Sponges pump water to filter feed and for diffusive oxygen uptake. In doing so, trace DNA fragments from a multitude of organisms living around them are trapped in their tissues. Here we show that the environmental DNA retrieved from archived marine sponge specimens can reconstruct the fish communities at the place of sampling and discriminate North Atlantic assemblages according to biogeographic region (from Western Greenland to Svalbard), depth habitat (80–1600 m), and even the level of protection in place. Given the cost associated with ocean biodiversity surveys, we argue that targeted and opportunistic sponge samples – as well as the specimens already stored in museums and other research collections – represent an invaluable trove of b...
Environmental DNA (eDNA) metabarcoding is a method to detect taxa from environmental samples. It is ...
Aquatic environmental DNA (eDNA) surveys are transforming how marine ecosystems are monitored. The t...
Effective marine management requires comprehensive data on the status of marine biodiversity. Howeve...
Sponges pump water to filter feed and for diffusive oxygen uptake. In doing so, trace DNA fragments ...
The deep-sea is vast, remote, and largely underexplored. However, methodological advances in environ...
The deep-sea is vast, remote, and largely underexplored. However, methodological advances in environ...
At a time of unprecedented impacts on marine biodiversity, scientists are rapidly becoming persuaded...
Large and hyperdiverse marine ecosystems pose significant challenges to biodiversity monitoring. Whi...
Sponges have recently been proposed as ideal candidates to act as natural samplers for environmental...
Remote polar and deepwater fish faunas are under pressure from ongoing climate change and increasing...
Meta data of sampling location, time and depth of eDNA samples used in the study: "Deep-sea sponge d...
Although we are currently experiencing worldwide biodiversity loss, local species richness does not ...
DNA metabarcoding is an efficient method for measuring biodiversity, but the process of initiating l...
Marine ecosystems are changing rapidly as the oceans warm and become more acidic. The physical facto...
Environmental DNA (eDNA) metabarcoding is a method to detect taxa from environmental samples. It is ...
Aquatic environmental DNA (eDNA) surveys are transforming how marine ecosystems are monitored. The t...
Effective marine management requires comprehensive data on the status of marine biodiversity. Howeve...
Sponges pump water to filter feed and for diffusive oxygen uptake. In doing so, trace DNA fragments ...
The deep-sea is vast, remote, and largely underexplored. However, methodological advances in environ...
The deep-sea is vast, remote, and largely underexplored. However, methodological advances in environ...
At a time of unprecedented impacts on marine biodiversity, scientists are rapidly becoming persuaded...
Large and hyperdiverse marine ecosystems pose significant challenges to biodiversity monitoring. Whi...
Sponges have recently been proposed as ideal candidates to act as natural samplers for environmental...
Remote polar and deepwater fish faunas are under pressure from ongoing climate change and increasing...
Meta data of sampling location, time and depth of eDNA samples used in the study: "Deep-sea sponge d...
Although we are currently experiencing worldwide biodiversity loss, local species richness does not ...
DNA metabarcoding is an efficient method for measuring biodiversity, but the process of initiating l...
Marine ecosystems are changing rapidly as the oceans warm and become more acidic. The physical facto...
Environmental DNA (eDNA) metabarcoding is a method to detect taxa from environmental samples. It is ...
Aquatic environmental DNA (eDNA) surveys are transforming how marine ecosystems are monitored. The t...
Effective marine management requires comprehensive data on the status of marine biodiversity. Howeve...