Summary
Living cells have adapted different mechanisms to proliferate and maintain their stability. Among those, motions of molecules in cell membranes play an important role. Those motions and movements include phospholipids rotation, its redistribution within a monolayer or exchange within bilayers. We know that these phenomena occur in broad time intervals, i.e., ranging from nanosecond to several minutes. Yet, how ultra-fast femtosecond motions support the cell cycle and control their functions like mechanical stability, membrane transport and signalling to be discovered.
This PhD project aims to unveil membranes dynamics with femtosecond time-resolution and capture images of single molecule of membrane in the act. The methodology will include developing microfluidics for synthesis of asymmetric biomimetic membranes and its applications for serial imaging by in X-ray and free electron laser scattering. The project will shed light onto how complex membranes evolved in stability and functions against more primitive ones.
Living cells have adapted different mechanisms to proliferate and maintain their stability. Among those, motions of molecules in cell membranes play an important role. Those motions and movements include phospholipids rotation, its redistribution within a monolayer or exchnage within bilayers. We know that these phenomena occur in broad time intervals, i.e., ranging from nanosecond to several minutes. Yet, how ultra-fast femtosecond motions support the cell cycle and control their functions like mechanical stability, membrane transport and signalling to be discovered. This PhD project aims to unveil membranes dynamics with femtoseond time-resolution and capture images of single molecule of membrane in the act. The methodology will include developing microfluidics for synthesis of asymmetric biomimetic membraes and its applications forserial imaging by in X-ray and free electron laser scattering. The project will shed light onto how complex membranes evolved in stability and functions against more primitive ones.
