Technology Lifestyle Solutions - Infineon

Copyright © Infineon Technologies 2003. All rights reserved.

IFX Day 2003 - Munich Dr. Werner Weber

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Munich – September 22, 2003

Technology Lifestyle Solutions

N e v e r s t o p t h i n k i n g .

IFX Day 2003


Dr. Werner WeberCorporate Research



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Please note that while you are reviewing this information, this presentation was created as of the date listed, and reflected management views as of that date.

This presentation contains certain forward-looking statements that are subject to known and unknown risks and uncertainties that could cause actual results to differ materially from those expressed or implied by such statements. Such risks and uncertainties include, but are not limited to the Risk Factors noted in the Company's Earnings Releases and the Company's filings with the Securities and Exchange Commission.

Disclaimer



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1947: Transistor Development

In 1956, William Shockley, Walter Houser Brattain and John Bardeen received the Nobel Prize in Physics for "their researches on semiconductors and their discovery of the transistor effect".

December 23 - William Shockley, Walter Brattain and John Bardeen successfully tested this point-contact transfer resistor, setting off the semiconductor revolution

December 23 - William Shockley, Walter Brattain and John Bardeen successfully tested this point-contact transfer resistor, setting off the semiconductor revolution



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1958: IC Development - Jack Kilby

In 2000, Jack St. Clair Kilby received the Nobel Prize in Physics for "his part in the invention of the integrated circuit"

Jack Kilby creates the first integrated circuit at Texas Instruments to prove that resistors, transistors and capacitors could exist on the same piece of semiconductor material (Germanium)

Jack Kilby creates the first integrated circuit at Texas Instruments to prove that resistors, transistors and capacitors could exist on the same piece of semiconductor material (Germanium)



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2002, Intel Pentium 4

� 42 mio. transistors� 0.13µm technology� 2.2 GHz

� 42 mio. transistors� 0.18µm technology� 1.6 GHz

Introduction of the Intel Pentium 4 MicroprocessorIntroduction of the Intel Pentium 4 Microprocessor



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0100200300400500600700800900

10001100

1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 2007 2008

Source: Semiconductor Industry Association 2001

Today: More than 100 million Transistors per Person

million transistorsper person



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From Products to Complete Solutions for Individual Lifestyles

� Work & CommunicationFast access + high data rates for home & office + mobile communication

� Leisure TimeMusic, video, games, multimedia- anytime, anywhere

� Intelligent ClothingNew opportunities, individual solutions

� Enhanced SecurityContactless systems, fast encryption biometric solutions

� HealthControl of body functions, data security, health check

� MobilityTelematics, infotainment



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Wearable Electronics



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Smart Card ICs / ID tags- logistics chain management- secure data transmission

FingerTip- authentication- identification

Bluetooth (short range)

- audio link- interactive games

GPS/GSM- safety applications- interactive games

MultiMediaCard (MMC)- storage of music- content

MEMS- pressure- acceleration- temperature

Chip for Speechrecognition- music player (MP3, ...)- email, SMS to voice

thermo generators

Electronic Components in Smart Textiles



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The Missing Link: Interconnect Technologies



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Integrated Microelectronics for Smart Textiles



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Integration of Electronic Components in Textiles



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Wearable Electronics



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Integrated Microelectronics for Smart Textiles -Applications of Intelligent Technical Textiles

Vision:

Distributed sensor elements, light emitting diodes, or microprocessors integrated in large area electrically conductive textiles

Examples:� Pressure sensors in floor coverings for

surveillance systems or motion detection (person tracking)

� Indicator lamps in floor or wall coverings for guidance systems in public buildings

� …

intelligent house, Source: InHaus, FhG



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?

Integrated Microelectronics for Smart Textiles -Example: Intelligent Floor Covering (Smart Carpet)

distance: cm ... m

sensor or displayelements

textile structure,e.g. carpet



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Concept of operation: Activated Sensing Element Transmits Data, e.g. to a Central Home Automation Unit

4/6

2/0

2/4

2/5

3/1

4/5

4/7

(2/0), (3/1), (2/4), (2/5), (4/5), ...



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May 2003: Smart Carpet SampleJuly 2003: Development Project with Vorwerk



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Technology Lifestyle Solutions in Libraries



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MP PMT 7/01

Partially Printed Electronics

� Antenna and 1st "polymer" metallization layer printed� Functional devices processed subsequently

� Antenna and 1st "polymer" metallization layer printed� Functional devices processed subsequently



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Electronics on Ordinary Unfilled Paper



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5-stage ring oscillator: 150 HzPropagation delay: 650 µsec per stage

Electronics on Aluminized Polyester Foils:Food Packaging



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Cannel length: 5 µmFrequency: 4.5 kHzPropagation delay: 22 µsec per stage

5-stage ring oscillator with integrated level-shifting and output buffer

Pentacene TFTs and Circuits on Flexible Substrates



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Energy HarvestingThermoelectric Generator

1 mm

0

1

2

3

4

5

6

7

0 1 2 3 4 5 6 7 8 9 10 11 12temperature difference over assembly [K]

outp

ut p

ower

per

are

a [µ

W/c

m²]

power

consumption



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outside platethermoelectric generator

water-resistant encapsulation

conductive fibres

elastic band

fabric

inside plate (body) e.g. silverplated coppercontacts

waste heatpower supply

textileintegration

Energy HarvestingThermoelectric Generator



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Optical BiochipsBased on Infineons' Porous Silicon

� Microstructured pores have a diameter of 10 µm, that is a tenth of a human hair

� 1 million pores on one square centimeter

� Microstructured pores have a diameter of 10 µm, that is a tenth of a human hair

� 1 million pores on one square centimeter



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Optical BiochipsSystem Solution for Drug Development and Diagnostics



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� Robust & easy operation of electrical systems

� Optical components are completely avoided and replaced by inexpensive electrical components

� Access to new fields of applications, new markets (e.g. diagnosis in hospitals and doctors' offices)

Why fully electronic DNA-detection? Why fully electronic DNA-detection?

Fully Electronic DNA-chipFirst Biochip with Integrated Electronics

16 x 8 sensor array



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Experiments with biological material reveal successful electronic DNA detection.Experiments with biological material reveal successful electronic DNA detection.

0

25

50

75

100

125

0 20 40 60 80 100time [s]

Col

lect

or c

urre

nt [n

A] position = (1,1)

("match")

position = (6,2)("mismatch")

buf-fer

para-aminophenyl-phosphate

flow stopped

A

D

OUT

ActiveArray

Pixel Circuit

Match Mismatch

Sensor

Au

Nitride depositedfor preparation

NitrideAl 2

TungstenGate

HDD SpacerDiff.ZOX FOX

Au finger5 µm

Al 1

Chip photo:Fully electronic 16 x 8 sensor array

Technology cross section

Fully Electronic DNA-chipInitial Results



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Snail cell grown on the biocompatible surface of the Neuro-Chip

Neuro-ChipInfineon's Chip for Neurobiology and Drug Discovery

� Non-invasive long-term recording of nerve cells� Applications in neurobiology and drug discovery

� Non-invasive long-term recording of nerve cells� Applications in neurobiology and drug discovery



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From Microelectronics to Nanoelectronics



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Carbon Nanotubes

Infineon Logo builtfrom 10 atom thickcarbon nanotubes

Infineon Logo builtfrom 10 atom thickcarbon nanotubes



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Never stop thinking.

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Technology Lifestyle Solutions - Infineon