News : Solid state physics, surfaces and interfaces

October 11 2019

Determining Electron Wave Functions and Object Potentials in Transmission Electron Microscopy: application to stacks of 2D materials

Up to now transmission electron microscopy (TEM) was more focused on producing images or diffraction patterns of objects. Of course, some pioneering techniques like holography or focal series or ptychography have tried to reconstruct the electron waves functions at the exit surface of the observed objects, but their results and applications were quite limited or, […] >>

October 11 2019

Growth of high-quality graphene crystals on liquid metal

Graphene is one of the most promising 2D materials, finding application in multiple branches of the modern chemical, electronic, and material industry. Thanks to its unique electronic, mechanical, and thermal properties, it is considered as a material of future for new electronic and biodevices, super-strong materials, and energy storage. Despite rapid progress in the field […] >>

October 11 2019

2D semiconductor materials grown on graphene/metal/SiC

Quantum materials (QMats) are prime candidates for next-generation energy-efficient technologies, such as topological quantum computing, quantum sensing, and neuromorphic computing. In particular van der Waals 2D materials exhibit a compellingly wide range of exotic and potentially useful properties such as charge density waves, topological insulator edges, etc… More generally, van der Waals epitaxy is a […] >>

October 11 2019

Valley physics in Silicon

We are looking for a motivated candidate for a Phd project preceded by a master’s training on valley physics in silicon. The discovery of the ‘field effect’ was awarded the Nobel prize in Physics in 1956 [1] and has allowed the development of information technologies which have revolutionized our lives with computers and smart phones. […] >>

October 11 2019

Design and modeling of two-dimensionnal arrays of silicon qubits

“Quantum computers” may soon be able to solve problems beyond the reach of conventional computers. Such computers no longer manipulate electrons as particles, but as waves that maintain phase relationships and can interfere. The preparation, coherent manipulation and “reading” of quantum states is extremely challenging. One promising option for making quantum bits (qubits) is to […] >>
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