Microelectronics: At the Heart of Invisible Technologies

Sensors, components, semiconductors: the research that makes cutting-edge electronics possible, from connected devices to critical systems.
At the University ofUniversité Grenoble Alpes s (UGA), electronics is at the heart of a scientific, industrial, and societal ambition: to design electronics that are more sustainable, more energy-efficient, and more self-reliant. Located in one of the world’s leading hubs for micro- and nanoelectronics, the UGA draws on a unique ecosystem that brings together national research organizations and industrial partners to address the major challenges of technological sovereignty, energy transition, and innovation.

Against a backdrop of geopolitical tensions, dependence on supply chains, and the accelerating digital and energy transitions, the electronics industry has become a strategic sector. Semiconductors, sensors, embedded systems, and connected devices: these technologies now underpin all industrial sectors, from transportation to healthcare, including energy and critical infrastructure.

In light of these challenges, the UGA is developing a comprehensive approach that aims to strengthen technological sovereignty, while incorporating the requirements of energy efficiency, by reduction of the environmental footprint and system sustainability. Electronics is viewed as a driver of transformation, supporting the energy transition, reindustrialization, and innovation.

Research and Innovation: Interdisciplinary, Open, and High-Impact Electronics

UGA draws on an internationally recognized ecosystem of research excellence and a strong capacity to foster dialogue among disciplines and stakeholders. Electronics at UGA is inherently interdisciplinary, constantly interacting with computer science, artificial intelligence, energy, and materials. This convergence enables the design of increasingly integrated, intelligent, and high-performance systems.

The research covers a broad and complementary spectrum: advanced micro- and nanoelectronics, power components for the electrification of end-use applications, low-power integrated circuits, innovative architectures, new materials, smart sensors, and embedded electronics for critical systems. This research aims to address specific challenges: improving the energy efficiency of systems, developing smart grids, enhancing the reliability of industrial systems, and supporting the transition to more responsible digital technologies.

This ecosystem is built on close collaborations with major national research organizations (CEA, CNRS, Inria) and on the presence of world-class technology platforms, which enable a rapid transition from basic research to experimentation and innovation. The Grenoble Alpes region thus offers a unique environment for testing, prototyping, and validating solutions under conditions that closely resemble real-world scenarios.

In the strategic field of power electronics, the UGA leads the CDP PowerAlps, a landmark project aimed at bringing together academic and industrial stakeholders around this key technology for the energy transition. PowerAlps positions power electronics as a central driver of the decarbonization of the electricity sector and the optimization of energy systems.

This site’s dynamic is part of a strategy of open innovation and technology transfer. Electronics (and digital technology) is one of the key sectors identified by the Grenoble Alpes University Innovation Hub. At UGA, the university encourages collaboration with businesses, the development of joint projects, the commercialization of scientific findings, and the creation of startups. The goal is clear: to transform academic excellence into concrete solutions, industrial innovations, and socioeconomic impact.

A training program that rises to the challenge

To keep pace with the rapid changes in the sector, the UGA offers a comprehensive and cohesive educational program that is closely linked to research and industry. From bachelor’s degrees to doctoral degrees, including engineering degrees, the programs are designed to meet the growing demand for skills in the fields of electronics, digital technology, and energy.

This momentum is reinforced by transformative initiatives such as the projects Fame (training and the appeal of careers in electronics) and Inforism (design of innovative and strategic training programs in microelectronics), Winners of the Call for Expressions of Interest: Skills and Careers of the Future.

The Fame project aims to enhance the appeal of careers in microelectronics, to adapt educational content in line with technological advancements (semiconductors, power electronics, embedded systems), and to develop innovative training programs.

As a complement to the Fame project, the Inforism project aims to strengthen skills in computer science, artificial intelligence, and embedded systems, directly aligned with the needs of modern electronics. Iinforism thus helps train professionals capable of designing secure, high-performance embedded systems at the intersection of hardware and software, and of keeping pace with the rapid changes in fields related to digital transformation.
Published on October 17, 2025
Updated on April 16, 2026