Introduction Rewilding, the facilitation of self-sustaining and resilient ecosystems by
restoring natural processes, is an increasingly popular conservation approach and potential …

Environmental DNA (eDNA) is revolutionizing how we investigate biodiversity in aquatic and
terrestrial environments. It is increasingly used for detecting rare and invasive species …

Aim Species presence–absence data can be time‐consuming and logistically difficult to
obtain across large spatial extents. Yet these data are important for ensuring changes in …

The past decade has seen a tremendous increase of genetic sequence data for biodiversity
assessments and research. Third-generation DNA sequencing platforms now enable …

Aim Undersampling and other sources of sampling bias pose significant issues in marine
macroecology, particularly when sha** conservation and management decisions. Yet …

Environmental DNA (eDNA) is a complex mixture of DNA, varying in particle sizes and
distributed heterogeneously in aquatic systems. Optimizing eDNA sampling is crucial for …

Saline and hypersaline wetlands are biodiversity hotspots for metazoans such as aquatic
invertebrates and wading birds. However, the survival of these habitats and their biota is …

The recent advances in both theoretical and modelling approaches (species distribution
models) and molecular techniques (environmental DNA) offer new opportunities to advance …

The rapid advancement of environmental DNA (eDNA) science in the past two decades has
inspired a concomitant growth in the development of eDNA sampling and analytical …

Metabarcoding of environmental DNA (eDNA) is becoming practically applied to fish
monitoring and conservation surveys in estuaries. However, estuarine bays may be an …