PhD-thesis call: High speed atomic force microscopy (HS-AFM) of membrane proteins

Motion is intrinsic in life. Life moves at all its scales from full organisms several meters long to the smallest nanometer sized proteins, membranes or DNA. Life combines all its molecules in a complex choreography which provides a vast variety of functions from a limited number of individual players (as the ‘human genome project’ has put forward).

Despite the importance of motion at the smallest scales of biology, the study of motion has been absent from molecular biology studies because the biologists in order to gain resolution have been forced to extract and immobilize the biological molecules from their natural environment.

Over the recent years a new technique, the atomic force microscope (AFM), has come into play in the structural biology field, this technique enables high resolution imaging under functional biological conditions in physiological buffer and in room temperature, furthermore the extraordinary signal-to-noise ration of the AFM allows the direct observation of the disposition of supramolecular assemblies of membrane proteins in native prokaryotic and eukaryotic membranes with a lateral resolution of ~10Å and a vertical resolution of ~1Å. Consequently the AFM has a
great potential for studying the dynamics of supramolecular assemblies. The only limiting factor has been the slow imaging rate of AFM of several minutes per frame; far too slow for observing the dynamics of molecular biology.

Now a new generation of AFM, the High Speed AFM (HS-AFM) has been developed capable of imaging speeds of few milliseconds per frame. The HS-AFM will finally open the door of the studies of the dynamics of molecular and supramolecular biology and to provide the direct assessment of structure/function relationships.

Our team based at the ‘Institut Curie’ with a high expertise in the field of high-resolution AFM imaging of membrane proteins is now looking for motivated PhD students candidates which want contribute to our HS-AFM projects. Candidates with physics, nano-science and bio-physics background would fit best the profile.

Granting for the candidate will be furnished by the programme C'Nano IdF

The ‘Institute Curie’ is an internationally renowned research institute in the heart of Paris. For further information please see:

Views: 115

Tags: TINC-Job, monitor


You need to be a member of The International NanoScience Community to add comments!

Join The International NanoScience Community

Welcome - about us

Welcome! Nanopaprika was cooked up by Hungarian chemistry PhD student in 2007. The main idea was to create something more personal than the other nano networks already on the Internet. Community is open to everyone from post-doctorial researchers and professors to students everywhere.

There is only one important assumption: you have to be interested in nano!

Nanopaprika is always looking for new partners, if you have any idea, contact me at

Dr. András Paszternák, founder of Nanopaprika

Publications by A. Paszternák:

Smartphone-Based Extension of the Curcumin/Cellophane pH Sensing Method

Pd/Ni Synergestic Activity for Hydrogen Oxidation Reaction in Alkaline Conditions

The potential use of cellophane test strips for the quick determination of food colours

pH and CO2 Sensing by Curcumin-Coloured Cellophane Test Strip

Polymeric Honeycombs Decorated by Nickel Nanoparticles

Directed Deposition of Nickel Nanoparticles Using Self-Assembled Organic Template,

Organometallic deposition of ultrasmooth nanoscale Ni film,

Zigzag-shaped nickel nanowires via organometallic template-free route

Surface analytical characterization of passive iron surface modified by alkyl-phosphonic acid layers

Atomic Force Microscopy Studies of Alkyl-Phosphonate SAMs on Mica

Amorphous iron formation due to low energy heavy ion implantation in evaporated 57Fe thin films

Surface modification of passive iron by alkylphosphonic acid layers

Formation and structure of alkylphosphonic acid layers on passive iron

Structure of the nonionic surfactant triethoxy monooctylether C8E3 adsorbed at the free water surface, as seen from surface tension measurements and Monte Carlo simulations

Next partner events of TINC

We are Media Partner of: