PhD position: Magnetic manipulation of molecules in living cells
Research
The aim in this project is to develop an innovative biophysical approach based on the use of magnetic nanoparticles (MNPs) that will allow us to exert forces on, and actively manipulate, individual receptor proteins on the surface of living cells using smart external magnetic fields. It is anticipated that active manipulation of these receptor proteins will provide a very powerful tool that will give new insights into biophysical processes in cells. Exploring the physics of this new technology is the primary objective. To demonstrate the power of this biophysical method, it will be applied to address key issues in cell signaling. By controlling the aggregation of membrane-associated receptor molecules, the state of immune system T cells can be actively switched from an ‘inactive’ to an ‘active state’, thereby mimicking a process that is crucial in cell signaling.
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The aim in this project is to develop an innovative biophysical approach based on the use of magnetic nanoparticles (MNPs) that will allow us to exert forces on, and actively manipulate, individual receptor proteins on the surface of living cells using smart external magnetic fields. It is anticipated that active manipulation of these receptor proteins will provide a very powerful tool that will give new insights into biophysical processes in cells. Exploring the physics of this new technology is the primary objective. To demonstrate the power of this biophysical method, it will be applied to address key issues in cell signaling. By controlling the aggregation of membrane-associated receptor molecules, the state of immune system T cells can be actively switched from an ‘inactive’ to an ‘active state’, thereby mimicking a process that is crucial in cell signaling.