We are interested in how anthropogenic stressors alter aquatic environments. How do stressors, such as heatwaves, species invasions, and habitat loss interact to affect individuals, communities and entire ecosystems?
Nature is under increasing threat from anthropogenic activity – human population growth and economic development impose increasing pressure on the planet’s ecosystems. The planet is warming, extreme weather events are becoming more frequent and, at the same time, habitats are being destroyed and polluted.
These stressors rarely occur in isolation, so the traditional focus on single stressors will inevitably miss key information on their interactive, and often counterintuitive, impacts. We aim to derive generalities in how aquatic ecosystems respond to multiple stressors by focusing on both multiple levels of organisation (from genes to ecosystems) and multiple scales (from laboratory experiments to field studies).
If you are interested in joining the lab, please get in touch. Prospective PhD students interested in aquatic ecology and global change biology are encouraged to apply through Oxford’s Doctoral Training Programme here. Please contact Michelle to discuss projects (email@example.com). Postdoc, Technician, and Research Assistant posts will be advertised on the People section of this website. We also can support fellowship applications (NERC, Marie-Curie etc) to join the lab.
I joined Oxford from Imperial College London in 2019. I am broadly interested in the effects that humans have on aquatic ecosystems. In particular, I am interested in how multiple stressors interact, and the implications for trophic interactions.
I joined the Jackson Lab after studying at the University of Buenos Aires, Argentina and building up experience in Germany. My main area of interest relies on community-to-ecosystem level responses to environmental change in aquatic ecosystems. I’m particularly interested in using genomic tools for biomonitoring environmental change.
I have a broad interest in aquatic ecology, being particularly fascinated by the effects of stressors on planktonic communities. I have worked on several projects, mainly performing ecological, chemical and physiological analysis to investigate the effects of predation, pollution and other environmental factors on plankton.
I study how anthropogenic stressors impact the diversity, stability and functioning of ecosystems. A lot of my research focuses on the interactions between stressors (antagonism or synergism), but I am also interested in ecological networks, community dynamics and contemporary evolution
I joined the Jackson Lab after completing a BSc at Queen Mary, University of London. My DPhil explores multiple stressor effects on global marine intertidal and benthic communities, using a combination of passive in situ and experimental methods. I am also interested in ecological policy and evidence-led litigation in aquatic and terrestrial systems.
I joined the Jackson Lab from Queen Mary University of London where the majority of my research was based around stable isotope analysis of aquatic-terrestrial ecosystem linkage. Other research topics include paleolimnology and invasive species.
We use indoor aquaria and outdoor ‘mesocosm’ ponds to manipulate stress conditions and quantify how communities respond.
One major project – “Cumulative impacts of multiple stressors: improving temporal and biological realism” – has recently been funded by NERC (2020-2023). We are interested in how the sequence of stressor events alters their cumulative effects on river food webs. This project is in collaboration with Jocelyne Hughes, Paul Whitehead, and Rob Salguero-Gómez, all at the University of Oxford.
We also work with Guy Woodward and Emma Ransome at Imperial College London on a large scale mesocosm warming experiment (pictured). Read more about our current projects here.
Our field research spans from pole to pole. To complement our experiments (which have high control but lack realism) we measure gene to ecosystem responses across natural and anthropogenic stress gradients. For instance, we use natural geothermal temperature gradients in Antarctica to quantify how intertidal and lake communities respond to warming (pictured). In South Africa, we have a project which is investigating how stream food webs vary across land use gradients. Read more about our current projects here.