The Doctoral Program in Microsystems and Microelectronics (EDMI) covers a wide range of research topics ranging from MEMS to digital circuit design.
Interdisciplinarity and technology innovation constitute core priorities of our doctoral program.
The Doctoral Program in Microsystems and Microelectronics lies at the intersection of micro/nano electronics, micro/nano systems, and bioengineering. We cover the knowledge chain from novel material systems (silicon, graphene, flexible/stretchable, etc) to new device and/or sensor principles up to their use in innovative system applications, including circuit design for micro/nano-sensor interfacing and advanced power management for ambient intelligence applications.
Products and applications based on microelectronic and microsystem technologies are today driving forces in the world economy affecting nearly every aspect of life: education, entertainment, transportation, personal communications and the basic infrastructure of our economy, medicine, engineering, space exploration and science.
Our PhD students are major users of the Center of micro/nano-technology (CMI), our world-class cleanroom that has a strong MEMS, Nanofabrication, and microfluidic focus. More than 40 EPFL laboratories and research groups are affiliated with the EDMI, all having strong interactions with Swiss and European industry.
EDMI program members focus their activities in three major fields:
Microsystems & Microelectronics
Microelectromechanical systems (MEMS) are devices combining µm-scaled moving parts with integrated sensing and actuation circuits or mechanisms that encompass an enormous range of applications, from inertial sensors, to displays, to RF filters, to programmable nanofluidics. When the physical dimensions are on the nanometer scale, the devices are called NEMS (Nanoelectromechanical systems). Our research covers both novel fabrication techniques as well as development targeted at specific scientific or industrial applications.
With research groups led by faculty with various scientific backgrounds both in basic sciences and microengineering, a focus point of our research is the use of modern microfabrication techniques, like those practiced in the clean room, to build miniaturized functional devices that enable novel applications in the biomedical sciences, with implications for human biology studies, healthcare, diagnostics and therapeutics.
Nanoelectronics generally refers to transistor devices that are so small that inter-atomic interactions and quantum mechanical properties play key roles, and classical models no longer accurately describe the devices. Research in the EDMI affiliated labs focusses on novel devices and their nanofabrication, novel architectures, and packaging aspects. Micro-electronics covers the design of integrated circuits (ICs) for a wide variety of fields, including RF, biomedical, and automotive applications. Research in the EDMI affiliated focuses on novel circuit architectures and packaging aspects in order to minimize power consumption.
Upcoming public defenses
Toward ultra-low power design methodology for frequency generation in the IoT design space
Mathieu Yves Hervé COUSTANS
Place and room: BC 420
Category: Thesis defenses