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Despite the substantial research conducted on bacterial cell inactivation, it continues to be treated as a "black box" phenomenon where it is not entirely clear what is going on at the bacterial cell scale (i.e., the micrometre scale). Incomplete understanding of this phenomenon at the fundamental level slows down the progress and optimisation of the related technology for applied purposes. 

In cooperation with the Biotechnical Faculty, researchers at the Faculty of Mechanical Engineering, led by Prof. Matevž Dular, studied the impact of a single cavitation microbubble on individual bacterial cells as part of the ERC research project CABUM, which has received funding from the EU Horizon 2000 programme. The researchers developed a system for generating single micrometre-size cavitation bubbles, which also uses optical tweezers and a high-speed camera for visualisation. The system made it possible to monitor the dynamics of microbubble collapse near the wall and in the proximity of bacterial cells. Fluorescence microscopy was used to identify the damaged cells. Based on experimental and numerical results, the researchers were able to define the peak hydrodynamic force required for the detachment or death of a single E. coli bacterial cell. 

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