High-temperature charge accelerometers
Turbine housings, engine blocks, exhaust structures and hot vibration fixtures.
High-temperature charge. Subminiature shear. Three-axis vibration. DC shock. Select the sensing principle and configure the entire measurement chain.
Define the environment first. Each family has a distinct output, mounting and conditioning review.
Turbine housings, engine blocks, exhaust structures and hot vibration fixtures.
Thin blades, circuit boards, miniature motors, lightweight structures and modal tests.
Satellite vibration qualification, environmental shakers, chassis development and multi-axis structural tests.
Crash-test instrumentation, long-duration acceleration and laboratory high-G shock programs.
Remote conditioning of high-temperature charge sensors and laboratory vibration measurement chains.
A piezoelectric accelerometer measures changing acceleration. Its charge decays through the measurement chain, so it cannot sustain a true static reading.
A piezoresistive bridge can retain DC response. Excitation, zero offset, thermal drift and shock bandwidth still need a separate review.
Read the sensing technology guide →Send the original model and your test conditions. Request a configuration review, CAD and calibration requirements together.
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