.

Supported sensors.

What this mode enables

Screen Reference

Ref Control Description
A
Target Vibration
Sets the vibration amplitude.
B
Peak/RMS Toggle
Switches the vibration measurement between Peak and RMS modes
C
Rate
Sets the vibration frequency or RPM
D
Hz / RPM Toggle
Switches the rate display between frequency (Hz) and speed (RPM).
E
Live Vibration
Displays the actual vibration output of the shaker
F
Sensitivity
Shows the measured sensitivity of the connected sensor.
G
Output Status
Displays bias or gap voltage, mass load, amplifier output level, and total harmonic distortion in real time.
H
Channel
Selects the active sensor input channel.
I
Units
Selects vibration units for live vibration and sensitivity display.
J
Start/Stop
Starts or stops the vibration output test.

Bearing Fault Simulation & Verification

The AT-2040 Gen 2 includes an integrated bearing fault pulse generator that produces realistic, repeatable bearing defect waveforms for condition monitoring system validation, alarm testing, and technician training.

Fault simulation capabilities

When to use this mode

This mode is used when validating bearing fault detection logic, alarm thresholds, and analysis techniques, rather than overall vibration level accuracy.

Bearing Fault Simulator
Example of bearing fault pulse generation on AT-2040 Gen 2 Platform

Why This Matters

Condition monitoring systems detect bearing faults by identifying impulsive events and their repetition rates. The AT-2040 Gen 2 bearing fault simulator produces realistic impulse waveforms with natural decay, allowing validation of alarm thresholds, envelope detection, and system behavior without the need for a physically damaged bearing.

Bearing Fault Waveform Behavior

The oscilloscope captures shown below illustrate the waveform characteristics produced by the AT-2040 Gen 2 bearing fault simulation.

Each bearing defect is represented by a sharp impulse followed by a brief, decaying oscillation. The initial spike corresponds to a rolling element contacting a localized defect, while the decay reflects mechanical resonance excited by that impact. This impulsive behavior reflects how real bearing faults generate vibration energy and differs from steady-state sinusoidal signals.
Over a longer time scale, impulses repeat at a consistent interval as rolling elements pass the same defect. The spacing between impulses corresponds to the bearing fault frequency, producing a stable and repeatable fault pattern that condition monitoring systems respond to as they would with an actual damaged bearing.

Automatic Sensor & Proximity Probe Testing

Fully automated vibration and proximity verification — no manual setup, no spreadsheets, no PC software.

The AT-2040 automatically controls frequency and amplitude, measures sensor response in real time, and calculates sensitivity across defined test points — all directly on the instrument.

The Sensor Test mode automates vibration sensor calibration by controlling output levels, measuring response, and calculating sensitivity across defined test points.

This mode reduces setup time and eliminates manual calculations, providing consistent, repeatable results suitable for both field verification and laboratory use.

Automatic Accelerometer sensitivity test

Not limited to accelerometers

The same automatic test framework also supports proximity probe dynamic testing, including controlled amplitude sweeps and sensitivity verification — using the same on-device workflow with no external software.

Proximity Probe automatic amplitude test

Learn more about automatic proximity probe testing →

In addition to automated testing, the AT-2040 also includes built-in simulation capabilities.

 
Accelerometer simulation mode

Built-in Sensor & Signal Simulation

Simulate accelerometers, proximity probes, and vibration signals without external hardware.

Optional Accessories

Portable Vibration Calibrator

Proximity Probe Adapter Kit

  • Proximity Probe Driver Power Sourced Directly from AT2040 Battery
  • Both AC and DC voltages shown on screen.
mems-adapter

MEMS Adapter

  • Analog MEMS adapter for sensitivity readings of Piezoresistive and Variable Capacitance sensors of all major manufacturers.
  • 1x and 10 signal conditioners included.
  • Power Sourced Directly from AT2040 Battery
  • This simple and effective design supports single and double ended sensors.

Specifications

Feature Details

Calibration Standard

A2LA Accredited ISO/IEC 17025:2017, NIST Traceable

Frequency Range

Vibration: 5 Hz – 10 kHz Simulation: 1 Hz – 11 kHz

Operating Modes

Vibration Output, Bearing Defect, Sensor Test, Sensor Simulation

Display

Real-time Sensitivity, Live Vibration, Bias/Gap Voltage, Distortion

Battery

12V 6Ah LiFePO4 ~5000 cycles

Power

Built-in smart charger, 100-240V

Supported Sensors

IEPE, Charge, Voltage, Velocity, Proximity Probes, 4-20 mA, MEMS

Data Output

Onboard logging + PDF certificate generation, CSV export

Connectivity

Wi-Fi (remote VNC control)

Type

Portable Vibration Calibrator / Shaker table / Accelerometer and Proximity Probe Signal Generator / Bearing Fault Simulator

Frequency Range

Vibration Signal: 5-10k Hz
Simulation Signal: 1 – 11k Hz

Vibration Signal

Variable frequency and amplitude

Test Types

Manual sensitivity, Sensor simulation, Automatic sweep, and Certification.

Supported Sensor Input Types

Accelerometer:
Voltage
IEPE
Charge
Velocity
Coil
Piezoresistive (MEMS Adapter Required)
Variable Capacitance (MEMS Adapter Required) 
4-20mA transmitters
Proximity probes (Direct input for AC and DC readings) (Axial / Radial)

Sensor Simulation Output

Voltage (variable frequency and amplitude)

Charge signal (variable frequency and amplitude)

4-20ma (adjustable)
Proximity probes (adjustable)

Power Output

2 to 24 volt programable voltage output to power sensors

-24 volt power to power proximity probe drivers

+24 volt power for 4-20ma sensors and transmitter type drivers

Certifications and Agency Requirements

A2LA Accredited Calibration
ISO/IEC 17025:2017
R205
NIST Traceable
LVD: EN61010-1: 2010
EMC: EN61326-1 
CE Mark: Product Specific Standard
RoHS

Request pricing and availability.


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