Engine testing is done in the same way and for the same duration that will be needed during an actual launch. The idea is to replicate as close as possible how the engine will be used on a space mission. That is why there is a saying in the rocket business: “Test Like You Fly, Fly Like You Test”.
Because of the cost and risk associated with developing and testing an engine, a reliable test setup is vital. Maintaining system consistency and accuracy in a harsh environment is putting stringent requirements on the data acquisition equipment. DAQ systems must be able to record, display and process up to 2000 different parameters, varying from pressures, flow rates, vibrations and temperatures. Real-time sample rates may vary form 10 Hz to several kHz. The Q.series’s accuracy, flexibility and reliability makes it the data acquisition system of choice for world’s leading engine manufacturers and engine testing facilities.

Please read the full article on our measurement solution for rocket engine testing on page 76 in the Aerospace Testing International Showcase 2018.
More articles
Aerospace Test and Industry Development Conference 2024
Join us at the 2024 Aerospace Equipment Digital Intelligence Test and Industry Development Conference for a deep dive into the future of aerospace technology.
Read more...Huge Wind Turbine Blade Tests at BLAEST
The world’s longest rotor blade was manufactured by LM Wind Power in Denmark. Planning the test of the 290 ft (88.4 m) long rotor blade began in 2015. With BLAEST (the Blade Test Centre) Tests are now underway together in Aalborg, Denmark.
Read more...The Aerospace Test and Development Show 2023
Join us from 19-20 September 2023 in Toulouse at The Aerospace Test and Development Show 2023 at booth 332. Register here for Your free exhibition pass.
Read more...Long term Volcano Monitoring – A field study
Monitoring volcano activity is an important issue in the mitigation of natural hazards. Recently, most fatal issues occurred on volcanoes with low-energy and moderate activity, making them attractive touristic places (e.g., the 2014 Mount Ontake eruption in Japan). For these types of volcanoes, monitoring involves multiphysics measurements on dense networks. Distributed networks of sensors must be easily adapted to the volcano’s evolving state and the appearance of new active areas like fumaroles or high heat flux in the soil.
Read more...