Sort   by:  
 Page size 
Marine copepods are central to the productivity and biogeochemistry of marine ecosystems. Nevertheless, the direct and indirect effects of climate change on their metabolic functioning remain poorly understood. Here, we use metabolomics, the unbiased study of multiple low molecular weight organic me...
2015-10-13 | MTBLS91 | MetaboLights
Understanding species' responses to environmental change underpins our abilities to make predictions on future biodiversity under any range of scenarios. In spite of the huge biodiversity in most ecosystems, a model species approach is often taken in environmental studies. To date, we still do not k...
2016-06-23 | MTBLS336 | MetaboLights
Increasing atmospheric CO2 raises sea surface temperatures and results in ocean acidification, which will impact upon calcifying marine organisms, such as the commercially and ecologically important Pacific oyster (Crassostrea gigas). Larval stages of development are particularly sensitive to such s...
ORGANISM(S): Crassostrea gigas (Pacific oyster) (Crassostrea angulata) 
2022-03-01 | PXD002316 | Pride
To understand species response and vulnerability to ocean warming, the underlying biological mechanisms can be examined through the emerging field of ecological proteomics. Proteomics is a powerful tool in identifying and quantifying important proteins. While octopuses are renowned for their intelli...
ORGANISM(S): Octopus Berrima 
Studies have demonstrated that marine phytoplankton can adapt to the warmer environment. However, the underlying mechanisms remain largely unknown. Here, we quantified the capacity of a globally distributed marine diatom Skeletonema dohrnii, for rapid evolution under the moderate (24 ℃) and severe (...
ORGANISM(S): Skeletonema Dohrnii 
Sort   by:  
 Page size