Since Fukushima accident, dozens of field studies have been conducted in order to quantify
and understand the behaviour of atmospheric radiocesium (137 Cs) fallouts in contaminated …

We investigated the changes in 137 Cs exchangeable fraction in the soils of contaminated
forest ecosystems until 6 years after the Fukushima radioactive atmospheric deposits. For …

Radioiodine is of health concerns in case of nuclear events. Possible pathways and rates of
flow are essential information for risk assessment. Forest ecosystems could influence the …

Sorption hypotheses and models are required for the prediction of 137 Cs migration in soils
contaminated after nuclear reactor accidents and nuclear weapons tests. In assessment …

Abstract 137 Cs is one of the most persistent radioactive contaminants in soil after a nuclear
accident. It can be taken up by plants and enter the human food chain generating a potential …

In the long-term after atmospheric deposit onto a forest ecosystem, Cs-137 becomes
incorporated into the biogeochemical cycle of stable elements and progressively reaches a …

Well understanding the solid/solution partitioning of a contaminant is of first importance to
determine its residence time in the environment, environmental availability, or bioavailability …

The effects of a 50% forest thinning intensity on Fukushima-derived 137 Cs deposition by
litterfall and its discharge by runoff in hillslope coniferous forest were monitored using four …

The 2011 nuclear accident at Japan's Fukushima Daiichi Nuclear Power Plant (FDNPP)
prompted inquiries about the long-term transfer of Cesium-137 (137 Cs) from soil to …

Radiocesium (137 Cs) derived from the accident of Fukushima Dai-ichi Nuclear Power Plant
remains in forests. Although a large proportion of the 137 Cs in forests has been transferred …