Vegetated blue carbon environments have the potential to sequester large amounts of
carbon due to their high productivity and typically saturated, anaerobic soils that promote …

Imbalanced datasets are one of the main challenges in digital soil map**. For these
datasets, machine learning techniques commonly overestimate the majority classes and …

The process of classification helps us organize knowledge and it helps us to better
appreciate relationships and connections. Classification also facilitates communication, and …

Acid sulfate soils (ASS) containing hypersulfidic material (pH> 4) can, when drained,
transform to ASS with a thionic horizon (pH< 4), which can cause environmental effects due …

Acid sulfate soils (ASS) cause big problems worldwide due to their potential to form sulfuric
acid during oxidation of sulfidic materials, resulting in very acid soil (pH 4.0). Impacts include …

Fine‐grained hypermonosulfidic sediments are widespread on the coastal plains of the
northern Baltic Sea that when drained, cause the formation and dispersion of acid and toxic …

Acid sulfate soils are found globally and have significant environmental impact as a source
for metals and acidity to surrounding streams that can cause, for example, large‐scale fish …

Peatlands occur globally, and peat's microbial biodiversity is dominated by nutrient cycling.
Peat soils derive acidity through carbon cycling, and the role of sulfur‐utilising bacteria is …

Acid sulfate soils (ASS) are commonly found in many coastal areas worldwide and typically
develop from artificial draining of sulfidic sediments, which release acidity and metals …

Acid sulfate soil map** is the first step to avoid possible environmental damages created
by one of the most problematic soils existing in nature. One of the problems in acid-sulfate …