CEITEC MUNI helps shape a global standard for intrinsically disordered protein research—flexible molecules crucial for understanding cancer and neurodegenerative diseases.

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.

Scientists at IOCB Prague reveal a previously unknown mechanism that initiates gene transcription. Using cryo-EM, they uncover how alarmone molecules enable RNA synthesis under stress.

Researchers at IOCB Prague have developed new fluorogenic labels that deliver high-contrast fluorescence microscopy, enabling precise visualization of cellular processes without background noise.

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

Explore solvent and pH conditions for Reversed Phase, Normal Phase, and Strong Ion-Exchange SPE. Guidelines cover analyte types, sample matrices, and key steps from conditioning to elution.

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.