Measurements at -40°C ambient temperature

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.

On April 3–4, 2025, leading developers, manufacturers, and industry professionals will gather at Stiegele Datensysteme GmbH for the Symposium Messtechnik zum Anfassen (Hands-On Measurement Technology Symposium).

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.

As society shifts towards clean, renewable energy, batteries and hydrogen technologies are becoming increasingly crucial. Electrochemical Impedance Spectroscopy (EIS) offers researchers and engineers valuable insights into these technologies' inner workings. In this blog post, we will explore EIS's benefits, its integration with Q.series X, and its application to batteries and hydrogen technologies.