XPS is a key surface analysis technique, yet studies suggest up to 60% of published spectra may be misinterpreted. Learn why these errors occur and how better training can improve scientific reliability.

Scientists from CEITEC BUT and CMI are developing AI-powered high-speed AFM microscopy that could accelerate measurements of live cells and semiconductor chips up to fivefold.

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

At CEITEC, researchers are developing LightEM, a light-based electron microscope enabling adaptive beam modulation, higher resolution, and real-time observation of dynamic processes.

On 28 February, we mark the 100th anniversary of Josef Dadok, a pioneer of NMR spectroscopy and Brno University of Technology graduate who shaped modern magnetic resonance.

The TERAFIT project is developing next-generation magnetic materials—antiferromagnets and altermagnets—that could replace silicon chips and enable faster, energy-efficient IT technologies.

A major upgrade of the TITAN electron microscope at CEITEC delivers atomic-scale resolution and advanced spectroscopy, placing the facility among the world’s leading research laboratories.

Researchers from CEITEC BUT used high-resolution micro-CT to create 3D models of mouse embryos, revealing how Dlx5/6 genes shape the development of the vocal tract and auditory system in mammals.

Scientists at CEITEC BUT developed a breakthrough Mie BLS method enabling optical measurement of ultra-short spin waves, overcoming a long-standing limit and opening the way to low-power magnonic chips.

A CEITEC BUT research idea evolved into 4Slurries—a team developing custom photo-curable ceramic suspensions for precise 3D printing. Their unique know-how now attracts academia and industry alike.