10 articles on stainless-steel risks, NEN 9200 regulations, safe alternatives and a real-world case study. For operators, installers and contractors.
Learn from historical RVS incidents in Dutch swimming pools, such as collapsing ceilings due to SCC. Discover the causes and how to ensure safety in accordance with the NEN 9200.
Discover how to detect stress corrosion in swimming pool structures at an early stage. Learn about effective inspection methods to prevent dangerous cracking in RVS and comply with NEN 9200.
How a municipal swimming pool went from 'insufficient' to fully NEN 9200 compliant in 6 weeks — including ROI calculation.
Ceiling structures, waterslide suspensions, and canopies: an explanation of modern safe design including redundant safety cables.
If A2/A4 RVS is no longer sufficient, what is? We compare super-austenitic 1.4529, coated steel, and other options on cost, lifespan, and safety.
Not all RVS needs to be removed immediately. We show you how to prioritize based on risk: which bolts absolutely must go, which can stay, and which require extra inspection.
The 2012 Building Decree (and its successor, the Bbl) places responsibility on the owner/manager. Here you will find the relevant articles for swimming pool fasteners.
Which triggers obligate you to conduct a formal inspection of RVS fasteners? And what timeframes apply under NEN 9200?
The short answer: not generally. However, under NEN 9200:2025 and the Building Decree, strict requirements apply, which means that traditional RVS often no longer suffices in practice.
Chloride is the silent killer of stainless steel. We show why A4-RVS, which lasts indefinitely in industry, can fail in a swimming pool within 5 years.
Stress corrosion cracking is the main cause of sudden failure of RVS fasteners in chlorinated atmospheres. We explain the mechanism step by step.
RVS appears safe and durable, but in chlorine environments, even A4 or 316L can fail silently. An overview of the risks for pool managers.
