How to Specify an SRS Shock Test Profile Correctly
Specifying an SRS shock test profile correctly requires more than sending a maximum g value. Engineers need to define the frequency range, Q value, break frequency, slope, tolerance, effective wave duration, payload, fixture condition, sensor location and acceptance criteria. This guide explains what information to prepare before selecting an SRS shock test system.
Motion Simulators for Defence Equipment Testing
Motion simulators and rate tables help defence engineers test inertial sensors, navigation systems, flight control electronics, stabilized platforms, and motion-sensitive equipment under controlled laboratory conditions. This guide explains what matters most when choosing a motion simulator for defence equipment testing, including axes, payload, accuracy, motion profiles, HWIL integration, environmental conditions, safety, and customization.
Shock Test Systems for Aerospace Components
Choosing a shock test system for aerospace components requires more than checking maximum acceleration. Engineers must compare pulse capability, SRS performance, payload capacity, test direction, fixture compatibility, safety features, and repeatability to ensure the system can reproduce real aerospace shock conditions accurately. This article explains the key features to evaluate and how to select the right shock testing solution for aerospace reliability testing.