[2] The university is part of the Grandes Écoles, a prestigious group of French institutions dedicated to engineering, scientific research, and business education.
It excels in the research fields of acoustics, biosciences and nanotechnology, and is continuously ranked in the top five Grandes Écoles for the quality of its engineering graduate programs.
[3] The school is well-reputed for educating and training highly skilled engineers through many specialized graduate programs with a strong emphasis on laboratory instruction.
Students graduate with a degree known as the diplôme d'ingénieur, which is an academic title protected by the French government and equivalent to a Master of Science, or with a PhD upon completion of their doctoral studies.
The École centrale de Lyon has strong ties with top institutions in Europe including Imperial College London and Darmstadt University of Technology.
The university is one of the founding members of the Ecoles Centrales Group network (with campuses in Paris, Nantes, Lille, Marseille, and Beijing).
Ampère was born in 2007: Contractualised with CNRS and three establishments in Lyon (ECL, INSA, UCBL), Ampere has over 160 employees.
The Lyon Institute of Nanotechnology (INL) is a fundamental and applied research laboratory in the field of micro- and nano-technology.
Its mission is to conduct research towards the development of fully-fledged technologies for a broad range of application sectors (semiconductors and micro-electronics, telecoms, energy, health, biology, industrial control, defence, environment).
Research is organised around four main topics (organized in departments): Functional Materials, Electronics, Photonics & Photovoltaics and Biotechnology and Health.
The activity of the laboratory is organized around four research groups: Centre for Acoustics, Fluid complex and Transfers Turbomachinery, Turbulence and Stability.
The research focuses on the physics and modeling of turbulence, hydrodynamic instabilities, two-phase flows, environmental fluid mechanics, aerodynamics internal thermal phenomena coupled aeroacoustics, acoustic propagation, methods of solving Navier–Stokes equations, the active or passive control of flow, microfluidics.
This research lead to numerous collaborations with industry players and institutional areas of transport, environment and energy.
The goal is to provide developers with the tools of analysis and modeling to optimize their products or processes and reduce the energy and environmental impact.