COTS and automotive EEE parts in Space Programs: Thales Alenia Space Return of Experience

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COTS and automotive EEE parts in Space Programs: Thales Alenia Space Return of Experience Mission Needs, Trends and Opportunities Session" - ESA High End Digital Technology Workshop on 01-Oct.-2018 1 01/10/2018

Thales Alenia Space COTS REX 2012 - CONSTELLATIONS, First approach for Automotive parts (as commercial parts) Data collection from manufacturer through JD (Justification Document) or PSS form (Product Selection Sheet) Qualification @ components level (per lot, if needed) For units SUPPLIERS Approach chosen by the suppliers validated by Thales Alenia Space Data review by Thales Alenia Space Systematic screening @ unit level (Burn in and thermal cycling) 2016 NANOSAT AEC-Q/ Commercial parts 2018 - NEW RULES for Commercial parts use, covered by new Thales Alenia Space EEE quality standard including automotive parts 2

Iridium Next COTS HERITAGE 150 COTS references used on IN satellites( active and passive ) some electronic units built with more than 400 parts count of the same reference Proven in flight heritage with million of hours x devices operation COTS Lot failures during Qualification (Life test, HAST, C-SAM, Temperature cycling, VRT, etc ), units production / testing and flight operation For TAS = None For Sub-Contractors = None reported 3

TAS Standards for COTS STANDARDS and ORGANISATION: TAS heritage combined with ECSS-Q-ST-60-13, AEC-Q, NASA requirements for COTS Qualification and specific screening according to TAS standards for COTS COTS SELECTION : COTS from Thales Group Prefered Parts Database: Availability of 3000+ parts references on active components and 11000+ parts references on passive components => COTS from major parts manufacturers with high volume production Justification dossier including risk mitigation provided for each candidate 4

TAS NANOSAT APPROACH for AEC-Q YES NO SCREENING Burn in @HighT@Tjmax /Temp. Cycling LAT (EQM) Temp. Cycling/ Life test/rad/ Vibration/ mounting qualification... 5

COTS vs Reliability TAS guidelines for reliability predictions Once a part is authorized by project EEE & RAD QA, the best quality factor and FIT figure is considered in reliability predictions These parts will not affect the satellite lifetime Best in class & QA Go Ahead Space class reliability FIT figures But! Full Justification Dossier is required 6

MAIN RADIATION CHALLENGES FOR COTS COTS versus SPACE QUALIFIED COTS : not necessary radiation sensitive The challenges : radiation data available, traceability, and lot to lot variability Traceability : solved by TAS with COTS Thales Group Preferred Parts Database support Lot to lot variability : procurement strategy to minimize the number of diffusion lots No suitable radiation data => Radiation Evaluation Testing to be done Method for identifying the best candidates per function Which process is the best? Data available in Radiation Database First screening : Preliminary Tests to withstand the minimum Radiation Levels for the mission 7

MAIN RADIATION CHALLENGES FOR COTS Accurate Radiation Characterization of pre-selected COTS for risk assesment Strong skills in radiation Testing Ability to perform our own Radiation Testing on complex VLSI (internal state machine) Signature of radiation effects, Mitigation Technics : hardware & software validation of mitigated design under beam Partnership with Radiation Test Laboratories Best in class Test Laboratories High volume in short time 8

TAS Experience in Radiation & COTS COTS Radiation Hardness Assurance Plan has been implemented for Iridium Next Low TID level but Strong proton & Cosmic Rays induced Single Event Phenomena Large COTS radiation evaluation performed in order to select key functions In TAS : 90 different part numbers tested to obtain 25 successful Subcontractors : strong involvement to follow their radiation testing / Centralized at Prime Level TAS COTS & Radiation process already validated : In orbit heritage : No SEE radiation failure on Iridium Next in more than 16000 cumulated days (45 years) Many Functions already tested with success by TAS-JV : Microprocessor, DDR2, SRAM, configurable FPGA, complex Digital ASIC, optical transceivers, ADC, DAC, Analog Multiplexer, Line Drivers, optocouplers, MOSFETs, Logic Ics, Bipolar Junction Transistors, Analog Ics 9