Students
Tuition Fee
Start Date
Medium of studying
Duration
Details
Program Details
Degree
Masters
Major
Packaging Design | Industrial Engineering | Materials Engineering
Area of study
Manufacturing and Processing | Engineering
Course Language
English
About Program

Program Overview


Program Overview

The Packaging et Durabilitť program is a comprehensive course that focuses on the principles and applications of packaging in microelectronics and durability in electrochemistry.


Informations Gťnťrales

  • Volumes horaires:
    • CM 6.0
    • Projet 0
    • TD 6.0
    • Stage 0
    • TP 4.0
  • Crťdits ECTS: 1.5

Objectif(s)

The program aims to:


  • Provide a general overview of microelectronic assembly processes
  • Present the main phenomena involved in these processes, such as wetting, diffusion, and interfacial reactivity
  • Give basic notions on the physico-chemistry of interfaces involved in different assembly processes in the electronic industry
  • Apply this knowledge to real cases of packaging in the electronic industry
  • Provide notions of material selection criteria for electrolyte, cathode, anode, and interconnections
  • Provide notions of durability in solid-state electrochemistry
  • Give an overview of economic aspects and technological trends and orientations

Contenu(s)

The program is divided into two main parts:


I) Packaging (10h)

  • The role of packaging in microelectronics
  • Packaging of integrated circuits, techniques used (WB - wire-bonding, FC - flip chip, TAB - tape Automated Bonding,...)
  • Families (SMP, THP,...), types of packaging (PGA - pin grid array, BGA - ball grid array, ...) and different cases (plastic, ceramic)
  • Materials used (advantages and limitations)
  • Packaging of microsystems
  • Description and study of physico-chemical and mechanical phenomena occurring during assembly (thermodynamics, kinetics, wetting,...)
  • Study of specific cases in packaging (Design Office)

II) Durability (6h)

  • Principle of operation of a solid oxide fuel cell (SOFC)
  • Packaging: from the elementary cell to the stack
  • Economic aspects, technological locks, and trends
  • Role of materials used: electrolyte, electrodes, interconnectors (advantages and limitations)
  • Problems of piles operating at high temperature (durability)
  • Solutions to reduce the operating temperature of the SOFC

Prťrequis

  • Thermodynamics
  • Surfaces-Interfaces
  • Phase diagrams
  • Electrochemistry

ContrŰle des Connaissances

The assessment of knowledge is done through:


  • A written exam (DS) + design office (BE) during the normal session
  • A written exam during the retake session
  • The design office is not retakeable

Informations Complťmentaires

  • The course is taught only in English
  • The program is part of the Semestre 9 curriculum for several engineering courses

Bibliographie

  • Handbook of Batteries, D. Linden, T.B. Reddy, 3 ed, McGraw-Hill, 2001
  • Handbook of fuel cells, H. A. Gasteiger et al. Eds, Vol. 1-4 (2003) & 5-6 (2009), Wiley
  • C.A. Harper, Electronic Packaging and Interconnection Handbook, 3d edition, McGraw-Hill, 2000
  • J. Lau, C.P. Wong, J.L. Prince, W. Nakayama, Electronic Packaging: design, materials, process and reliability, McGraw-Hill, 1998
  • R.R. Tumala, Fundamentals of Microsystems packaging, Mack-Graw Hill, 2001
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