Learn how internal standards improve accuracy and precision in ICP-OES by correcting drift, matrix effects, and sample introduction variability for more reliable analytical results.

Practical tips to optimize Qtegra software workflows for ICP-OES and ICP-MS users. Learn how Dashboard, Get Ready, and smart LabBook design improve efficiency and data confidence.

Cheap fashion jewelry may contain alarming cadmium levels. Discover how ICP-OES and ICP-MS help detect toxic metals and ensure EU compliance.

Speciation analysis with ICP-MS reveals selenium compounds in foods like mushrooms, aiding nutrition research and highlighting risks of deficiency.

Choosing the right software for targeted MS quantitation boosts accuracy, compliance, scalability, and remote access—empowering labs to streamline workflows and protect data integrity.

Accurate measurement of trace elements in biological samples like blood or urine is vital for clinical diagnostics, nutrition, and toxicology, playing a key role in understanding health and disease.

From regulations to analytics: discover how inline methods, rheology, and extrusion improve R&D with recycled plastics for faster, more efficient, and sustainable material development.

How to overcome the seemingly unbridgeable gap between superior interference removal and high productivity in a busy laboratory using the Thermo Fisher iCAP ICP-MS.

“Garbage in, garbage out” applies to mass spectrometry too—poor input leads to poor results, especially in collision reaction cells where input quality directly affects data accuracy.

This blog explores the role of lithium and other elements in battery tech, how they’re quantified, and what future alternatives may shape the next generation of energy storage.