Objectives of Programme's Learning Outcomes

• Implement an engineering approach dealing with a set problem taking into account technical, economic and environmental constraints
• Understand the stages of an engineering approach
• Design, evaluate and optimise solutions addressing the problem
• Implement a chosen solution in the form of a drawing, a schema, a plan, a model, a prototype, software and/or digital model
• Identify and acquire the information and skills needed to solve the problem
• Understand the theoretical and methodological fundamentals in science and engineering to solve problems involving these disciplines
• Identify, describe and explain the basic principles of engineering particularly in their specialising field
• Understand laboratory techniques: testing, measuring, monitoring protocol, and security
• Understand the fundamentals of project management to carry out a set project, individually or as part of a team
• Respect deadlines and timescales
• Collaborate, work in a team
• Interact effectively with other students to carry out collaborative projects.
• Communicate in a structured way - both orally and in writing, in French and English - giving clear, accurate, reasoned information
• Use several methods of written and graphic communication: text, tables, equations, sketches, maps, graphs, etc.
• Give an effective oral presentation, using presentation materials appropriately
• Present analysis or experiment results in laboratory reports
• Use the English language to "advanced independent user" level, equivalent to B2 of the Common European Framework of Reference for Languages (CEFR)
• Demonstrate thoroughness and independence throughout their studies
• Develop their scientific curiosity and open-mindedness
• Learn to use various resources made available to inform and train independently

Learning Outcomes of UE

Student should be able: to understand the physics and working principle of basic electronics components like the junction Diode, the MOS and Bipolar transistors, to get a mathematical and intuitive approach to fundamental equations of electricity and quantum mechanics, to identify main semiconductors device parameters and to understand their relationships, to analyze and understand different elementary circuits based on discrete components like diodes, transistors, resistances and capacitors, to simulate circuits with  LTSpice simulator, to put in practice simplified analysis techniques based on the decomposition of a problem into a DC and AC individual circuits analysis, to understand the design flow of integrated circuit through the use of Cadence CAD tools, to get insight on advanced electronics devices like sensors, MEMS,the Schottky diode, the GAN transistor, the thyristor, the triac...

UE Content: description and pedagogical relevance

Theory-exercices mode course, in face-to-face mode, preferably. In the case of eventual sanitary problems, the course will be switched to distance mode. Students must be present during the first course lecture. Contents: energy bands, the Fermi level, electrical conductivity, transport equations, carriers generation and recombination, the PN junction at equilibrium, reverse and fordward biased, diode model, MOS transistor, MOS capacitor, short channel effects, MOS models, Jsspers's diagram, Bipolar transistors fundamentals, Ebers and Moll models, transport model, current equations, small and large signal devices models; transistors fundamental stages, two transistors stages, current mirrors. Advances electronics devices. Introduction to microelectronics, Microelectronics technologies, integrated circuits design flow on Cadence CAD tools.

Prior Experience

-Fields, signals and systems, BAB2
-Electronique appliqué BAB3