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Nanofilms: Markets and Technologies

Product Type: Market Research Report Publication Date: Aug 10, 2004
 
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SUMMARY

REPORT HIGHLIGHTS

  • The overall worldwide value of thin films shipped for eight major industries reached $1.1 billion in 2003 and is projected to just exceed $2 billion by 2008, rising at an average annual growth rate (AAGR) of 12.6%.

  • Of this total, $222 million, or currently 20.2%, is classified as nanofilm, and is expected to grow at an AAGR of 17.8% to reach $505 million by 2008.

  • The value of emerging nanofilms is projected to be $196 million by 2006 and grow at an AAGR of 22% to 2008 to reach $292 million.

  • Established and emerging nanofilms will represent 39% of total thin film materials by 2008.

INTRODUCTION

Surface modification has become a major process in the current technological world. Over the past three decades, surfaces and their coatings have improved the performance of, or protected new and existing products. Techniques usually include surface treatments, where the composition of mechanical properties are altered, or the deposition of thin films or coatings, where a different material is deposited to create a new surface.

The deposition of thin films has gained an extremely important position in many industries. In previous reports, BCC examined the scope of this technology, the methods used, and the overall impact on specific products in selected industries. This important and timely report focuses on ultrathin films, i.e., materials measured in nanometers. These ultrathin films, or nanofilms, are the next level in deposition and coating technology.

This study determines the key materials being used and their growth potential. The document further examines production and deposition techniques used on various substrates, details the properties imparted and discusses the potential for new nanomaterials.

Films of this type already have begun to add value to the coatings industry and a host of current and future products. In some cases, ultrathin coatings are formed to have a nanograined structure (directly from a dispersion of nanoparticles, or by another process specially controlled to yield a nanostructure when deposited), or they are current coatings that are sufficiently thin to meet the definition of a nanofilm. Regardless of their path to formation, they hold promise for improved performance in the future.

SCOPE OF STUDY

The report contains:

  • Analyses of the major thin film materials and nanomaterials used by eight major industries
  • Examination of the materials technologies, including the latest trends and advantages of ultrathin films and processing technology
  • Analyses of the current status of, and future demand for existing nanofilms
  • Estimates of the value of emerging nanofilms for each industry
  • Forecasts for growth through 2008
  • Examination of government and industry support for nanofilms and nanotechnology in general.

METHODOLOGY

BCC presents an analysis of the value of materials in 2003 and 2008 for each major industry. Our estimated value is what manufacturers have paid in undepreciated dollars. Based on our surveys, we analyze the potential value of future consumption of thin films, existing nanofilms and emerging nanofilms, and then forecast the value of these materials for 2008. We also indicate the approximate year that projected new nanofilms will be in the market and their value.

INFORMATION SOURCES

BCC surveyed approximately 100 companies to obtain data for this study. Included were manufacturers of nanomaterials, nanofilms, thin films, deposition equipment, semiconductors, microelectronic components, flat panel displays, photovoltaic cells and modules, data storage systems, tape and optical disks, optical instruments and other products, medical devices and diagnostic equipment. We also spoke with equipment users in a variety of industries and we compiled data from current financial/trade information and government sources.

TABLE OF CONTENTS

INTRODUCTION

    • STUDY GOALS AND OBJECTIVES
    • REASONS FOR DOING THIS STUDY
    • CONTRIBUTIONS TO THE STUDY AND FOR WHOM
    • SCOPE AND FORMAT
    • METHODOLOGY
    • INFORMATION SOURCES
    • ANALYSTS CREDENTIALS
    • RELATED BCC WORK CREDENTIALS
    • MONTHLY NEWSLETTERS
    • BCC ONLINE SERVICES

SUMMARY

  • Summary Table:
    VALUE OF WORLDWIDE SHIPMENTS OF THIN FILMS AND NANOFILMS, THROUGH 2008 ($ MILLIONS)
  • Summary Figure:
    VALUE OF WORLDWIDE SHIPMENTS OF THIN FILMS AND NANOFILMS, 2003-2008 ($ MILLIONS)

OVERVIEW

    • NANOMATERIALS
    • NANOFILMS
  • Table 1 SCOPE OF NANOFILMS
      • WHY NANOFILMS?
  • Table 2 OVERALL ADVANTAGES OF NANOFILMS
      • NANOFILM APPLICATIONS
  • Table 3 LEADING APPLICATIONS FOR NANOFILMS

INDUSTRY STRUCTURE

    • LEADING COMPANIES
  • Table 4 LEADING COMPANIES IN THE NANOFILM BUSINESS
  • Table 4 (CONTINUED)
      • COMPANY CHARACTERISTICS
    • OTHER COMPANIES INVOLVED IN NANOFILMS
  • Table 5 OTHER COMPANIES DEPOSITING BOTH TRADITIONAL AND ESTABLISHED NANOFILMS
    • CURRENT WORLDWIDE MARKET SHARES
  • Table 6 WORLDWIDE MARKET SHARES OF NANOFILMS BY REGION, 2003 AND 2008 (%)
    • COMPANY PROFILES
      • ADVANCED NANO PRODUCTS CO. LTD., SOUTH KOREA
      • ALTAIR NANOTECHNOLOGIES, RENO, NV
      • DEGUSSA ADVANCED NANOMATERIALS, HANAU-WOLFGANG, GERMANY
      • GENERAL NANOTECHNOLOGY, BERKELEY, CA
      • KONARKA TECHNOLOGIES INC., LOWELL, MA
      • NANOFILM, VALLEY VIEW, OH
      • NANOGATE, SAARBRUCKEN, GERMANY
      • NANOMATERIALS RESEARCH, LLC, LONGMONT, CO
      • NANOPHASE TECHNOLOGIES CORP., ROMEVILLE, IL
      • NANOMATERIALS TECHNOLOGY, SINGAPORE
      • NANO SCALE SURFACE SYSTEMS, INC., ALAMEDA, CA
      • NANOTECHNOLOGIES INC., AUSTIN, TEXAS
      • NEOPHOTONICS, SAN JOSE, CA
      • OPTIVA, INC., SAN FRANCISCO, CA
        • Optiva, Inc., San Francisco, CA (Continued)

NANOFILM TECHNOLOGY

    • THE BASIC THERMAL CHEMICAL VAPOR DEPOSITION PROCESS
      • METALLO-ORGANIC CVD
  • Table 7 KEY TECHNICAL ADVANTAGES OF MOCVD
      • PLASMA-ENHANCED CVD
  • Table 8 MAJOR ADVANTAGES OF PLASMA-ENHANCED CVD
    • THE BASIC PHYSICAL VAPOR DEPOSITION PROCESS
      • THE EVAPORATION PROCESS
  • Table 9 PVD EVAPORATION SOURCES
        • Major Advantages of Evaporation
  • Table 10 MAJOR ADVANTAGES OF EVAPORATION
      • THE SPUTTERING PROCESS
        • Radio Frequency and Direct Current Diode Sputtering
        • Magnetically Enhanced Sputtering
          • Magnetron Sputtering
        • Reactive Sputtering
  • Table 11 MAJOR ADVANTAGES OF THE SPUTTERING PROCESS
      • PULSED LASER DEPOSITION
        • Basic Components
  • Table 12 KEY ADVANTAGES OF PULSED LASER DEPOSITION
    • OTHER AND EMERGING DEPOSITION/COATING PROCESSES
      • LASER REACTIVE DEPOSITION
  • Table 13 BASIC OPERATION OF LASER REACTIVE DEPOSITION
      • PYROGENIC PROCESSING
  • Table 14 CHARACTERISTICS OF PYROGENIC PROCESSING
      • ATOMIC LAYER DEPOSITION
  • Table 15 KEY BENEFITS OF ATOMIC LAYER DEPOSITION
      • SPIN COATING
      • DIP COATING
      • ROLL COATING
  • Table 16 BASIC ADVANTAGES OF ROLL COATING
      • THERMAL SPRAY COATING
        • Basic Technique
        • Plasma Spray Coating
  • Table 17 ADVANTAGES OF PLASMA SPRAY PROCESSING
      • LAYER-BY-LAYER ASSEMBLY
  • Table 18 KEY ADVANTAGES OF LAYER-BY-LAYER ASSEMBLY
    • PATENT ANALYSIS
      • PATENTS BY TECHNOLOGY
  • Table 19 PATENTS BY TYPE OF NANOFILM-RELATED TECHNOLOGY, 1999-2003 (%)
      • PATENTS BY WORLDWIDE REGION
  • Table 20 NANOFILM PATENTS BY WORLDWIDE REGION, 1999-2003 (%)
      • SAMPLE PATENT ABSTRACTS
        • Method for Modifying Surfaces with Ultra Thin Films
        • Magnetic Storage Medium Formed of Nanoparticles
        • Metallization Structures for Microelectronic Applications and Process for Forming the Structures
        • Nanostructure Coatings
        • Method of Forming a Thin Film of a Composite Metal Compound and Apparatus for carrying out that method
        • Thermal Spray Method for the formation of Nanostructured Coatings
        • Nanosize Particle Coatings made by Thermally Spraying Solution Precursor Feedstocks
        • SOI Substrate and Fabrication Process Therefore
    • TECHNICAL SUMMARY
      • TECHNICAL SUMMARY (CONTINUED)

INDUSTRY COMPETITIVENESS

    • THE NANOTECHNOLOGY ENVIRONMENT
      • NANOTECHNOLOGY PARTICIPATION
  • Table 21 TYPES OF ORGANIZATIONS INVOLVED IN NANOTECHNOLOGY (%)
        • Established and Emerging Materials
      • VENTURE CAPITAL AND NANOTECHNOLOGY
      • ENVIRONMENTAL CONTROVERSY
    • GOVERNMENT AND INDUSTRY INITIATIVES
      • UNITED STATES PROGRAMS
        • Nanotechnology R&D Act
  • Table 22 BASIC FEATURES OF THE NANOTECHNOLOGY R&D ACT
      • EUROPEAN INITIATIVES
  • Table 23 KEY OBJECTIVES OF NANOFORUM
      • JAPANESE ACTIVITY
        • Nanotechnology Researchers Network Center
  • Table 24 NANOTECHNOLOGY CENTER OF JAPAN SERVICES
      • ISRAEL'S PROGRAM
        • Israeli Nano Business Alliance
      • AUSTRALIAN EFFORTS
        • Nanomaterials Centre
  • Table 25 RESEARCH PROGRAMS AT NANOMAC
      • SUMMARY OF INITIATIVES
    • ECONOMIC ISSUES AND TECHNICAL CONSIDERATIONS
      • UNITED STATES
  • Table 26 LONG-TERM ASSUMPTIONS FOR THE U.S. ECONOMY AND NANOTECHNOLOGY
      • EUROPE
      • ASIA/PACIFIC
  • Table 27 ASIA/PACIFIC REGION ECONOMIC AND TECHNOLOGICAL IMPACT ON NANOTECHNOLOGY
    • MARKET GROWTH FACTORS
      • DRIVING FORCES
      • IMPACT OF MARKET GROWTH FACTORS
  • Table 28 PERCENTAGE IMPACT OF MAJOR COMPETITIVE FACTORS IN THE GROWTH OF NANOFILMS (%)

NANOFILM MARKETS

    • INDUSTRY APPROACH
      • MEASUREMENT OBJECTIVES
        • Terminology

NANOFILMS IN THE MICROELECTRONICS INDUSTRY

    • MICROELECTRONIC PRODUCT DEFINITION
  • Table 29 BASIC KINDS OF MICROELECTRONIC PRODUCTS
      • CHANGING PRODUCT CHARACTERISTICS
  • Table 30 CHARACTERISTICS OF AN INTEGRATED CIRCUIT
    • MICROELECTRONIC PRODUCTS APPLICATIONS
      • INTEGRATED CIRCUITS
      • USE OF THIN FILM MATERIALS IN INTEGRATED CIRCUITS
        • Major Materials Used in Semiconductors
  • Table 31 KEY THIN FILM MATERIALS USED IN THE FABRICATION OF SEMICONDUCTORS
          • Emerging Dielectric Materials
  • Table 32 DESIRED DIELECTRIC PROPERTIES FOR MICROELECTRONICS
        • Deposition of Thin Films
  • Table 33 PREFERRED DEPOSITION OF THIN FILM MATERIALS FOR IC PRODUCTS, BY METHOD
        • Metallization Layers of Integrated Circuits
          • Interconnects
          • Barrier Layers
          • Contact and Adhesion Layers
      • OTHER MICROELECTRONIC PRODUCTS
        • Flat Panel Displays
  • Table 34 MAJOR MATERIALS USED IN DISPLAYS
        • Electronic Components
  • Table 35 KEY MATERIALS USED IN OTHER ELECTRONIC COMPONENTS
    • THIN FILM REQUIREMENTS FOR MICROELECTRONICS
  • Table 36 TYPICAL THIN FILM REQUIREMENTS FOR MICROELECTRONIC APPLICATIONS
    • NANOFILMS IN MICROELECTRONICS
      • CHANGING SEMICONDUCTOR APPLICATIONS AND REQUIREMENTS
        • Copper Interconnect Technology
        • Dielectric Processing
        • Shrinking Geometry
  • Table 37 CHANGES IN SEMICONDUCTORS REQUIRING THINNER FILMS
      • CHANGING DISPLAY APPLICATIONS AND REQUIREMENTS
  • Table 38 TYPICAL THIN FILM REQUIREMENTS FOR ADVANCED DISPLAY APPLICATIONS
        • Technology Trends
      • NANOFILM TECHNOLOGY
        • Established Nanofilms
        • Emerging Nanofilms
        • A Unique Semiconductor Problem
        • Solutions
      • ADVANTAGES OF NANOMATERIALS IN MICROELECTRONICS
  • Table 39 BENEFITS OF NANOFILMS IN MICROELECTRONIC APPLICATIONS
    • MARKET DRIVERS AND TRENDS
      • MICROELECTRONIC PRODUCT DEMAND
  • Table 40 GLOBAL DEMAND FOR MICROELECTRONIC PRODUCTS, 1998-2003 ($ BILLIONS)
        • Projected Growth Rate of Microelectronic Products
  • Table 41 PROJECTED GLOBAL DEMAND FOR MICROELECTRONIC PRODUCTS, THROUGH 2008 ($ BILLIONS)
  • Figure 1 PROJECTED GLOBAL DEMAND MICROELECTRONIC PRODUCTS, 2003 AND 2008 ($ BILLIONS)
      • MATERIALS DEMAND
  • Table 42 DEMAND FOR MATERIALS USED FOR MICROELECTRONIC PRODUCTS, 1998-2003
      • DEMAND FOR NANOMATERIALS
  • Table 43 MAJOR APPLICATIONS FOR NANOFILMS IN MICROELECTRONIC APPLICATIONS
        • Emerging Nanomaterials
        • Measurement Considerations
      • FORECAST ASSUMPTIONS-VALUE OF NANOFILMS
  • Table 44 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE MICROELECTRONICS INDUSTRY
  • Table 45 FORECAST-VALUE OF MATERIALS DEPOSITED FOR USE IN THE MICROELECTRONICS INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Figure 2 VALUE OF MATERIALS DEPOSITED FOR USE IN THE MICROELECTRONICS INDUSTRY, 2003-2008 ($ MILLIONS)
      • VALUE OF NANOFILM MATERIALS BY PROCESS
  • Table 46 VALUE OF MICROELECTRONIC THIN FILMS AND NANOFILMS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)
  • Figure 3 VALUE OF NANOMATERIALS BY PROCESS TECHNOLOGY IN THE MICROELECTRONICS INDUSTRY, 2003-2008 ($ MILLIONS)
        • Thin Film Allocation
  • Table 47 THIN FILMS AND NANOFILMS BY SEGMENT IN THE MICROELECTRONICS INDUSTRY, THROUGH 2008
  • Figure 4 USE OF NANOFILMS BY SEGMENT IN THE MICROELECTRONICS INDUSTRY, 2003-2008

NANOFILMS IN THE STORAGE INDUSTRY

    • NANOFILMS IN THE STORAGE INDUSTRY
    • PRODUCT DEFINITION
  • Table 48 REPRESENTATIVE STORAGE PRODUCTS
    • STORAGE APPLICATIONS
      • SUBSTRATE MATERIALS
  • Table 49 KEY STORAGE APPLICATIONS BY SUBSTRATE MATERIAL
        • Tape Substrates
          • Magnetic Tape Carriers
        • Disk Substrates
        • Optical Recording Media Substrates
      • USE OF THIN FILMS IN THE STORAGE INDUSTRY
        • Film Use in Tape Products
  • Table 50 DEVELOPMENT OF TAPE STORAGE MATERIALS
        • Thin Films in Disk Products
          • Key Thin Films
  • Table 51 MAJOR THIN FILMS USED IN THE FABRICATION OF STORAGE DEVICES
    • THIN FILM REQUIREMENTS FOR STORAGE MEDIA
  • Table 52 TYPICAL THIN FILM REQUIREMENTS FOR DATA STORAGE APPLICATIONS
    • NANOFILMS IN THE STORAGE INDUSTRY
      • CHANGING DATA STORAGE REQUIREMENTS
        • Tape Data Storage
        • Magnetic Data Storage
        • Optical Data Storage
          • Optical Data Storage (Continued)
  • Table 53 CHANGES IN INFORMATION STORAGE THAT MAY IMPACT DEMAND FOR NANOFILMS
      • NANOFILM TECHNOLOGY
        • Established Nanofilms
        • Emerging Nanofilms
          • Tape Cartridges
          • Magnetic Structures
          • Other Nanotechnology Efforts
      • ADVANTAGES OF NANOMATERIALS IN INFORMATION STORAGE
  • Table 54 BENEFITS OF NANOFILMS IN INFORMATION STORAGE APPLICATIONS
    • MARKET DRIVERS AND TRENDS
      • STORAGE PRODUCT DEMAND
  • Table 55 GLOBAL DEMAND FOR STORAGE PRODUCTS, 1998-2003 ($ BILLIONS)
        • Projected Growth of Storage Products
  • Table 56 PROJECTED GLOBAL DEMAND FOR STORAGE PRODUCTS, THROUGH 2008 ($ BILLIONS)
  • Figure 5 PROJECTED GROWTH OF STORAGE PRODUCT DEMAND, 2003 AND 2008 ($ BILLIONS)
      • MATERIALS DEMAND
  • Table 57 DEMAND FOR MATERIALS USED FOR STORAGE PRODUCTS, 1998-2003
      • DEMAND FOR NANOMATERIALS
  • Table 58 MAJOR APPLICATIONS FOR NANOFILMS IN STORAGE APPLICATIONS
        • Emerging Nanomaterials
        • Measurement Considerations
      • FORECAST ASSUMPTIONS-VALUE OF NANOFILM SHIPMENTS
  • Table 59 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE INFORMATION STORAGE INDUSTRY
  • Table 60 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE INFORMATION STORAGE INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Figure 6 VALUE OF NANOMATERIALS PROJECTED FOR THE INFORMATION STORAGE INDUSTRY, 2003-2008 ($ MILLIONS)
      • VALUE OF STORAGE MATERIALS BY PROCESS
  • Table 61 VALUE OF THIN FILMS AND NANOFILMS USED IN STORAGE APPLICATIONS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)
  • Figure 7 VALUE OF NANOMATERIALS FOR STORAGE APPLICATIONS BY PROCESS TECHNOLOGY, 2003-2008 ($ MILLIONS)

NANOFILMS FOR SOLAR ENERGY

    • NANOFILMS FOR SOLAR ENERGY
    • PRODUCT DEFINITION
  • Table 62 MAJOR PHOTOVOLTAIC PRODUCTS
      • THE PHOTOVOLTAIC EFFECT
        • The Photovoltaic Effect (Continued)
    • THIN FILM SOLAR APPLICATIONS
  • Table 63 OBJECTIVES OF THIN FILM SOLAR CELLS
      • THIN FILM USAGE IN THE SOLAR INDUSTRY
        • Amorphous Silicon
          • Properties of a-Si
  • Table 64 MAJOR ADVANTAGES OF AMORPHOUS SILICON
        • Polycrystalline Silicon Film
        • Copper Indium Diselenide
  • Table 65 CELL STRUCTURE OF POLYCRYSTALLINE THIN FILM
        • Cadmium Telluride
  • Table 66 MAJOR CONCERNS WITH CADMIUM TELLURIDE
        • Gallium Arsenide
          • Properties of Gallium Arsenide
  • Table 67 KEY PROPERTIES OF GALLIUM ARSENIDE
    • THIN FILM REQUIREMENTS IN THE SOLAR ENERGY INDUSTRY
  • Table 68 TYPICAL THIN FILM REQUIREMENTS FOR SOLAR ENERGY
    • NANOFILMS IN THE SOLAR ENERGY MARKET
      • NANOTECHNOLOGY-RELATED EFFORTS
        • Self-Assembling Solar Cells
  • Table 69 BASIC ADVANTAGES OF ORGANIC SOLAR CELLS
        • Nanoparticles for Solar Cells
      • OTHER EFFORTS TO DEVELOP NANOMATERIALS
        • Dye-Coated Nanometer-Scale Crystals
        • How It Works
  • Table 70 SCHEMATIC OF PV CRYSTAL PROCESS
        • Nanofilms on Flexible Substrates
      • ADVANTAGES OF NANOMATERIALS IN SOLAR ENERGY
  • Table 71 BENEFITS OF NANOFILMS IN SOLAR ENERGY APPLICATIONS
    • MARKET DRIVERS AND TRENDS
      • PHOTOVOLTAIC PRODUCT DEMAND
  • Table 72 GLOBAL DEMAND FOR THIN FILM PHOTOVOLTAIC PRODUCTS, 1998-2003 ($ MILLIONS)
        • Projected Growth Rate for Thin Film PV Modules
  • Table 73 PROJECTED GLOBAL DEMAND FOR THIN FILM PV CELLS, THROUGH 2008 ($ MILLIONS)
  • Figure 8 DEMAND FOR THIN FILM PV CELLS, 2003 AND 2008 ($ MILLIONS)
      • MATERIALS DEMAND
        • Materials Cost
  • Table 74 PROJECTED DEMAND FOR PV THIN FILM AND NANO FILMS MATERIALS, THROUGH 2008 ($ MILLIONS)
      • DEMAND FOR NANOMATERIALS
  • Table 75 MAJOR APPLICATIONS FOR NANOFILMS IN THE SOLAR ENERGY INDUSTRY
      • FORECAST ASSUMPTIONS-NANOFILMS FOR SOLAR ENERGY
  • Table 76 FORECAST ASSUMPTIONS-NANOFILMS IN THE SOLAR ENERGY INDUSTRY
  • Table 77 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE PHOTOVOLTAICS INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Figure 9 SHIPMENTS OF NANOFILMS FOR PHOTOVOLTAICS, 2003-2008 ($ MILLIONS)
      • VALUE OF PV MATERIALS BY PROCESS
  • Table 78 VALUE OF THIN FILMS AND NANOFILMS FOR PHOTOVOLTAICS BY PROCESS, THROUGH 2008 ($ MILLIONS)
  • Figure 10 VALUE OF NANOFILMS FOR PHOTOVOLTAIC SYSTEMS BY PROCESSING METHOD, 2003-2008 ($ MILLIONS)

NANOFILMS IN THE OPTICS MARKET

    • PRODUCT DEFINITION
  • Table 79 BASIC TYPES OF OPTICAL PRODUCTS
      • OPTICAL COATING PROCESS TECHNOLOGY
    • OPTICS APPLICATIONS
  • Table 80 OVERVIEW OF OPTICS APPLICATIONS
      • EMERGING APPLICATIONS
    • MATERIALS USED IN OPTICAL APPLICATIONS
  • Table 81 MAJOR MATERIALS USED FOR OPTICAL COATINGS
    • THIN FILM REQUIREMENT IN OPTICS APPLICATIONS
  • Table 82 BASIC THIN FILM REQUIREMENTS FOR OPTICAL COATING APPLICATIONS
    • NANOFILMS IN OPTICS
      • CHANGING OPTICAL APPLICATIONS AND REQUIREMENTS
      • NANOFILM TECHNOLOGY
        • Established Nanofilms
  • Table 83 MAJOR APPLICATIONS FOR NANOFILMS IN OPTICAL APPLICATIONS
        • Emerging Nanofilms
          • Self-Cleaning Properties
          • Properties for Ophthalmic Lenses
      • ADVANTAGES OF NANOFILMS IN OPTICS
  • Table 84 BENEFITS OF NANOFILMS IN OPTICAL APPLICATIONS
    • MARKET DRIVERS AND TRENDS
      • OPTICAL PRODUCT DEMAND
  • Table 85 GLOBAL DEMAND FOR OPTICAL PRODUCTS, 1998-2003 ($ BILLIONS)
        • Projected Growth Rate for Optical Products
  • Table 86 PROJECTED GLOBAL DEMAND FOR OPTICAL PRODUCTS, THROUGH 2008 ($ BILLIONS)
  • Figure 11 PROJECTED DEMAND FOR OPTICAL PRODUCTS, 2003 AND 2008 ($ BILLIONS)
      • MATERIALS DEMAND
  • Table 87 DEMAND FOR MATERIALS USED FOR OPTICAL PRODUCTS, 1998-2003
        • Measurement Considerations
      • FORECAST ASSUMPTIONS-VALUE OF NANOFILM SHIPMENTS
  • Table 88 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE OPTICS INDUSTRY
  • Table 89 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE OPTICAL PRODUCTS INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Figure 12 WORLDWIDE SHIPMENTS OF NANOFILMS FOR DEPOSITION IN THE OPTICAL PRODUCTS INDUSTRY, 2003 AND 2008 ($ MILLIONS)
      • VALUE OF OPTICAL NANOMATERIALS BY PROCESS
  • Table 90 VALUE OF NANOMATERIALS USED IN OPTICAL APPLICATIONS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)
  • Figure 13 WORLDWIDE SHIPMENTS OF NANOFILMS FOR OPTICAL PRODUCTS, 2003-2008 ($ MILLIONS)

NANOFILMS IN THE MEDICAL EQUIPMENT MARKET

    • PRODUCT DEFINITION
  • Table 91 BASIC TYPES OF MEDICAL DEVICES (%)
    • MEDICAL INDUSTRY APPLICATIONS
  • Table 92 OVERVIEW OF MEDICAL EQUIPMENT APPLICATIONS
      • EMERGING APPLICATIONS
    • MAJOR MATERIALS USED IN THE MEDICAL DEVICE INDUSTRY
  • Table 93 KEY THIN FILM MATERIALS USED IN THE MEDICAL DEVICE AND EQUIPMENT INDUSTRY
    • NANOFILMS IN THE MEDICAL INDUSTRY
      • CHANGING APPLICATIONS AND REQUIREMENTS
      • NANOFILM TECHNOLOGY
        • Established Nanofilms
          • How It Works
        • Emerging Nanofilms
      • ADVANTAGES OF NANOFILMS IN MEDICAL EQUIPMENT
  • Table 94 BENEFITS OF NANOFILMS IN MEDICAL DEVICE APPLICATIONS
    • MARKET DRIVERS AND TRENDS
      • MEDICAL PRODUCT DEMAND
  • Table 95 GLOBAL DEMAND OF MEDICAL PRODUCTS, 1998-2003 ($ BILLIONS)
        • Projected Growth of Medical Devices
  • Table 96 PROJECTED GLOBAL DEMAND FOR MEDICAL DEVICES, THROUGH 2008 ($ BILLIONS)
  • Figure 14 PROJECTED GROWTH OF MEDICAL DEVICE PRODUCTS, 2003 AND 2008 ($ BILLIONS)
      • MATERIALS DEMAND
  • Table 97 DEMAND FOR MATERIALS USED IN MEDICAL EQUIPMENT PRODUCTS, 1998-2003 ($ MILLIONS)
        • Measurement Considerations
        • Nanomaterials Demand
      • FORECAST ASSUMPTIONS-VALUE OF NANOFILM SHIPMENTS
  • Table 98 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE MEDICAL DEVICE MARKET
  • Table 99 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE MEDICAL DEVICE MARKET, THROUGH 2008 ($ MILLIONS)
  • Figure 15 VALUE OF NANOFILM SHIPMENTS FOR THE MEDICAL DEVICE INDUSTRY, 2003 AND 2008 ($ MILLIONS)
      • VALUE OF MATERIALS BY PROCESS
  • Table 100 VALUE OF THIN FILMS AND NANOFILMS USED IN MEDICAL DEVICE APPLICATIONS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)
  • Figure 16 SHIPMENTS OF NANOFILMS FOR THE MEDICAL DEVICE MARKET, 2003 AND 2008 ($ MILLIONS)

LIST OF TABLES

  • Summary Table:
    VALUE OF WORLDWIDE SHIPMENTS OF THIN FILMS AND NANOFILMS, THROUGH 2008 ($ MILLIONS)
  • Table 1 SCOPE OF NANOFILMS
  • Table 2 OVERALL ADVANTAGES OF NANOFILMS
  • Table 3 LEADING APPLICATIONS FOR NANOFILMS
  • Table 4 LEADING COMPANIES IN THE NANOFILM BUSINESS
  • Table 5 OTHER COMPANIES DEPOSITING BOTH TRADITIONAL AND ESTABLISHED NANOFILMS
  • Table 6 WORLDWIDE MARKET SHARES OF NANOFILMS BY REGION, 2003 AND 2008 (%)
  • Table 7 KEY TECHNICAL ADVANTAGES OF MOCVD
  • Table 8 MAJOR ADVANTAGES OF PLASMA-ENHANCED CVD
  • Table 9 PVD EVAPORATION SOURCES
  • Table 10 MAJOR ADVANTAGES OF EVAPORATION
  • Table 11 MAJOR ADVANTAGES OF THE SPUTTERING PROCESS
  • Table 12 KEY ADVANTAGES OF PULSED LASER DEPOSITION
  • Table 13 BASIC OPERATION OF LASER REACTIVE DEPOSITION
  • Table 14 CHARACTERISTICS OF PYROGENIC PROCESSING
  • Table 15 KEY BENEFITS OF ATOMIC LAYER DEPOSITION
  • Table 16 BASIC ADVANTAGES OF ROLL COATING
  • Table 17 ADVANTAGES OF PLASMA SPRAY PROCESSING
  • Table 18 KEY ADVANTAGES OF LAYER-BY-LAYER ASSEMBLY
  • Table 19 PATENTS BY TYPE OF NANOFILM-RELATED TECHNOLOGY, 1999-2003 (%)
  • Table 20 NANOFILM PATENTS BY WORLDWIDE REGION, 1999-2003 (%)
  • Table 21 TYPES OF ORGANIZATIONS INVOLVED IN NANOTECHNOLOGY (%)
  • Table 22 BASIC FEATURES OF THE NANOTECHNOLOGY R&D ACT
  • Table 23 KEY OBJECTIVES OF NANOFORUM
  • Table 24 NANOTECHNOLOGY CENTER OF JAPAN SERVICES
  • Table 25 RESEARCH PROGRAMS AT NANOMAC
  • Table 26 LONG-TERM ASSUMPTIONS FOR THE U.S. ECONOMY AND NANOTECHNOLOGY
  • Table 27 ASIA/PACIFIC REGION ECONOMIC AND TECHNOLOGICAL IMPACT ON NANOTECHNOLOGY
  • Table 28 PERCENTAGE IMPACT OF MAJOR COMPETITIVE FACTORS IN THE GROWTH OF NANOFILMS (%)
  • Table 29 BASIC KINDS OF MICROELECTRONIC PRODUCTS
  • Table 30 CHARACTERISTICS OF AN INTEGRATED CIRCUIT
  • Table 31 KEY THIN FILM MATERIALS USED IN THE FABRICATION OF SEMICONDUCTORS
  • Table 32 DESIRED DIELECTRIC PROPERTIES FOR MICROELECTRONICS
  • Table 33 PREFERRED DEPOSITION OF THIN FILM MATERIALS FOR IC PRODUCTS, BY METHOD
  • Table 34 MAJOR MATERIALS USED IN DISPLAYS
  • Table 35 KEY MATERIALS USED IN OTHER ELECTRONIC COMPONENTS
  • Table 36 TYPICAL THIN FILM REQUIREMENTS FOR MICROELECTRONIC APPLICATIONS
  • Table 37 CHANGES IN SEMICONDUCTORS REQUIRING THINNER FILMS
  • Table 38 TYPICAL THIN FILM REQUIREMENTS FOR ADVANCED DISPLAY APPLICATIONS
  • Table 39 BENEFITS OF NANOFILMS IN MICROELECTRONIC APPLICATIONS
  • Table 40 GLOBAL DEMAND FOR MICROELECTRONIC PRODUCTS, 1998-2003 ($ BILLIONS)
  • Table 41 PROJECTED GLOBAL DEMAND FOR MICROELECTRONIC PRODUCTS, THROUGH 2008 ($ BILLIONS)
  • Table 42 DEMAND FOR MATERIALS USED FOR MICROELECTRONIC PRODUCTS, 1998-2003
  • Table 43 MAJOR APPLICATIONS FOR NANOFILMS IN MICROELECTRONIC APPLICATIONS
  • Table 44 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE MICROELECTRONICS INDUSTRY
  • Table 45 FORECAST-VALUE OF MATERIALS DEPOSITED FOR USE IN THE MICROELECTRONICS INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Table 46 VALUE OF MICROELECTRONIC THIN FILMS AND NANOFILMS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)
  • Table 47 THIN FILMS AND NANOFILMS BY SEGMENT IN THE MICROELECTRONICS INDUSTRY, THROUGH 2008
  • Table 48 REPRESENTATIVE STORAGE PRODUCTS
  • Table 49 KEY STORAGE APPLICATIONS BY SUBSTRATE MATERIAL
  • Table 50 DEVELOPMENT OF TAPE STORAGE MATERIALS
  • Table 51 MAJOR THIN FILMS USED IN THE FABRICATION OF STORAGE DEVICES
  • Table 52 TYPICAL THIN FILM REQUIREMENTS FOR DATA STORAGE APPLICATIONS
  • Table 53 CHANGES IN INFORMATION STORAGE THAT MAY IMPACT DEMAND FOR NANOFILMS
  • Table 54 BENEFITS OF NANOFILMS IN INFORMATION STORAGE APPLICATIONS
  • Table 55 GLOBAL DEMAND FOR STORAGE PRODUCTS, 1998-2003 ($ BILLIONS)
  • Table 56 PROJECTED GLOBAL DEMAND FOR STORAGE PRODUCTS, THROUGH 2008 ($ BILLIONS)
  • Table 57 DEMAND FOR MATERIALS USED FOR STORAGE PRODUCTS, 1998-2003
  • Table 58 MAJOR APPLICATIONS FOR NANOFILMS IN STORAGE APPLICATIONS
  • Table 59 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE INFORMATION STORAGE INDUSTRY
  • Table 60 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE INFORMATION STORAGE INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Table 61 VALUE OF THIN FILMS AND NANOFILMS USED IN STORAGE APPLICATIONS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)
  • Table 62 MAJOR PHOTOVOLTAIC PRODUCTS
  • Table 63 OBJECTIVES OF THIN FILM SOLAR CELLS
  • Table 64 MAJOR ADVANTAGES OF AMORPHOUS SILICON
  • Table 65 CELL STRUCTURE OF POLYCRYSTALLINE THIN FILM
  • Table 66 MAJOR CONCERNS WITH CADMIUM TELLURIDE
  • Table 67 KEY PROPERTIES OF GALLIUM ARSENIDE
  • Table 68 TYPICAL THIN FILM REQUIREMENTS FOR SOLAR ENERGY
  • Table 69 BASIC ADVANTAGES OF ORGANIC SOLAR CELLS
  • Table 70 SCHEMATIC OF PV CRYSTAL PROCESS
  • Table 71 BENEFITS OF NANOFILMS IN SOLAR ENERGY APPLICATIONS
  • Table 72 GLOBAL DEMAND FOR THIN FILM PHOTOVOLTAIC PRODUCTS, 1998-2003 ($ MILLIONS)
  • Table 73 PROJECTED GLOBAL DEMAND FOR THIN FILM PV CELLS, THROUGH 2008 ($ MILLIONS)
  • Table 74 PROJECTED DEMAND FOR PV THIN FILM AND NANO FILMS MATERIALS, THROUGH 2008 ($ MILLIONS)
  • Table 75 MAJOR APPLICATIONS FOR NANOFILMS IN THE SOLAR ENERGY INDUSTRY
  • Table 76 FORECAST ASSUMPTIONS-NANOFILMS IN THE SOLAR ENERGY INDUSTRY
  • Table 77 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE PHOTOVOLTAICS INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Table 78 VALUE OF THIN FILMS AND NANOFILMS FOR PHOTOVOLTAICS BY PROCESS, THROUGH 2008 ($ MILLIONS)
  • Table 79 BASIC TYPES OF OPTICAL PRODUCTS
  • Table 80 OVERVIEW OF OPTICS APPLICATIONS
  • Table 81 MAJOR MATERIALS USED FOR OPTICAL COATINGS
  • Table 82 BASIC THIN FILM REQUIREMENTS FOR OPTICAL COATING APPLICATIONS
  • Table 83 MAJOR APPLICATIONS FOR NANOFILMS IN OPTICAL APPLICATIONS
  • Table 84 BENEFITS OF NANOFILMS IN OPTICAL APPLICATIONS
  • Table 85 GLOBAL DEMAND FOR OPTICAL PRODUCTS, 1998-2003 ($ BILLIONS)
  • Table 86 PROJECTED GLOBAL DEMAND FOR OPTICAL PRODUCTS, THROUGH 2008 ($ BILLIONS)
  • Table 87 DEMAND FOR MATERIALS USED FOR OPTICAL PRODUCTS, 1998-2003
  • Table 88 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE OPTICS INDUSTRY
  • Table 89 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE OPTICAL PRODUCTS INDUSTRY, THROUGH 2008 ($ MILLIONS)
  • Table 90 VALUE OF NANOMATERIALS USED IN OPTICAL APPLICATIONS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)
  • Table 91 BASIC TYPES OF MEDICAL DEVICES (%)
  • Table 92 OVERVIEW OF MEDICAL EQUIPMENT APPLICATIONS
  • Table 93 KEY THIN FILM MATERIALS USED IN THE MEDICAL DEVICE AND EQUIPMENT INDUSTRY
  • Table 94 BENEFITS OF NANOFILMS IN MEDICAL DEVICE APPLICATIONS
  • Table 95 GLOBAL DEMAND OF MEDICAL PRODUCTS, 1998-2003 ($ BILLIONS)
  • Table 96 PROJECTED GLOBAL DEMAND FOR MEDICAL DEVICES, THROUGH 2008 ($ BILLIONS)
  • Table 97 DEMAND FOR MATERIALS USED IN MEDICAL EQUIPMENT PRODUCTS, 1998-2003 ($ MILLIONS)
  • Table 98 FORECAST ASSUMPTIONS-NANOFILM GROWTH IN THE MEDICAL DEVICE MARKET
  • Table 99 FORECAST-VALUE OF THIN FILMS AND NANOFILMS DEPOSITED FOR USE IN THE MEDICAL DEVICE MARKET, THROUGH 2008 ($ MILLIONS)
  • Table 100 VALUE OF THIN FILMS AND NANOFILMS USED IN MEDICAL DEVICE APPLICATIONS BY PROCESS TECHNOLOGY, THROUGH 2008 ($ MILLIONS)

LIST OF FIGURES

  • Summary Figure:
    VALUE OF WORLDWIDE SHIPMENTS OF THIN FILMS AND NANOFILMS, 2003-2008 ($ MILLIONS)
  • Figure 1 PROJECTED GLOBAL DEMAND MICROELECTRONIC PRODUCTS, 2003 AND 2008 ($ BILLIONS)
  • Figure 2 VALUE OF MATERIALS DEPOSITED FOR USE IN THE MICROELECTRONICS INDUSTRY, 2003-2008 ($ MILLIONS)
  • Figure 3 VALUE OF NANOMATERIALS BY PROCESS TECHNOLOGY IN THE MICROELECTRONICS INDUSTRY, 2003-2008 ($ MILLIONS)
  • Figure 4 USE OF NANOFILMS BY SEGMENT IN THE MICROELECTRONICS INDUSTRY, 2003-2008
  • Figure 5 PROJECTED GROWTH OF STORAGE PRODUCT DEMAND, 2003 AND 2008 ($ BILLIONS)
  • Figure 6 VALUE OF NANOMATERIALS PROJECTED FOR THE INFORMATION STORAGE INDUSTRY, 2003-2008 ($ MILLIONS)
  • Figure 7 VALUE OF NANOMATERIALS FOR STORAGE APPLICATIONS BY PROCESS TECHNOLOGY, 2003-2008 ($ MILLIONS)
  • Figure 8 DEMAND FOR THIN FILM PV CELLS, 2003 AND 2008 ($ MILLIONS)
  • Figure 9 SHIPMENTS OF NANOFILMS FOR PHOTOVOLTAICS, 2003-2008 ($ MILLIONS)
  • Figure 10 VALUE OF NANOFILMS FOR PHOTOVOLTAIC SYSTEMS BY PROCESSING METHOD, 2003-2008 ($ MILLIONS)
  • Figure 11 PROJECTED DEMAND FOR OPTICAL PRODUCTS, 2003 AND 2008 ($ BILLIONS)
  • Figure 12 WORLDWIDE SHIPMENTS OF NANOFILMS FOR DEPOSITION IN THE OPTICAL PRODUCTS INDUSTRY, 2003 AND 2008 ($ MILLIONS)
  • Figure 13 WORLDWIDE SHIPMENTS OF NANOFILMS FOR OPTICAL PRODUCTS, 2003-2008 ($ MILLIONS)
  • Figure 14 PROJECTED GROWTH OF MEDICAL DEVICE PRODUCTS, 2003 AND 2008 ($ BILLIONS)
  • Figure 15 VALUE OF NANOFILM SHIPMENTS FOR THE MEDICAL DEVICE INDUSTRY, 2003 AND 2008 ($ MILLIONS)
  • Figure 16 SHIPMENTS OF NANOFILMS FOR THE MEDICAL DEVICE MARKET, 2003 AND 2008 ($ MILLIONS)

Nanofilms: Markets and Technologies

Publisher: Business Communications Co., Inc.

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