Mathematics: Principal methods of numerical solving and related implementation difficulties. Complements of linear algebra. Numerical methods of solving a linear system and finding the proper elements of a matrix. Approximation (least square) and interpolation methods.

The objective is to provide skills using numerical and symbolic computation software useful for other courses in particular electronics, circuits, electromagnetism and signal processing. These supplements will be illustrated with scientific computation softwares such as MATLAB, JULIA and MAXIMA.

Signal processing: random signals, perturbations and methods to handle them.

Strengthen knowledge in electromagnetism to approach free and guided propagation as well as the perturbations encountered in communication systems

Measurements and sensors : problematic of measurement achievement and interpretation. Physical principles, metrological characteristics, implementation of different types of sensors.

Study and understand the behavior of elementary semiconductor components. In a first part, the homo-junctions, such as the PN diode and the bipolar transistor, and their representative characteristics will be studied. In a second part, the components such as the Schottky diodes and the MOSFET transistor will be studied.

Bring knowledge of the components and tools to achieve an analog transceiver chain: analog modulations and demodulations; Voltage Controlled Oscillators (VCO); Phase locked loop (PLL); Frequency synthesizers.

Provide students an introduction to electrical signal filtering techniques. The focus will be on the synthesis and realization of filters using analog technique.

Cette unité d’enseignement porte sur des aspects du développement durable relatifs aux compétences requises pour de futurs ingénieurs en électronique. Le recours à deux ateliers d’intelligence collective permet de susciter une réflexion et un engagement personnel des étudiants. Les enseignements en ligne sont basés sur des ressources développées (articles ou vidéos) et mises à disposition par des organismes reconnus (notamment UVED et ADEME), et sont ponctués de petits tests permettant de s’assurer que les notions principales ont été assimilées.

The objective of this course is to familiarise the students with different technologies and logic families in digital electronics. For this purpose, the particular aspects of digital electronics compared to analog electronics and their common basis are highlighted. Important parameters for evaluating the quality of a digital integrated circuit are presented. The most common logic families (TTL, NMOS, CMOS) in bipolar and field-effect technologies are studied through an inverter. The advantages and disadvantages of each family are underlined. The basic logic functions are modelled by introducing simple circuits with lumped elements. The operation of basic logic gates as well as some more complex systems are studied.

Give the main characteristics of antennas from the study of the properties of the elementary dipole. Antenna radiation pattern, gain, directivity, input impedance, radiation characteristics, radiation resistance, radiation efficiency. Antenna arrays. Examples of applications.

Provide students different methods of calculation (analytical and graphical) for the impedance matching of transmission lines in power and reflection. Use the Smith chart. Characterization of microwave circuits: the scattering matrix [S].

Major challenges in the choice of fundamental measurement devices for RF signal analysis: network analyzer, spectrum analyzer, digital oscilloscope.

RF communications (fixed and mobile telecommunication systems, propagation, antennas)

Basics of processing in a digital transmission chain: channel coding / decoding, ASK, PSF and FSK digital modulation / demodulation, transmission / reception chain and characteristics of the different elements, time and frequency characteristics of the signals, filtering. Labs performed under Matlab / Simulink.

Learn the basics of C programming. In the first part, the basics of C programming will be discussed. In particular, memory management will be detailed. An introduction to object-oriented programming will then be the subject of the second part. The notions of classes, inheritance and polymorphism will be studied.

Local networks, introduction to cellular networks. Layered model, protocols and services, introduction to IP, the layer (IP) in the OSI model. Presentation of the IP packet and the various fields and components. Characteristic of the TCP / IP model and the specificity of TCP and UDP protocols.

Conversation, reading of technical texts

Structuring, ensuring and optimizing the smooth running of a project