Les stages

Biophysique

Dichroïsme circulaire sur synchrotron SRCD (pour accéder à une gamme d’UV lointains), Diffusion des rayonnements X et neutrons (diffraction et diffusion aux petits angles), Spectroscopie de fluorescence ou de microscopie moléculaire (TEM/AFM), Microcalorimétrie, Modélisation moléculaire

Sciences et technologies des matériaux

Atomic Force Microscopy

Chimie-physique

Dynamic light scattering, cryo transmission electron microscopy

CHIMIE

electronic transport

CHIMIE

Physique des matériaux

Quantum mechanics; Density Functional Theory; Tight-binding models; Non-equilibrium Green's functions

Physique moléculaire

During the course, the candidate will be trained in methods calculating excited states as well as to use quantum chemistry softwares: Turbomole (CC2 and ADC(2) methods) and NEWTON-X (Non-adiabatic dynamics).

Physique de la matière condensée

Techniques de salle blanche, technique de dépôt par MBE, mesures magnétiques. Préparation d'échantillons biologiques

Physique de la matière condensée

magnetic force microscopy; high frequency techniques

Chimie-physique

Lasers Femtoseconde, technique pompe/sonde, jet moléculaire, Génération d'Harmoniques

Physique des matériaux

The candidate will address the UHV techniques associated with the growth by molecular beam epitaxy. The techniques that will be used are Reflexion High Energy Electron Diffraction (RHEED), Auger Electron Spectroscopy (AES), Photoemission core level spectroscopy (XPS), Piezo Force Microscopy (PFM), Low Energy Electron microscopy (LEEM) and eventually X-ray diffraction on the DIFFABS beamline of synchrotron SOLEIL.

Biophysique

Cell culture Small angle x-ray scattering Flow cytometry Signal analysis Statistical physics Polymer physics

Physique des matériaux

CVD, AFM, MEB, XPS, lithographie optique et électronique, mesures électriques

Physique des matériaux

The candidate will address the UHV techniques associated with the growth by molecular beam epitaxy and a first approach of studies conducted on large instruments. The techniques that will be used are Reflexion High Energy Electron Diffraction (RHEED), Auger Electron Spectroscopy (AES), Photoemission core level spectroscopy (XPS), Piezo Force Microscopy (PFM), Low Energy Electron microscopy (LEEM), X-ray diffraction on the DIFFABS beamline and eventually X-ray absorption spectroscopy (XAS) and X-PEEM spectro-microscopy on the DEIMOS and HERMES beamlines of synchrotron SOLEIL.

CHIMIE

Matériaux ferromagnétiques Microscope à sonde locale Capteurs magnétiques

Physique des matériaux

Methods, techniques used during the internship : Electron spin resonance (ESR) and phototoluminescence.

Chimie-physique

Circular dichroism, Fluorescence spectroscopy, Calorimetry, Dynamic Light Scattering, X-ray and Neutron Scattering

Physique de la matière condensée

Density Functional Theory (DFT), Green Keldysh formalism for non-equilibrium transport, tight-binding model

Physique de la matière condensée

Chimie des matériaux

Chemical grafting, optical and atomic force microscopy, IR and XPS spectroscopy, thermogravimetric analysis

Physique de la matière condensée

Transfert de graphène par voie humide Evaporation sous vide Microscope à effet tunnel Spectroscopie résolue en angle

Chimie organique

RMN, spectrometrie de masse, microscopie électronique (MEB, TEM), microscopie à force atomique (AFM).

Chimie des solutions

Chimie colloïdale et sol-gel. Microscopies électroniques MEB et TEM. Spectroscopie d'extinction en solution.

Mesures physiques

Ptychography, coherent diffractive imaging, phase retrieval algorithm

Physique de la matière condensée

Optical microscopy Photoemission electron microscopy Low energy electron diffraction

Chimie des matériaux

Electron paramagnetic resonance Crystal synthesis Irradiation at SIRIUS facility

Physique de la matière condensée

Dépôts par ablation laser Microfabrication Mesures de transport et de bruit.

Chimie des matériaux

Méthodes d’élaboration et caractérisation de matériaux : fours, presses, DRX, BET, microscope... Mesures de propriétés électrochimiques

Chimie des matériaux

X-ray scattering in laboratory or synchrotron, luminescence spectroscopy - classical (steady-state) or with pulsed sources, microfluidics

PHYSIQUE

Discrete element modeling, statistical analysis, numerical simulations, methods of experimental mechanics (PhD), additive printing (PhD)

Chimie-physique

Chimie des solutions, spectroscopie d'absorption, fluorescence Environnement Linux ou Windows virtual machine (VMware) Langage C++

CHIMIE

Polymer synthesis, organic chemistry, SEC, UV and FTIR spectroscopies, TGA, light scattering, etc...

Physique de la matière condensée

synchrotron techniques: - STXM - Scanning Transmission X-ray Microscopy - XAS - X-ray Absorption Spectroscopy laboratory techniques: SEM - Scanning Electron Microscopy, XRD - X-ray Diffraction XPS - X-ray Photoemission Spectroscopy ACG - Aqueous Chemical Growth photocurrent measurements

Physique de la matière condensée

MBE, Spectroscopy, photoelectrolysis

CHIMIE

numerical simulations, ions beam measurements

Physique statistique

CHIMIE

During the course, the candidate will be trained to use several softwares dedicated to : - calculation of molecular structures, at the force field (AMBER, TINKER) and quantum chemistry (TURBOMOLE) levels, - calculation of the frequencies of the vibration modes of the molecules (Turbomole). - visualization of structures (Discovery Studio) and of intramolecular interactions (NCI-plot)

Physique moléculaire

Molecular spectroscopy Laser Mass spectrometry

Chimie-physique

Laser Spectroscopy - Mass spectrometry - Laser Desorption - Molecular Beams - Quantum Chemistry - Polarizable Force Field

Physique de la matière condensée

femtosecond laser, thin film depositions by evaporation and Pulsed Laser Deposition.

CHIMIE

Electrochemistry, NMR

CHIMIE

Polymer chemistry, FTIR, size-exclusion chromatography, contact angle, microscopy, profilometry, XPS

CHIMIE

Pyrolyse laser

Matériaux composites

AFM, diffusion de rayons X/lumière aux petits angles, microscopie électronique à transmission..

Chimie organique

Synthèse organique, RMN, spectrométrie de masse.

Physique de la matière condensée

Ultra-low noise DC and RF electrical measurements microwave design - Clean-room fabrication of nanostructured semiconducting circuits - Cryogenics

Génie logiciel

Master 2 ingénierie informatique, bonne connaissance du langage C et bonnes bases en mathématiques, connaissance de Python.

Physique des liquides

Particle Image Velocimetry Wavelets

Physique de la matière condensée

CHIMIE

UV visible absorption spectroscopy Fluorescence spectroscopy

Physique théorique, mécanique quantique

Methods and techniques: This experimental internship will be co-supervised by two permanent researchers who are experts in the field, together with a PhD student working on the subject. It will provide a solid introduction to superconducting quantum technologies and the physics of defects in solids, including defects optical characterization, quantum circuit design and nanofabrication as well as microwave measurement at cryogenic temperatures (10 mK).