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
Webinar – Crate.io + Gantner Instruments: Real-time energy grid control based on big data
With the increase in renewable energy sources, the challenge for electric grid operators to keep grid frequencies stable has become even more significant. Constant data collection is essential for modern control technology and makes it possible to execute controls more quickly, whereby the use of smart grids can be further optimized.
Read more...Strain Measurements on Flexible Pipeline Systems
NOV in Denmark tests flexible pipeline systems with the Gantner Instruments Q.bloxx modules.
Read more...Gantner Instruments Presents Cryogenic Measurement Solutions for Hydrogen Technology
Hydrogen systems are a steadily growing field encompassing several technologies, such as liquefied hydrogen storage tanks, fuel cells, and cryogenic engines. These require meticulous temperature monitoring to ensure system integrity and performance. Operating in these low-temperature environments presents unique challenges, such as thermal contraction of materials, sensor self-heating, and the non-linearity of cryogenic sensors. Without accurate measurement, performance degradation and potential system failures become risks.
Read more...IPERMON – Innovative Performance Monitoring System for Improved Reliability and Optimized Levelized Cost of Electricity
Currently, a vast amount of research institutions and organizations are focusing on ways to improve the operation, reliability and consequently the output of PV systems. An important aspect yet to be targeted remains the procedural and standardized approach to calculate accurately the factors behind the various performance loss mechanisms, while also detecting and diagnosing potential failures at early stages or before occurrence. Identification of degradation and failure modes at preliminary stages is important as these mechanisms directly influence the performance, lifetime and reliability of PV technology.
Read more...