Investigate the energy metabolism and physiology of methane-producing archaea adapted to alkaline environments. The four-year doctoral project contributes to research on the conditions supporting life's emergence.
Closes
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In Biology and Microbiology
Investigate the energy metabolism and physiology of methane-producing archaea adapted to alkaline environments. The four-year doctoral project contributes to research on the conditions supporting life's emergence.
Closes
Archaea have evolved to survive in some of the most extreme environments on earth. Life in extreme, nutrient-poor conditions gives the opportunity to probe fundamental energy limitations on movement and response to stimuli, two essential markers of living systems. Here we use three-dimensional holographic microscopy and computer simulations to show that halophilic archaea achieve chemotaxis with power requirements one hundred-fold lower than common eubacterial model systems. Their swimming direction is stabilised by their flagella (archaella), enhancing directional persistence in a manner simi
Wed, Aug 19, 2020 · 15:00 UTC