A unified multiple stress reliability model for microelectronic devices — Application to 1.55 μm DFB laser diode module for space validation

Alain Bensoussan (1, 2) , Ephraim Suhir (3, 4) , Philip Henderson (5) , Mustapha Zahir (6)

1 IRT Saint Exupéry - Institut de Recherche Technologique
2 THALES [France]
3 PSU - Portland State University [Portland]
4 TU Wien - Vienna University of Technology = Technische Universität Wien
5 Gooch & Housego
6 Space Science Department of ESA

The establishment of European suppliers for DFB Laser Modules at 1.55 µm is considered to be essential in the context of future European space programs, where availability, cost and schedule are of primary concerns. Also, in order to minimize the risk, associated with such a development, the supplier will be requested to use components which have already been evaluated and/or validated and/or qualified for space applications. The Arrhenius model is an empirical equation able to model temperature acceleration failure modes and failure mechanisms. The Eyring model is a general representation of Arrhenius equation which takes into account additional stresses than temperature. The present paper suggests to take advantage of these existing theories and derives a unified multiple stress reliability model for electronic devices in order to quantify and predict their reliability figures when operating under multiple stress in harsh environment as for Aerospace, Space, Nuclear, Submarine, Transport or Ground. Application to DFB laser diode module technologies is analyzed and discussed based on evaluation test program under implementation.

Mots clés: DFB laser diode; Optopelectronics; Reliability; Design-for-reliability

Domaines: Electronique

Alain Bensoussan, Ephraim Suhir, Philip Henderson, Mustapha Zahir. A unified multiple stress reliability model for microelectronic devices — Application to 1.55 μm DFB laser diode module for space validation. Microelectronics Reliability, 2015, vol. 55, pp.1729 - 1735. ⟨10.1016/j.microrel.2015.06.093⟩. ⟨hal-01623582⟩