Learning outcomes

The objectives and learning outcomes of the Chem Nano Eng are:

  • assure an interdisciplinary training in the field of nano-engineering, which includes a profound understanding of the chemistry and the methods of synthesis and characterization of nano-materials and nano-systems
  • give the students expertise in numerical modelling to predict the chemical and physical properties at the nano-scale  – train the students to synthesize, caracterise and model objects of the nano-world, in order to understand their properties, using disciplinary knowledge of fundamental sciences and transdisciplinary knowledge of nano-sciences
  • develop a creative experimental approach to prepare, characterise and model nano-objects (nanostructures, nanomaterials or nano-devices) with unknown properties, or resolve problems related to their identification/application/production.
  • prepare the students for a career in the field of nanotechnology, by offering them a robust experience in this multidisciplinary domain of sciences and engineering
  • prepare the students to construct and realize individually or in a team all steps of a research and development project in the domain of nano-sciences et nanotechnologies, mobilising various pluridisciplinary parties.
  • enable the students to conceive, prepare and use nano-objects in various professional contexts, integrating ethical environmental and societal challenges.
  • train highly qualified and creative graduates for the labour market with a big capacity to adapt themselves and to find new solutions for technological development  – educate a new generation of engineers who can participate in the creation of new high-technology companies
  • build the first European master diploma in Chem Nano Eng.

 

The competences of a graduate of the Chem Nano Eng are:

  • thorough knowledge of the principles of nano-chemistry and nano-engineering
  • thorough knowledge of modelling and numerical simulation methods at multi-scale
  • ability to synthesize nano-objects by chemical ways, to characterise and model them, and apply  nano-objects particularly in nano-machines, supramolecular assemblies and in medical nano-devices.
  • capacity to manage and to use nanotechnologies to create new devices
  • capacity to promote and to develop scientific and technological innovation
  • possibility of making a critical analysis of scientific information
  • capacity of technical and economic evaluation of a project of innovation and research
  • aptitude to occupy leading positions in science and engineering
  • ability to integrate in a professional organisation and develop ethics and responsibility – capacity to work effectively in a team project.