
ARIES DTP
Pollution in a Warming World: Emerging Contaminants and Heatwaves in Estuarine Ecosystems
Investigating how climate change and emerging pollutants interact to affect estuarine ecosystems, using ecotoxicology and molecular approaches.
Plymouth Marine Laboratory (PML) works with a number of University partners to train tomorrow’s leaders in Environmental Science. These collaborations, known as Doctoral Training Partnerships (DTPs), offer postgraduate studentships and training across the full range of multidisciplinary environments, helping to enrich the student experience. Each DTP will create a strong and active community of students that are able – and encouraged – to integrate, work, and learn together. Students will receive in-depth, advanced research training, as well as training in the professional and transferable skills essential in today’s economy.
PML is a multidisciplinary, internationally renowned, strategic marine research centre. We have a number of prestigious and exciting opportunities for outstanding students wishing to conduct PhD projects in our Ocean Challenge Areas: Climate Change, Marine Pollution and Biodiversity Loss.

Investigating how climate change and emerging pollutants interact to affect estuarine ecosystems, using ecotoxicology and molecular approaches.

Exploring whether seagrass meadows can reduce harmful bacterial pathogens in coastal waters, and how these interactions respond to environmental change and pollution.

Using machine learning and high-resolution ocean observations to predict hourly changes in the ocean’s mixed layer depth, which governs ocean-atmosphere exchange and vertical mixing.

Testing whether repeat photography, citizen science and machine learning can reliably detect ecological change on rocky shores, validated against the 25-year MarClim time series.

Investigating how plankton communities shape the composition of sea spray aerosols, and how those compounds affect human lung cells and coastal respiratory health.

Examining how contaminant mixtures, such as plastics and metals, combine with climate stressors to affect zooplankton and the carbon and nutrient cycling they drive.

Extending a kilometre-scale regional prediction system to include phytoplankton ocean-colour feedbacks, and testing whether they improve forecasts of marine heatwaves and storms.