Conserving biodiversity in the face of ever-increasing human pressure is hampered by our
lack of basic information on species occurrence, distribution, abundance, habitat …

Environmental DNA (eDNA) applications are transforming the standard of characterizing
aquatic biodiversity via the presence, location and abundance of DNA collected from …

Freshwater environments are susceptible to possible contamination by residual antibiotics
that are released through different sources, such as agricultural runoffs, sewage discharges …

Remote polar and deepwater fish faunas are under pressure from ongoing climate change
and increasing fishing effort. However, these fish communities are difficult to monitor for …

Develo** fast, cost-effective assessments of wild animal abundance is an important goal
for many researchers, and environmental DNA (eDNA) holds much promise for this purpose …

Advances in detection of genetic material from species in aquatic ecosystems, including
environmental DNA (eDNA), have improved species monitoring and management. eDNA …

Accumulation of plastic litter is accelerating worldwide. Rivers are a source of microplastic
(ie, particles< 5 mm) to oceans, but few measurements of microplastic retention in rivers …

Accurate quantification of biodiversity is fundamental to understanding ecosystem function
and for environmental assessment. Molecular methods using environmental DNA (eDNA) …

Environmental (e) DNA, as a general approach in aquatic systems, seeks to connect the
presence of species' genetic material in the water and hence to infer the species' physical …

Traditional environmental biomonitoring approaches have limitations in terms of species
detectability and their capacity to account for spatial and temporal variation. Furthermore, as …