Partnering along the chain of innovation : III-V lab example

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Partnering along the chain of innovation : III-V lab example Dominique Pons Symposium Global Open Innovation Networks

What is III-V Lab? a jointly owned Alcatel-Lucent / Thales R&D Lab French GIE (Groupement d Intérêt Economique) organization GIE contract signed in July 2004 with 100 (50+50) R&D experts Dedicated to material growth, device design and manufacturing performing industrial R&T on III-V semiconductor technology Optoelectronic and microelectronic materials, devices and circuits From applied research to technology transfer for industrialisation or to small scale production for complementary Alcatel-Lucent / Thales applications High bit rate Optical Fibre and Wireless Telecommunications Microwave and Photonic systems for Defence, Security and Space and open to external cooperation Page 2

Why a co-operation? III-V semiconductor technology is critical : Breakthroughs and competitive advantages at system level expected from an early access to advanced III-V devices for both defence and communication systems Many critical devices suffer export restrictions from US or Japan III-V semiconductor R&D is very expensive : Expensive equipment and clean room facilities Many different skills needed in material science, clean room device processing, optoelectronic and microelectronic device physics, simulation, characterization, circuit design Benefits of a cooperation : Share of the costs and critical size A common core of dual technologies for the development of dedicated devices for non competing applications Early availability of advanced devices for the developments of systems Page 3

What do we share? We share the technology : Critical skills on material science, device processing, circuit design, Expensive equipment and infrastructures : epitaxy reactors, clean room facilities, assembly technology, device characterization, Common technology blocks However, usually the different applications (Telecom/ Defence) need different devices (dual technology but dedicated devices) We share the costs : Cost for each member = total cost / 2, after deduction of the external funding (R&D contracts and sale of devices) We share the IP : Foreground IP shared between the 2 members Free access to the needed background IP Free exploitation rights (non exclusive and non transferable) by each member Page 4

Shared skills and technologies Clean room device processing Material science Device physics circuit design Page 5

What is our mission? Develop the technology of opto- and micro-electronic III-V devices for : 40Gb/s, 100Gb/s and above optical fibre communications Microwave front-ends of radar, electronic warfare and wireless communication systems Near- to far- IR night vision or enhanced vision cameras and systems Spectroscopic gaz detection systems and other advanced photonic systems Transfer the technology for industrialisation when required Or offer the capacity for small volume production : Only small quantities of devices are necessary during several years for system development and first deployments This capacity allows to delay the expensive technology transfers till they are really necessary (high volume market demand) Page 6

InP HBT MMIC technology Shared InP HBT MMIC technology ADC circuits for digital radars / EW systems Mux/Demux circuits for o.f. communications 100 Gb/s InP HBT multiplexer High dynamic range / ultra-fast S/H circuits Page 7

PIN GaInAs photodiodes Shared GaInAs IR PIN photodiode technology Focal plane arrays for IR cameras / enhanced vision PIN photodiodes for o.f. communications Page 8

European cooperation network Network for GaN power microwave technology development Page 9

Valorization Technology transfers InP HBT technology : industrialisation in Ommic underway GaN HEMT technology : industrialisation in UMS underway Sales of advanced devices for GIE members needs 40 Gb/s devices Teleoptix (It) Alcatel Lucent HBT / ph.-diodes 40Gb/s modules 40Gb/s networks IR detectors Sofradir (Fr) Thales QWIP arrays detectors blocks Night vision cameras Sales of advanced devices for (partner) start-ups IR laser diodes for gaz detection / monitoring systems GaInAs detector arrays for enhanced vision cameras, thermography, Page 10

Innovation Innovation : when a new technology (invention) is meeting a market demand The maturity level of a technology can be evaluated using the ranking of its TRL (technology readiness level) The TRL alone does not give any insight of the impact of this technology on the market and is not a measure of its innovation level We try to evaluate our technologies as potential innovations using the Monnier s Innovation Matrix methodology Page 11

SUPPLY Monnier s Innovation Matrix (1) 10,0 MONNIER's INNOVATION MATRIX INNOVATION 6,7 3,3 MIM Level 2 Technical product or service to be pushed on the market MIM Level 1 Incertain MIM Level 5 High potential for d innovation MIM Level 4 Innovation birth PROJET INNOVANT «Robust» Innovation PROJET A FORT POTENTIEL D'INNOVATION MIM Level 6 Innovation 0,0 0,0 3,3 6,7 10,0 DEMAND MIM Level 3 Offer to be developped for this idea MIM Level 7 Copyright 2004 2007 Bernard Monnier. All rights reserved Copyright 2004 Bernard Monnier CopyrightDepot.com ref. 00035701 & 00042385 - Page 12

Monnier s Innovation Matrix (2) MIM ranking by analysing the answers to a questionnaire Demand level (X-axis) 4 parameters 16 criteria Supply level (Y-axis) 4 parameters 15 criteria Technical solution Market Competitors Business Model Flexibility Technical environment Protection Sustainable Development Page 13

Monnier s Innovation Matrix (3) Evaluation of GaInAs IR image sensor technology Page 14