Research

E1. HOT SPRINGS IN ACTIVE VOLCANIC REGIONS

We explore microbial life thriving in high-temperature environments linked to volcanic activity. Using advanced optical methods, our goal is to gain new insights into how living systems adapt to such extreme and dynamic conditions.

On glaciers and snowfields, microscopic algae darken the surface, accelerating melting processes linked to climate change. Through new photonic technologies, we will observe their growth and photosynthetic dynamics in situ, gaining unprecedented insights into these fragile ecosystems and their role in the global climate balance.

E2. REMOTE ICY AND SNOWY REGIONS

E2. REMOTE ICY AND SNOWY REGIONS

On glaciers and snowfields, microscopic algae darken the surface, accelerating melting processes linked to climate change. Through new photonic technologies, we will observe their growth and photosynthetic dynamics in situ, gaining unprecedented insights into these fragile ecosystems and their role in the global climate balance.

E3. DEEP LAKE AND SEA BEDS

In the depths of lakes and oceans, magnetotactic bacteria orient themselves along Earth’s magnetic field. We will develop advanced sensors to study their unique navigation and behaviour, opening new perspectives in microbiology, biochemistry, and biomedical applications such as targeted drug delivery.

In remote river systems within tropical forests, early detection of pollutants is crucial to protect biodiversity and human health. We will develop innovative, non-invasive methods to monitor water quality and support rapid, data-driven environmental responses.

E4. REMOTE AND CONTAMINATED NATURAL ENVIRONMENTS

E4. REMOTE AND CONTAMINATED NATURAL ENVIRONMENTS

In remote river systems within tropical forests, early detection of pollutants is crucial to protect biodiversity and human health. We will develop innovative, non-invasive methods to monitor water quality and support rapid, data-driven environmental responses.