Despite its well-established negative impacts on society and biodiversity, eutrophication
continues to be one of the most pervasive anthropogenic influences along the freshwater to …

Bioturbation is recognized as a deterministic process that sustains the physicochemical
properties of the freshwater ecosystem. Irrigation, ventilation, and particle reworking …

Biological processes tend to dominate the oxygen regime of productive waters. However, in
shallow aquatic ecosystems, it is unclear whether the oxygen regime is driven by oxygen …

Aquaculture systems receive intensive carbon (C) and nitrogen (N) loadings, and are
therefore recognized as major anthropogenic sources of methane (CH 4) and nitrous oxide …

Aquaculture systems are of increasing concern as an important source of atmospheric
methane (CH 4) and nitrous oxide (N 2 O). However, the role of animals in regulating CH 4 …

While providing protein for a fast-growing human population, the ongoing boom in global
aquaculture comes with environmental costs. Particularly, the intense greenhouse gas …

Eutrophication of fresh waters results in increased CO2 uptake by primary production, but at
the same time increased emissions of CH4 to the atmosphere. Given the contrasting effects …

Freshwater ecosystems are an important source of the greenhouse gas methane (CH 4),
and their emissions are expected to increase due to eutrophication. Two commonly applied …

Wetlands support unique biodiversity and play a key role in carbon cycles, but have
dramatically declined in extent worldwide. Restoration is imperative yet often challenging to …

Although its role in the functioning of aquatic systems is widely recognized, the contribution
of freshwater metazooplankton (metazoan plankton) to ecosystem services (ES) is seldom …