Download High Temperature Die Attach

Survey
yes no Was this document useful for you?
   Thank you for your participation!

* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project

Document related concepts

Electrical engineering wikipedia , lookup

SAES Getters wikipedia , lookup

Thermal runaway wikipedia , lookup

Electronic engineering wikipedia , lookup

Integrated circuit wikipedia , lookup

Electroactive polymers wikipedia , lookup

Flexible electronics wikipedia , lookup

Opto-isolator wikipedia , lookup

Transcript
High Temperature Die Attach
Nanocomposites, specifically polymer nanocomposites can have potential microelectronic applications in a
wide range of areas which includes resistors, inductors, capacitors, lasers, low loss dielectric, waveguide,
thermal interface materials, etc. Most of these nanocomposites used nanoparticles and micro particles as
filler materials to tune the physical and electrical or thermo-mechanical properties.
The use of nanowires or high aspect ratio structures are recently been investigated. The use of high aspect ratio
structures has one obvious benefit and that is its ability to achieve low percolation threshold in a nanocomposite
compared to nanoparticles. The down side is the composite material may not be as flexible as the nanoparticle infused
nanocomposites. Carbon nanotube (CNT) nanocomposites may be the exception where due to its ultra-high aspect ratio
the tubes are flexible enough and until a certain percentage of inclusion the nanocomposites made using CNT as filler can
have similar flexibility and modulus as nanoparticle filled nanocomposites. Advanced Energy Materials team is actively
developing different types of nanocomposite materials for packaging applications e.g. electrical interconnection, thermal
interface, die attach materials, etc. as well as in sensor applications.
The following SEM images shows the Ag film and Ag-carbon nanotube film deposited on SiC Schottky diodes as die
attach materials.
(a) Electrodeposited Ag film on (inset showing large Ag grains) SiC Schottky diode; (b) Electrodeposited Ag-MWCNT film
(inset showing fractured area) on SiC Schottky diode.
Contact enquiry (at) tyndall (dot) ie for all Business Development enquiries
Core Team
Kafil Razeeb
Alan Mathewson
MNS (Circuits and Systems) - Hetrogeneous Integration MNS (Circuits and Systems) - Hetrogeneous Integration
+353 (0)21 2346078
+353 (0)21 2346142
kafil.mahmood (at) tyndall (dot) ie
alan.mathewson (at) tyndall (dot) ie
Contact
Kafil Razeeb
MNS (Circuits and Systems) - Hetrogeneous
Integration
+353 (0)21 2346078
kafil.mahmood (at) tyndall (dot) ie
Related Publications
Robust Design for High Temperature and High Voltage Applications
Analog Circuit Design pages 53 to 67 (2011)
Authors: Ovidiu Vermesan, Edgard Laes, Marco Ottella, Mamun Jamal, Jan Kubik, Kafil M. Razeeb, Reiner John,
Harald Gall, Massimo Abrate, Nicolas Cordero, Jan Vcelak
Thermocompression bonding of Ag-MWCNTs nanocomposite films as an alternative die-attach solution for high
temperature packaging of SiC devices
2012 IEEE 62nd Electronic Components and Technology Conference (2012)
Authors: Vanessa Smet, Mamun Jamal, Alan Mathewson, Kafil M. Razeeb
High-Temperature Die-Attach Technology for Power Devices Based on Thermocompression Bonding of Thin Ag Films
IEEE Transactions on Components, Packaging and Manufacturing Technology volume 3 issue 4 pages 533
to 542 (2013)
Authors: Vanessa Smet, Mamun Jamal, Finbarr Waldron, Frank Stam, Alan Mathewson, Kafil M. Razeeb