Many factors influence how environmental DNA (eDNA) abundance varies in natural environments. One of the least studied contributors to eDNA variation is that of reproduction. Marine organisms that broadcast spawn are expected to shed increased quantities of DNA in association with the release of gametes and the elevated levels of activity associated with reproduction. To test this hypothesis at the community level, we present a year‐long eDNA time‐series of a temperate sea‐shelf fish assemblage combined with adult fish and ichthyoplankton abundance data. Our results show that eDNA is associated with species abundance estimated by conventional fish surveys at all life stages (adult, larval, and egg), and was on average 2.3‐fold more abundant...
As environmental DNA (eDNA) becomes an increasingly valuable resource for marine ecosystem monitorin...
Environmental DNA (eDNA) metabarcoding is a method to detect taxa from environmental samples. It is ...
Coastal marine fish populations are in decline due to overfishing, habitat destruction, climate chan...
Many factors influence how environmental DNA (eDNA) abundance varies in natural environments. One of...
Fish biodiversity can be measured by capturing and then sequencing free DNA present in water. Such e...
Information on species composition and biomass/abundance of exploited species in coastal fisheries ...
Harnessing information encoded in environmental DNA (eDNA) in marine waters has the potential to rev...
Understanding fish diversity patterns is critical for fisheries management amidst overfishing and cl...
Seasonality in eDNA revealed by the Fish assay: (A) Number of Operational Taxonomic Units (OTUs) at ...
Quantifying fish species diversity in rich tropical marine environments remains challenging. Environ...
As environmental DNA (eDNA) becomes an increasingly valuable resource for marine eco-system monitori...
Collecting environmental DNA (eDNA) as a nonlethal sampling approach has been valuable in detecting ...
Marine ecosystems are changing rapidly as the oceans warm and become more acidic. The physical facto...
Long‐term monitoring is critical to measure the response of biodiversity patterns and processes to h...
Environmental DNA (eDNA) metabarcoding has emerged as a potentially powerful tool to assess aquatic ...
As environmental DNA (eDNA) becomes an increasingly valuable resource for marine ecosystem monitorin...
Environmental DNA (eDNA) metabarcoding is a method to detect taxa from environmental samples. It is ...
Coastal marine fish populations are in decline due to overfishing, habitat destruction, climate chan...
Many factors influence how environmental DNA (eDNA) abundance varies in natural environments. One of...
Fish biodiversity can be measured by capturing and then sequencing free DNA present in water. Such e...
Information on species composition and biomass/abundance of exploited species in coastal fisheries ...
Harnessing information encoded in environmental DNA (eDNA) in marine waters has the potential to rev...
Understanding fish diversity patterns is critical for fisheries management amidst overfishing and cl...
Seasonality in eDNA revealed by the Fish assay: (A) Number of Operational Taxonomic Units (OTUs) at ...
Quantifying fish species diversity in rich tropical marine environments remains challenging. Environ...
As environmental DNA (eDNA) becomes an increasingly valuable resource for marine eco-system monitori...
Collecting environmental DNA (eDNA) as a nonlethal sampling approach has been valuable in detecting ...
Marine ecosystems are changing rapidly as the oceans warm and become more acidic. The physical facto...
Long‐term monitoring is critical to measure the response of biodiversity patterns and processes to h...
Environmental DNA (eDNA) metabarcoding has emerged as a potentially powerful tool to assess aquatic ...
As environmental DNA (eDNA) becomes an increasingly valuable resource for marine ecosystem monitorin...
Environmental DNA (eDNA) metabarcoding is a method to detect taxa from environmental samples. It is ...
Coastal marine fish populations are in decline due to overfishing, habitat destruction, climate chan...