How conductive is your energy material—really?
Even tiny impurities or thermal instability can derail performance in batteries and hydrogen storage systems. That’s where mass spectrometry comes in. Read more
The DLS Series: Three Instruments for Fusion Research
Fusion energy is one of the most ambitious scientific frontiers, with the potential to provide an abundant, sustainable, safe, and environmentally considerate energy source. Unlike nuclear fission, fusion produces minimal greenhouse gas emissions and radioactive waste. However, achieving sustained fusion requires strict control over fuel source purity and stability, making quantitative high resolution mass separation of isotopes an essential analysis…
Gas Analysis in Electrochemistry: Then & Now
From Faraday’s groundbreaking discoveries to today’s cutting-edge mass spectrometry, gas analysis has been a driving force in electrochemical research. In our latest blog, we explore the evolution of gas analysis, its impact on fuel cells, environmental monitoring, and modern energy solutions, and where the future is headed with AI-driven insights. Read more
Gas Analysers for Fuel Cell Research
Electrochemical fuel cells are a transformative innovation in sustainable energy, offering the potential to replace combustion engines with cleaner, more efficient systems. Among the various fuels explored for these systems, hydrogen (H₂) has become the focus of research. This is thanks to its high energy density and environmental benefits. But while hydrogen fuel cells promise zero emissions and high energy…
What Is Quadrupole Mass Spectrometry?
Quadrupole mass spectrometry is a fundamental technique in the field of mass spectroscopy, originating from the pioneering work of Wolfgang Paul and Helmut Steinwedel in the 1950s. Today, quadrupole MS is renowned for its rapid scanning capabilities, high sensitivity, and ability to provide quantitative and qualitative analyses. It uses electric and magnetic fields within a mass…
How is Mass Spectrometry Used in Nuclear Fusion Reactions?
Mass spectrometry plays a crucial role in nuclear fusion research, offering indispensable capabilities for monitoring, analysis, and diagnostics. This versatile tool is integral to various aspects of fusion research—from ensuring the purity of fusion fuels to monitoring vacuum conditions and providing detailed analysis of isotopes and surface compositions. In this article, we’ll explore the essential applications…
How are Mass Spectrometers Used in Gas Analysis?
Mass spectrometry (MS) is ever-present in gas analysis. It is a go-to solution for precisely identifying and quantifying gas components. MS works by ionizing gas molecules and separating the resultant charged particles by their mass-to-charge ratios (m/z) in an electric or magnetic field. This allows for the detection of even trace substances with outstanding sensitivity and specificity. Mass spectrometry’s ability…
Advancing Hydrogen Diffusivity Measurement with ITDS in Hiden’s TDSLab-6 Series
Accurate measurement of hydrogen diffusivity is vital for understanding and mitigating hydrogen embrittlement in materials. The TDSLab-6 system from Hiden Analytical, featuring Isothermal Desorption Mass Spectroscopy (ITDS), offers a reliable and precise method for this purpose. This system, formerly known as the TPD Workstation, is part of the TDSLab series and provides significant advantages over traditional…
Hiden Analytical DEMS Conference at Pennsylvania State University
Watch the recordings from our inaugural Hiden Analytical Conference on Differential Electrochemical Mass Spectrometry (DEMS) held October 15th, 2024, at Penn State University.
The Rising Demand for Efficient Solar Solutions
As the global community shifts towards renewable energy sources, solar voltaics have emerged as a key player in the sustainable energy landscape. This transition has sparked a growing need for advancements in solar panel technology, focusing on increasing efficiency and extending lifespan. Central to these advancements is the role of Secondary Ion Mass Spectrometry (SIMS) in pushing the boundaries of photovoltaic layer…