Mechanical and thermal disruption of electrochemical processes in modern batteries and capacitors: Analysis of impacts on occupational safety and health

Number:
931602
RILSA Principal investigator:
Mechanical and thermal disruption of electrochemical processes in modern batteries and capacitors: Analysis of impacts on occupational safety and health
RILSA Co-investigator:
Mechanical and thermal disruption of electrochemical processes in modern batteries and capacitors: Analysis of impacts on occupational safety and health, Mechanical and thermal disruption of electrochemical processes in modern batteries and capacitors: Analysis of impacts on occupational safety and health, Mechanical and thermal disruption of electrochemical processes in modern batteries and capacitors: Analysis of impacts on occupational safety and health, Mechanical and thermal disruption of electrochemical processes in modern batteries and capacitors: Analysis of impacts on occupational safety and health, Mechanical and thermal disruption of electrochemical processes in modern batteries and capacitors: Analysis of impacts on occupational safety and health
Grant provider:
MPSV
Recipient:
RILSA
Project start:
2025
Project end:
2028
Description:

What are the mechanisms and consequences of mechanical and thermal disruption of electrochemical processes in batteries and capacitors, and how do these changes affect workplace safety?
What preventive and protective measures can be proposed to minimize these risks in the workplace?

The main objective of the project is to comprehensively investigate and quantify the consequences of mechanical and thermal disruption of electrochemical processes in batteries and capacitors, with a particular focus on their chemical stability, potential release of toxic substances, and related risks to occupational safety and health.

 
 



 
Outputs
 
NANOCON 2025. 17th International Conference on Nanomaterials – Research & Applications. 15 – 17 October 2025

Poster Method for comparing catalyst reactivity and efficiency by measuring changes in the illumination intensity of H2 bubbles during water electrolysis. Jaroslav Hölzel, Karel Klouda, Jiří Tilhon