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Mastering Vibration Measurement
Explore in-depth guides on accelerometers, vibration ranges, and frequency analysis to better understand, measure, and control vibrations in demanding environments.
How to Avoid Complaints from Residents About Vibrations During Demolition
Why Vibrations Trigger Complaints in Urban Demolition Demolition in dense urban areas is never neutral for the surrounding community. Beyond noise and dust, vibrations often generate the strongest reactions. Even when levels remain below regulatory thresholds,...
How to Prove Structural Safety When Working Close to Existing Infrastructure
Construction projects near existing buildings, tunnels, or transport infrastructure always come with a challenge: how to guarantee that your activities do not endanger nearby structures. Whether it’s excavation, piling, or demolition, vibrations and ground movements...
What Is a MEMS Accelerometer and How Does It Work?
In many industrial and scientific applications, accurate vibration and motion measurement is essential. Whether monitoring a bridge’s structural integrity, a wind turbine’s foundation, or a precision machine tool, engineers rely on accelerometers to measure...
What is the bandwidth of a sensor (Hz)?
The bandwidth of a sensor defines the frequency range over which it can accurately measure and reproduce a signal. Expressed in hertz (Hz), it tells how fast the sensor can respond to dynamic changes. A low-bandwidth sensor captures slow or static variations, while a...
What Is the Output of an Accelerometer Sensor?
An accelerometer sensor converts vibration into an electrical signal. The output type determines how this signal is transmitted and how well it resists noise or signal loss. Micromega Dynamics’ Recovib® MEMS accelerometers support the main industrial formats — 4–20 mA...
How to Monitor Tall or Slender Structures Against Wind and Vibrations
Tall and slender structures such as towers, chimneys, wind turbines or high-rise buildings are exposed to wind loads and dynamic vibrations. Monitoring these effects is essential to ensure stability, extend the lifetime of the structure and comply with safety...
MEMS vs Piezoelectric Accelerometers: Which One to Choose?
Accelerometers are at the heart of vibration monitoring. They allow engineers to detect abnormal oscillations, analyze machine performance, or monitor the structural health of sensitive buildings. But not all accelerometers rely on the same principle. The two most...
How to Monitor Vibrations on a Construction Site Near Sensitive Buildings
When a construction project takes place next to a hospital, a historic monument, a museum or residential buildings, vibrations are no longer a detail. Even moderate levels can cause cracks, weaken structures or spark complaints from local communities. That is why...
How to Reduce Downtime Caused by Machine Vibrations
Unexpected downtime is one of the most costly problems in industry. A large part of it is linked to vibrations: imbalance in rotating parts, misalignment of shafts, bearing degradation, or resonance in structures. Each of these phenomena generates vibration signatures...
What Is the Vibration Range of a sensor(g)?
In vibration analysis, the symbol g refers to the acceleration due to gravity, equal to 9.81 m/s². Expressing vibration levels in g makes it easier to compare and quantify oscillations in machines or structures. The vibration range defines the interval of acceleration...









