Collaboration: The Semiconductor Industry s Path to Survival and Growth

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Collaboration: The Semiconductor Industry s Path to Survival and Growth Dr. Michael R. Polcari President and CEO SEMATECH 15 March 2005 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 1

Outline Environment Economic Challenges Technology Challenges Solutions Innovation and Manufacturability through Collaboration SEMATECH examples 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 2

The future ain't what it used to be - Yogi Berra 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 3

The Electronics Ecosystem Global GDP Electronics Semiconductors Semi. Equipment $36,356T $1,240B $213B $52B Materials $28B 2004 data (GDP from 2003) Sources: World Bank, World Semiconductor Trade Statistics, VLSI Research, SIA, SEMI 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 4

3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 5

Growth may slow, but will continue 300 $B Worldwide Semiconductor Market 250 200 150 100 50 0 1972 1973 1974 1975 1976 1977 1978 1979 1980 1981 1982 1983 1984 1985 1986 1987 1988 1989 1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 Sources: Gartner Dataquest and SIA, February 2004 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 6?

Business Challenges The new economy for microelectronics Affordability Increasing costs Capital Manufacturing R&D Manufacturability Fab and equipment productivity 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 7

Semiconductor Manufacturing Challenge Wafer Fab Cost Trend Cost ($B) 4 3 2 1 0 $3.3 $2.4 $1.6 $1.0 $0.4 $0.05 $0.1 $0.2 1975 1980 1985 1990 1995 2000 2005E 2010E Source: IC Insights, Inc. Mclean Report, 2004 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 8

Semiconductor R&D Challenge 1.E+06 1.E+05 Chip Making R&D Versus Revenues (Worldwide in $M) 1.E+04 1.E+03 1.E+02 1.E+01 1.E+00 Source: VLSI Research Inc., 2004 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 9 1960 1964 1968 1972 1976 1980 1984 1988 1992 1996 2000 2004 2008 2012 2016 Semiconductor Revenue Total RD&E (Chip + Eq) 2020

International Technology Roadmap for Semiconductors 350 250 180 130 100 70 50 35 22 1994 1997 1998/1999 2000 2001 2003/2004 1995 1997 1999 2001 2003 2005 2007 2009 2011 2013 2015 2017 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 10

Technology Challenges Innovation required Still no known solutions in many areas: - Lithography - Front End - Interconnect - Metrology Source: ITRS 2004 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 11

Future Transistors Non-classical CMOS will take us through next 15 years Many Approaches Sub 10 nm Beyond CMOS Already Demonstrated nmos MOSFET pmos FINFET SOI Source: Bruce Doris (IBM) 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 12 Transistor on thin SOI

Future Patterning Traditional Immersion Liquid recovery Projection optics Liquid supply Wafer stage Immersion liquid (Scanning motion) EUV Wafer 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 13

Future Connectivity 2003-2008 2009 Cu Low k & Reliability k eff ~ 3.1-3.6 Projects k eff ~ 2.7-3.0 k eff ~ 2.3-2.6 Projects Future Connectivity Next Generation Interconnect Determine; Roadmap Timelines Critical Needs Optically active Molecules Nanotubes Optical Interconnects SWCNT 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 14

Future Metrology CD-SEM of the Future? Migration of TEM LENS Technology to SEM Secondary Electron Detector Scanning coils wafer Today FE source Lens Top Down Image Secondary Electron Detector Tomorrow FE source Aberration Correction Lens Sample Stage Scanning Coils Tilt Beam for sidewall metrology Wafer Sample Stage Lens 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 15

Future Manufacturing Active ISMI Project Future projects Large Scale Process Control Systems On-line Specs & Tool Maintenance Manuals Predictive Maintenance Wafer Level Tracking and Recipe/Parameter Changes Efficient Spares Management Faster Cycle time Fabs for Hot Lots & High Mix 100% Direct Transport AMHS for Fast Cycle Time Manufacturing Execution Systems Rapid Process Matching Equipment Engineering Capabilities (EEC) R2R FDC SPC Recipes Yield PCS e-diag. EPT Equipment Data SECS Control Line Equipment Data Acquisition (EDA) for Rich Standardized Data Equipment Control Systems Factory Scheduler And Material Control Partner, Customer Or Supplier Pervasive Remote Diagnostics Today 10 chambers 10 variables per chamber 3 Hz rate each 300 values per sec EDA Goal 10 chambers 50 variables per chamber 10 Hz rate each 10,000 values per sec 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 16

The New Economy for Microelectronics Slower growth of industry foreseen, compared to last 30 years Escalating R&D, capital, and manufacturing costs A new factory at 90nm technology on 300mm wafers has a capital cost of $2-3B Rising technology R&D product cycle costs Staggering technology challenges 193 immersion/euv, high/low-k, masks, 3D interconnect, 300mm/450mm Changing business models in the industry Foundries, fabless and fab-lite New alliances and partnerships 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 17

Collaboration at All Levels Device manufacturers Crolles cluster: Freescale, Philips, STMicro, TSMC IBM cluster: AMD, IBM, Infineon, Samsung Equipment and materials suppliers and device manufacturers SEMATECH, Selete, individual companies Universities SRC/MARCO Focus Centers SEMATECH AMRC programs Governments Texas Advanced Materials Center Albany Nanotech IMEC Suppliers 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 18

Innovation and Manufacturability Two ways to sustain Moore s Law Moore's Law cost ( $ ) Function (Transistors/bits) cost ( $ ) area (cm 2 ) cost ( $ ) wafer area (cm 2 ) wafer Reduce Opperating Cost ($) Increase Good Wafer Output Wafers Tool set cost ( $ ) Tool set OEE COO transistors area (cm 2 ) Wafer Size Conversion Productivity Challenges Technology Challenges Design Lithography Metrology Front-End Process Interconnect 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 19

SEMATECH Worldwide collaboration 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 20

SEMATECH: Focus on Innovation and Manufacturability SEMATECH is the catalyst for accelerating the commercialization of technology innovations into manufacturing solutions Accelerated commercialization of university research (AMRC) Advanced technology innovations (SEMATECH) Manufacturing productivity (ISMI) World-class R&D processing & prototyping (ATDF) Benefits of collaboration Save money Reduce risk Accelerate development Increase productivity

SEMATECH Accelerating the next technology revolution 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 22

FOSTERING INNOVATION 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 23

Advanced Gate Stack for 45nm Node Fundamental Materials Understanding 97 98 99 00 01 02 03 04 05 06 07 Began high-k program with Ta 2 O 5,TiO 2, etc FEP-RC identified HfO2 Hf based oxide Metal/high-k stack Electrical test methods Metal electrode materials Implementation strategy Aggressive targets for HP 45nm node EOT~0.6nm µ~65% SEMATECH FEP/Advanced Gate Stack Program SRC/FEP-RC Suppliers 0.8nm 0.8nm 85% 90% SRC/FEP-TC AMRC Working with more than 40 universities, suppliers, and consortia 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 24

Advanced Materials Research Center Accelerating commercialization of university research State of Texas SEMATECH Select Semiconductor Programs Advanced Materials Research Center (AMRC) Select programs in: Semiconductors, Nanotechnology Attributes Accelerate commercialization from universities to corporate products Provide technology pipeline Fundamental understanding High-quality students, technical skills Structure/Scope Participating facilities include: SEMATECH/ATDF Microelectronics Research Center Texas Materials Institute Center for Nano & Molecular Science and Technology Focus on future transistors, interconnects, patterning, metrology; emerging nanotechnology applications Texas Universities 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 25

2004 AMRC University Programs Materials and Structure for Future Transistors (FEP) Topic Advanced CMOS Materials & Processes Beyond CMOS Novel Transistors Details UT Lead Title Gate Stack Materials Lee Kwong PVD High -K Dielectrics: Reliability Issues Materials and Structures frng and Characterization of Key Issues Related to High-K Gate Dielectrics and Metal Gate Elecrodes Register Modeling of Gate Stack Materials Channel Materials Banerjee Channel materials Ultra-Shallow Junctions Hwang Ultra Shallow Junctions Singh / Banerjee Novel Transistors: Multi-gate SOI MOSFETS, New Transistors on Strained FinFETs, and Vertical MOSFETS Silicon + SOI Register Transport Models for Strained Si and FinFETs Dodabalapur Advanced Organic/Silicon Devices for chemical and NanoTechnology Biosensing Ekerdt Quantum Dot Floating Gate Flash Memories Marerials and Structure for Future Connectivity (Interconnect) Advanced Cu & Low- K Interconnects Future Connectivity Barrier Materials / Low-k Ekerdt / White Ultra Thin Diffusion Barrier and Pore Sealing Techniques for 45 nm and Beyond Nano-Conductors / Low-k Ho Nanoconductors for Future Interconnects 3-D Technology Optical Interconnect Neikirk Measurement, Electrical Characterization, and Design of Advanced Interconnects R. Chen Optical Interconnects Deppe Optical Interconnects Optical Detectors for Campbell Optical Interconnects Interconnect Holmes Optical Interconnects Patterning of Materials and Structures (Litho) Optical Extension Nanotechnology Patterning Immersions Lithography Studies Functional Resist Common Resist for 193nm, ebeam, & Imprint Template Field Assisted Lithography Willson / Bonnecaze / Shi Willson / Ekerdt / Shi Willson / Ekerdt / Shi Willson / Sreenivasan Immersion Lithography - Fluids and Resists Functional Resissts Common Electron Beam Resists Field Assisted Lithography Metrology and Characterization of Materials and Structures (Metrology) Downer Spectroscopic Methods for Profiling High-K Dielectric Films and Nanometer-Scale SOI Future Transistors Advanced CMOS Structures Shih Dopant Profiling with STM Yacaman Transition Electron Microscopy Studies Beyond CMOS Campion Strain Measurement by Raman Spectroscopy Patterning Patterning & Standards Korgel Nanowires and Nanodots for Metrology Standards Defects De Lozzane STM Studies for Metrology 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 26

AMRC Metrology Programs Innovative approaches Spectroscopic Methods for Profiling High- K Dielectric Films and Nanometer-Scale SOI Structures Dopant Profiling with STM Transmission Electron Microscopy Studies Strain Measurement by Raman Spectroscopy Nanowires and Nanodots for Metrology Standards STM Studies for Metrology Conductivity of nanowires 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 27

XIDEX Carbon Nanotube Tip for SPM Accelerating commercialization 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 28

Advanced Technology Development Facility (ATDF): R&D processing and prototyping Start-up Companies Equipment & Materials Suppliers Wafer Services Device Makers Universities ATDF Fabrication Capability SEMATECH Divisions Supplier Rooms Custom Projects Proprietary IP projects possible

Non-classical CMOS MuGFET 80 nm Gate Line 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 30

ASSURING MANUFACTURABILITY 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 31

Immersion Coatings Test Chamber Laser Sample Manipulator In-Situ Ellipsometer Sample Chamber Syringe Pump for Controlled Contamination Spectrometer Light Source 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 32

Immersion Technology Center (itc) Focus on high-na applications, future extensibility Austin-based itc will support the development of commercial immersion materials for high-na applications to meet production requirements Centerpiece is 1.3NA 193nm microstepper (Exitech/Tropel) Design study, and option for manufacture and 2006 delivery of ~1.5NA lens Fluid development required Interference lithography tool to provide complementary platform for high-index fluid development Additional objective to understand extensibility of immersion lithography 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 33

SEMATECH EUV Program at Albany Accelerate EUV infrastructure development 5-year strategic alliance EUV Mask Blank Development Center will speed the development of commercial EUV masks EUV Resist Test Center will support the development of commercial EUV photoresists to meet production requirements

EUV Mask Blank Development Collaborative model Commercial Mask Infrastructure Products Research Partners Consortia VNL Universities Contracts IP, Data ML Deposition SEMATECH North EUV Mask Blank Development Center Cleaning Defect Analysis Metrology Material Development Technology transfer Researchers Commercial Supplier Partners Researchers Data SEMATECH Members Products 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 35

Manufacturing Initiative (ISMI) Improving manufacturing effectiveness and productivity Fab benchmarking today s installed base Cost reductions Resist reduction $1.4M-1.6M/year savings Tool improvements (EPITs) ~8% improvement in scanner availability Factories of the future e-manufacturing Next wafer size Yield enhancement Metrology ESH Moore's Law cost ( $ ) Function (Transistors/bits) cost ( $ ) area (cm 2 ) transistors area (cm 2 ) cost ( $ ) wafer area (cm 2 ) wafer Reduce Opperating Cost ($) Wafer Size Conversion Increase Good Wafer Output Wafers Tool set cost ( $ ) Tool set Design Lithography Metrology Front-End Process Interconnect OEE COO

Sharing Manufacturing Excellence through councils and benchmarking Manufacturing Methods Councils 20% productivity improvement in Members wafer fabs over last two years Percentile Performance Index Yield, Cycle Time, Avg People, Aligner Prod, 9 Tool Avg 200mm Fabs with 6+ Quarters of Data (1Q99-4Q02) Water optimization and reduction Savings of over 42M gallons per year Energy reduction Savings of over $3M per year 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 37

ISMI Strategic Directions Improving productivity and yields Short cycle time Monitor-free manufacturing Plug & play equipment Continuous scaling Next wafer size transition Green fab Fully automated fab (hardware, software) People productivity Zero defects, 100% yield 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 38

Semiconductor is the Platform for Emerging Technologies Transistor Structure 100 µm MEMS Airbag Sensor 250nm 4.1 nm 0.6 nm The dots are at the atomic level Novel Data Storage System Micro-machined needles for painless injections Quantum Dot Transistor 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 39

Collaboration is the Key at SEMATECH Global Collaboration SEMATECH & Selete 300mm, masks, resists SEMATECH & SEMI Industry Executive Forum SEMATECH & IMEC High-k, 157nm 193i lithography, EUV SEMATECH & Semiconductor Research Corporation FEP Transition Center, FORCe, ERC SEMATECH & Albany Nanotech SEMATECH & the Texas Technology Initiative 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 40

Catalyst for Commercialization Innovation Acceleration Manufacturability University Research Technology Development Productivity R&D Processing & Prototyping 3/17/2005 J:\ADMCTR\OCE\M_Polcari\ITPC 10-04 41