Innovative Nano and Micro Technologies for Advanced Thermo and Mechanical Interfaces (NANOTHERM)

Future electronic power devices and packages will need to demonstrate more performance and functionality at reduced cost, size, weight, energy consumption and thermal budget. Further, increasing reliability demands have also to be met by industry to be competitive in this growing multi-billion Euro market of heterogeneously integrated systems.To respond to these challenges, new innovative nano- and micro-technologies and materials, both of which are key enablers for advanced thermal and mechanical interfaces, have to be developed and compatibly integrated to obtain higher electrical, thermal and reliability performance under harsh environmental conditions.Nanotherms objective is to take up these challenges in design, technology and test:Novel approaches to thermal technologies with superior electrical, thermal and thermo-mechanical properties will be developed in the project and demonstrated on automotive, avionics, solid-state lighting and industrial applications. Parallel routes will be followed addressing nano-sinter-adhesive bonding, phonon-coupled VACNT joining, nano-functionalised nano-filled adhesive die attach and graphene-enhanced surfaces. The main principle common to all technologies is the exploitation of nano-effects to obtain outstanding interconnect properties by especially developed processes.In parallel, a multi-scale and multi-domain modelling framework will furnish guidelines for materials design by various approaches from ab-inito up to continuum modelling and verified by corresponding experimental techniques.The consortium, composed of 18 partners from industry, SME and academia out of 8 European countries, embodies the necessary excellence and interdisciplinarity to address these tasks successfully. We are convinced that Nanotherms results will enable the next generation of heterogeneously integrated power packages, cut down thermal interface resistance at least by 50% and impact also on other power system-in-package configurations.

Participants

Johan Liu (contact)

Professor at Microtechnology and Nanoscience, Bionano Systems

Collaborations

Amepox Microelektronics

Lodz, Poland

Berliner Nanotest und Design

Berlin, Germany

BME Viking

Budapest, Hungary

Bosch

Gerlingen-Schillerhoehe, Germany

Budapest University of Technology and Economics

Budapest, Hungary

Centre national de la recherche scientifique (CNRS)

Paris, France

Fundacio Institut Catala de Nanociencia i Nanotecnologia (ICN2)

Bellaterra (Barcelona), Spain

Heraeus Materials Technology

Hanau, Germany

Infineon Technologies

Neubiberg, Germany

Nanium S.A.

Vila Do Conde, Portugal

Philips Electronics

Eindhoven, Netherlands

Politechnika Wroclawska

Wroclaw, Poland

SHT Smart High-Tech

Göteborg, Sweden

Technische Universität Chemnitz

Chemnitz, Germany

Technische Universiteit Eindhoven

Eindhoven, Netherlands

Thales Group

Neuilly Sur Seine, France

Funding

EC, Seventh Framework program (FP7)

Funding years 2012–2015

Publications

2016

Functionalization mediates heat transport in graphene nanoflakes

Scientific journal article - peer reviewed

More information

Created

2014-11-27