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Administrative data

Jean-Michel Sallese

jean-michel.sallese@epfl.ch http://edlab.epfl.ch/

Nationality: Italian-Swiss

EPFL STI GR-SCI-IEL
ELB 234 (Bâtiment ELB)
Station 11
1015 Lausanne

Expertise

- Modeling of field effect transistors (Multigate FETs, Junctionless FET, HEMT, Field Effect-based Biosensors).
- Modeling substrate parasitic currents in integrated circuits.
- Simulation of radiation induced soft errors in integrated circuits
- High energy particle solid-state sensors.

Mission

The mission of the Electron Device Modeling and Technology group is to develop analytical and numerical models (physics based) of emerging semiconductor devices, with particular emphasis on field effect transistor architectures.
see https://edlab.epfl.ch/

Current work

- Development of Junctionless field effect biosensors.
- EPFL- HEMT model development.
- Modeling very high frequency operation in field effect devices.
see https://edlab.epfl.ch/page-102724-en-html/

EDLAB Web site

see edlab.epfl.ch for details

Publications (first 50)

Research

More publications on EDLAB web page

http://edlab.epfl.ch/page-97504-en.html

Current Research Activities

- Development of Junctionless field effect biosensors.
- EPFL- HEMT model development.
- Modeling very high frequency operation in field effect devices.
see https://edlab.epfl.ch/page-102724-en-html/

Teaching & PhD

PhD Students

Marta Macaluso, Pranav Vivek Kulkarni

Past EPFL PhD Students

Luca Gautero, Fengda Sun, Frédéric Zanella, Lucian Barbut, Farzan Jazaeri, Camillo Stefanucci, Jacopo Bronuzzi, Georgi Gorine, Chiara Rossi, Viros Sriskaran, Arnout Devos, Gennaro Termo

Past EPFL PhD Students as codirector

Louis Harik, Fabrizio Lo Conte, Maria-Alexandra Paun, Anurag Mangla

Courses

Electronics

EE-280

Introduction to the main electronic components. Analysis of basic circuits made of operational amplifiers. Introduction to elementary logic circuits. Principle of Analog - Digital conversion. Basics of MOSFET transistor operation.

Electronics I

EE-202(b)

Discover the world of electronics from the fundamental laws of linear and nonlinear discrete components. Circuits obtained with component assemblies require many modeling and analysis techniques, and verification using a simulator.

Electronics II (for IC)

EE-203(b)

Understanding functionnal blocks that require a higher level of abstraction. Realization of electronic high-level functions exploiting operational amplifiers.

Modelling micro-/nano- field effect electron devices

MICRO-623

The course provides an in depth modeling of emerging field effect transistors in CMOS technologty. Starting from the basis, the course will gardually introduce essential aspects to end up with a rigorous description of key features, Nanowire FET & its application to biosensing will also be analyzed.

Physics lab IIa

PHYS-204

This practical course provides a contact with basic physical phenomena and their applications, it should help students acquire knowledge about the methods of observation and measurement as well as data analysis and presentation.