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Diamonds have long held a special place in the hearts and minds of both scientists and the public at large. Diamonds are the hardest material known and have the highest thermal conductivity among all known materials. Combined with these important properties, diamonds have very low thermal expansion and high electrical resistance. Because of their hardness, diamonds are far more effective and efficient than other competing materials used for abrasive, cutting, shaping, or finishing tools. The very high thermal conductivity of diamonds makes them ideal for spreading and conducting heat out of compact, high-power, high-speed electronic packages.
Industrial diamonds have been synthesized commercially for more than 40 years using high-pressure, high-temperature (HPHT) techniques in which diamond is crystallized from metal-solvated carbon at a pressure of about 50 kbar to 100 kbar and a temperature of about 1,800 K to 2,300 K.
A low-pressure technique to produce diamonds, using chemical vapor deposition (CVD), drew worldwide attention in the mid-1980s. There has been an explosion of interest in CVD diamond, diamond-like, and cubic boron nitride (CBN) films and coatings. These films are expected to be used in a variety of applications, from cutting tools to wear-resistant parts and from electronics to optical applications. One advantage of CVD diamond technology over high-pressure technology is low cost and its ability to coat any shape.
Several new mass-production technologies for producing diamonds and diamond-like films have emerged since the mid-1990s, including the production of diamond-like coatings for razor blades. Since the advent of these new technologies, diamond and diamond-like films, and coated products have reached a greater level of penetration in their applications.
Thick and thin diamond films have advantages when incorporated in laser diodes and microwave electronic packages due to their extremely high thermal conductivity coupled with excellent dielectric properties. Also, large substrates are now available, and a variety of package designs are possible with CVD diamonds. Tool inserts with CVD diamond thick-film blanks or thin-film coatings constitute the newest tool materials. Diamond-like thin films are finding increasing application in coating automotive components such as brake rotors and gears. Diamond and diamond-like coatings are also being used more in optical applications, such as sunglasses, ophthalmic lenses, and infrared (IR) windows. New-generation electronic devices such as surface acoustic wave (SAW) and micro-electromechanical systems (MEMS) are also using diamond films.
STUDY GOALS AND OBJECTIVES
To provide a technological overview of the various diamond, diamond-like, and CBN thin films and coated products, their production technologies, and status of the current and emerging technologies
To identify and describe existing and new applications for diamond, diamond-like, and CBN films/coated products;
To identify the technological and business issues related to the development and commercial production of diamond, diamond-like, and CBN films and coated products;
To determine the current size and future growth of the U.S. and worldwide markets for diamond, diamond-like, and CBN thin films and products;
To analyze domestic and foreign competition among companies within diamond, diamond-like, and CBN films and their product market segments;
To identify and profile U.S. and foreign producers and those entities involved in the development of diamond, diamond-like, and CBN films and products;
To conduct a patent analysis to evaluate the international competition in the issuance of patents between countries and companies.
CONTRIBUTION OF THE STUDY
This research report illustrates the depth, breadth, and results of recent research and development (R&D), in both the U.S. and foreign countries, aimed at the growth and characterization of thin films of diamonds, CBN, diamond-like, and similar materials and the development of new applications for these materials.
The qualitative and quantitative judgments embodied in this report are a valuable contribution to the current technical knowledge and R&D of diamond, diamond-like, and CBN thin films/coated products. Along with new developments comes the need for decisions by a number of companies on future involvement strategies. This report provides an in-depth analysis of the new emerging technologies, improvements in existing technologies, application developments, and market opportunities through 2015.
SCOPE OF REPORT
This report provides a detailed technology overview for diamond, diamond-like, and CBN thin and thick films, including current production techniques, properties, and applications as well as new developments. Market analyses have been provided for each of the application segments.
The emphasis is on technology and market developments that have taken place since the previous edition of this report was published in 2007. Some of the “new” developments listed in this section were also presented in the 2007 edition. However, 3 years is a short time period for any new technology to take off; therefore, these developments are repeated within this section.
INTENDED AUDIENCE
This report is directed to the various types of companies that are interested in the developments in this field, such as:
Companies involved in developing, manufacturing, and supplying advanced materials;
Developers and producers of diamonds, diamond-like, and CBN films and coatings;
Manufacturers and suppliers of industrial diamonds and CBN materials;
Manufacturers and suppliers of diamonds and CBN products;
Manufacturers and suppliers of advanced ceramic materials and components;
Producers and suppliers of advanced electronic and optical components;
Producers and suppliers of machine tool inserts;
Producers of wear-resistant and automotive components;
Producers of sunglasses, ophthalmic lenses, IR windows, and other optical materials;
Electronic, automotive, computer, aerospace, and telecommunication companies;
Producers of razor blades, surgical blades, and golf clubs; and
Advanced-material companies interested in diversification.
TABLE OF CONTENTS
CHAPTER ONE: INTRODUCTION
INTRODUCTION
STUDY GOALS AND OBJECTIVES
CONTRIBUTION OF THE STUDY
SCOPE OF REPORT
METHODOLOGY AND INFORMATION SOURCES
INTENDED AUDIENCE
ANALYST CREDENTIALS
DISCLAIMER
CHAPTER TWO: EXECUTIVE SUMMARY
SUMMARY TABLE GLOBAL MARKET FOR DIAMOND AND
DIAMOND-LIKE COATINGS, THROUGH 2015 ($ MILLIONS)
SUMMARY FIGURE GLOBAL MARKET FOR DIAMOND AND
DIAMOND-LIKE COATINGS, 2009-2015 ($ MILLIONS)
EXECUTIVE SUMMARY (CONTINUED)
CHAPTER THREE: TECHNOLOGY REVIEW
HISTORICAL PERSPECTIVE
EARLY WORK IN DIAMOND SYNTHESIS
Study by the Foreign Applied Sciences Assessment Center
The Validity of Early Work
Later Advances in Diamond Deposition
TYPES OF DIAMOND AND DIAMOND-LIKE FILMS/COATINGS
DIAMOND COATINGS AND FILMS
TABLE 1 PROPERTIES OF POLYCRYSTALLINE DIAMOND AND
DIAMOND-LIKE FILMS COMPARED TO NATURAL DIAMOND
DIAMOND-LIKE AND SIMILAR MATERIAL COATINGS AND
FILMS
Diamond-Like Hydrocarbons (DLHC or A:CH)
Diamond-Like Carbon (DLC or A:C-C)
Diamond-Like Nanocomposite (DLN)
Cubic Boron Nitride (CBN)
COMPETING TYPES OF MATERIALS
PROPERTIES OF DIAMOND/DIAMOND-LIKE COATINGS AND
FILMS
CHARACTERISTICS OF DIAMOND FILMS
TABLE 2 CHARACTERISTICS OF CVD DIAMOND FILM
TABLE 3 PROPERTIES OF DIAFILM OPTICAL-GRADE
POLYCRYSTALLINE DIAMOND MATERIAL SUPPLIED BY
ELEMENT SIX
TABLE 4 PROPERTIES OF CVD POLYCRYSTALLINE DIAMOND
MATERIAL FOR THERMAL MANAGEMENT SUBSTRATES
Characteristics of Diamond Films (Continued)
DIAMOND-LIKE COATINGS AND FILMS
TABLE 5 COMPARISON OF PROPERTIES: NATURAL, PCD/CVD
DIAMONDS, AND DIAMOND-LIKE CARBON FILMS
ADVANTAGES AND DISADVANTAGES OF CVD DIAMOND
TABLE 6 ADVANTAGES OF CVD DIAMOND
TABLE 7 DISADVANTAGES OF CVD DIAMOND
PRODUCTION TECHNIQUES
DIAMOND FILMS
TABLE 8 CURRENT PROCESSING TECHNOLOGIES FOR THIN AND
THICK DIAMOND FILMS
Chemical Vapor Deposition (CVD) Process
Plasma CVD
TABLE 9 PLASMA-ENHANCED CHEMICAL VAPOR DEPOSITION
(PECVD) PROCESSES FOR DIAMOND FILM GROWTH
DC Plasma Method
RF Induction Plasma
Microwave Plasma Torch
Plasma Process Comparisons
Other Plasma-Enhanced Techniques
Nonplasma Processes
TABLE 10 NONPLASMA DEPOSITION PROCESSES FOR DIAMOND
FILM GROWTH
Hybrid Processes
Vapor-Liquid-Solid (VLS) Growth
Using Buckyballs to Produce Diamond Films
Physical Vapor Deposition Processes
Basic Processes
TABLE 11 DEPOSITION DATA FOR DLC, BN, AND RELATED
COMPOSITES
TABLE 11 (CONTINUED)
TABLE 11 (CONTINUED)
Ion Plating
RF Plasma Deposition
Interactive Laser Techniques
QQC Process
Improvements in Diamond Films and Coatings
Technology
Improvements in Existing Technologies
Oriented Diamond Films on Si
Substrate
Diamond Synthesized on Glassy and
Oxide Substrates
Diamond Growth on Iron and Steel
Substrate
Models Simulate Diamond Deposition
by DC Arc Jet
Diamond Nucleation by Gas Phase
Seeding
The Influence of Ion Bombardment on
Diamond Film Orientation During
MPCVD
Nucleation and Early Growth of CVD
Diamond on Silicon Nitride
Development of Grinding Technology
for Diamond Film Coated Cutting
Tool
New Technologies
Pulsed Liquid Injection Chemical
Vapor Deposition
Micropatterns by ECR Oxygen Plasma
An Effective System for Diamond
Coating Deposition
Diamond Synthesized High-Pressure,
Hot-Filament CVD
Energy Efficient Microwave Diamond
Film Deposition System
Recent U.S. Diamond Coating Technology Patents
Recent U.S. (CONTINUED)
Diamond-like Materials and Coatings
TABLE 12 CURRENT PROCESSING TECHNOLOGIES FOR
DIAMOND-LIKE THIN FILMS
RF Plasma-Assisted CVD
Direct Ion Beam Deposition
Dual Ion Beam Deposition Configuration
Plasma Injection -- CVD Method
Hot-Filament Cathode Deposition System
Filtered Cathode Arc Source
Pulsed Laser Deposition DLC Coating with UV
Excimer Laser
New Developments in Diamond-Like Materials and
Coatings
Improvements in Existing Technologies
Hot-Filament CVD Produces Ultrahard
Carbon Nitride Film
Carbon Nitride Thin Films by ECR
Plasma
Diamond-like Coatings for Plastic Parts
Plasma Source Ion Injection
Improved PECVD for Applying
Diamond-Like Coatings to Pipe
Interiors
New Technologies
Metalorganic CVD of Ru-Doped DLC
Argonne Develops Superlow-Friction
DLC Films
Cathodic Arc Deposits Amorphous
Diamond
Arc Method Deposits Amorphous
Diamond
Highly Adhesive DLC Using Ion Beam
Mixing Methods
Recent U.S. Diamond-Like Coating Patents
Recent U.S. . (Continued)
CBN Coatings
TABLE 13 CURRENT PROCESSING TECHNOLOGIES FOR CBN
FILMS
New Developments in CBN Coatings
Improvement in Existing Technologies
Rectifying Characteristics of
Tungsten/P-Type CBN Films
Cathodic Arc Evaporation and
Magnetron Sputtering Deposited
BN Films
Improved Adhesion of Sputtered CBN
Films
Hard Wear-Resistant Layer Formation
in CBN Systems
New Technologies
CBN Films in a Two-Step Process
CBN Films Using Mass-Selected Ion
Beam Deposition
CBN Film Synthesized by Plasma-Jet
CVD
Nanostructured CBN Coating
Recent U.S. Cubic Boron Nitride Coating Patents
Recent U.S. . (Continued)
Recent U.S. . (Continued)
Recent U.S. . (Continued)
CHAPTER FOUR: APPLICATIONS FOR DIAMOND, DIAMOND-LIKE, AND CBN MATERIAL COATINGS AND FILMS
TABLE 14 CVD DIAMOND AND DLC APPLICATIONS
TABLE 14 (CONTINUED)
DIAMOND FILMS AND COATINGS
TOOLS AND WEAR-RESISTANT PARTS
TABLE 15 PROPERTIES OF DIAMOND TOOL MATERIALS, C-2
TUNGSTEN CARBIDE, AND SILICON NITRIDE
AUDIO SPEAKER DIAPHRAGMS
HEAT SINKS AND THERMAL MANAGEMENT SOLUTIONS
Diamond Film Substrate Application Size Potentials
READ/WRITE HEADS AND HARD DISKS
SEMICONDUCTORS
TABLE 16 COMPARISON OF PROPERTIES OF DIAMOND AND
OTHER SEMICONDUCTOR MATERIALS
High-Power Transistors
High-Performance (Rapid Response) Transistors
High-Temperature Transistors
Radiation-Hard Transistors
Reliable Electronics
SURFACE ACOUSTIC WAVE, SENSOR, AND OTHER
ELECTRONIC DEVICES
Surface Acoustic Wave Devices
Sensors
Thermistors
Piezoresistive Pressure Sensors
Micro-Electromechanical Systems
Other Electronic Devices
High-Power Microwave Tubes
High-Voltage Electronics
OPTICAL AND OPHTHALMIC COATINGS
TABLE 17 FIGURES OF MERIT FOR THERMAL STRESS
RESISTANCE
FIELD EMISSION DEVICES
MEDICAL DEVICES
Surgical and Medical Tools
Implants
CONSUMER APPLICATIONS
SPORTS EQUIPMENT
CORROSION-, WEAR-, AND TEMPERATURE-RESISTANT
APPLICATIONS
OTHER DIAMOND FILM APPLICATIONS
X-Ray Masks for Advanced Projection Photolithography
X-Ray Targets
Knives and Cutting Blades
DIAMOND-LIKE MATERIALS AND COATINGS
TABLE 18 DIAMOND-LIKE FILM APPLICATIONS
TABLE 19 CURRENT APPLICATIONS FOR HYDROGENATED DLC
TOOLS AND WEAR-RESISTANT PARTS
COMPUTER HARD DISKS
ELECTRONICS APPLICATIONS
OPTICAL APPLICATIONS
MEDICAL IMPLANTS
CONSUMER APPLICATIONS
WEAR- AND CORROSION-RESISTANT APPLICATIONS
OTHER APPLICATIONS
CBN COATINGS
CHAPTER FIVE: MARKETS
SUMMARY
MARKET SEGMENTS
APPLICATION SEGMENTS
TABLE 20 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
COATINGS BY APPLICATION SEGMENT, 20092015 ($ MILLIONS)
FIGURE 1 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
COATINGS, 20092015 ($ MILLIONS)
FIGURE 2 DIAMOND AND DIAMOND-LIKE COATING MARKET
SHARES BY APPLICATION, 2009 VS. 2015 (% OF TOTAL MARKET)
FIGURE 2 (CONTINUED)
Tools and Wear-Resistant Parts
TABLE 21 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
FILM IN TOOLS AND WEAR-RESISTANT PARTS, THROUGH 2015
($ MILLIONS)
Tools
TABLE 22 GLOBAL CONSUMPTION OF DIAMOND AND DIAMOND-
LIKE COATINGS FOR CUTTING TOOL INSERTS, 2009 ($
MILLIONS)
TABLE 23 PROJECTED CONSUMPTION OF DIAMOND AND
DIAMOND-LIKE COATINGS FOR CUTTING TOOL INSERTS,
THROUGH 2015 ($ MILLIONS)
Wear-resistant Parts
TABLE 24 PROJECTED CONSUMPTION OF DIAMOND AND
DIAMOND-LIKE COATINGS FOR CUTTING TOOL INSERTS,
THROUGH 2015 ($ MILLIONS)
Audio Speakers
TABLE 25 GLOBAL MARKET FOR DIAMOND IN HIGH-END AUDIO
SPEAKER APPLICATIONS, THROUGH 2015 ($ MILLIONS)
Thermal Management Devices
TABLE 26 GLOBAL MARKET FOR DIAMOND IN THERMAL
MANAGEMENT APPLICATIONS, THROUGH 2015 ($ MILLIONS)
Computer Hard Disk and Print/Recording Heads
TABLE 27 GLOBAL MARKET FOR DIAMOND-LIKE COATINGS IN
PRINT/RECORD HEADS AND HARD DISKS, THROUGH 2015 ($
MILLIONS)
Semiconductors
Surface Acoustic Wave (SAW), Sensors, and Other
Electronic Devices
TABLE 28 GLOBAL MARKET FOR DIAMOND MATERIALS USED IN
SAW FILTERS AND OTHER ELECTRONIC DEVICES, THROUGH
2015 ($ MILLIONS)
Surface Acoustic Wave Devices
TABLE 29 GLOBAL SALES OF NEXT GENERATION MOBILE
HANDSETS, THROUGH 2015
TABLE 30 GLOBAL MARKET FOR DIAMOND MATERIALS USED IN
SAW FILTERS, THROUGH 2015 ($ MILLIONS)
Sensors
TABLE 31 GLOBAL MARKET FOR DIAMOND MATERIALS USED IN
SENSOR APPLICATIONS, THROUGH 2015 ($ MILLIONS)
Optical Applications
TABLE 32 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
OPTICAL AND OPHTHALMIC COATINGS THROUGH 2015 ($
MILLIONS)
Cold Cathodes and Flat-panel Displays
TABLE 33 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
COATINGS IN FIELD EMISSION DEVICES THROUGH 2015 ($
MILLIONS)
Medical Devices
TABLE 34 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
COATINGS IN MEDICAL DEVICES, THROUGH 2015 ($ MILLIONS)
Consumer Applications
TABLE 35 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
COATINGS IN CONSUMER APPLICATIONS, THROUGH 2015 ($
MILLIONS)
Razor Blades
TABLE 36 GLOBAL MARKET FOR DIAMOND-LIKE COATINGS IN
RAZOR BLADE APPLICATIONS, THROUGH 2015 ($ MILLIONS)
Camera Lenses and Watch Glasses
TABLE 37 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
COATINGS IN CAMERA LENSES AND WATCH GLASSES,
THROUGH 2015 ($ MILLIONS)
Sports Equipment
TABLE 38 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
COATINGS IN SPORTS EQUIPMENT, THROUGH 2015 ($
MILLIONS)
Temperature- and Wear-Resistant Coatings
TABLE 39 GLOBAL MARKET FOR DIAMOND AND DIAMOND-LIKE
TEMPERATURE AND WEAR-RESISTANT COATINGS FOR
MILITARY APPLICATIONS, THROUGH 2015 ($ MILLIONS)
DIAMOND FILM VERSUS DIAMOND-LIKE FILM . 104
TABLE 40 DIAMOND FILM VS. DIAMOND-LIKE FILM USAGE BY
APPLICATION, 2009 ($ MILLION/%)
FIGURE 3 DIAMOND VS. DLC/CBN COATNG MARKET SHARES,
2009 VS. 2015 (%)
GEOGRAPHICAL MARKETS
FIGURE 4 REGIONAL MARKET SHARES FOR DIAMOND, CBN, AND
DIAMOND-LIKE THIN FILMS AND COATINGS, 2009 VS. 2015 (%
OF TOTAL MARKET)
CHAPTER SIX: INDUSTRY STRUCTURE AND COMPETITION
U.S. COMPANIES
TABLE 41 U.S. PRODUCERS OF DIAMOND THIN-FILM PRODUCTS
TABLE 42 U.S. SUPPLIERS OF DIAMOND THICK FILMS
TABLE 43 CURRENT AND POTENTIAL U.S. SUPPLIERS OF
DIAMOND-DEPOSITION SYSTEMS
INTERNATIONAL COMPETITION
CHAPTER SEVEN: COMPANY PROFILES
ADVANCED DIAMOND TECHNOLOGIES, INC.
ADVANCED TECHNOLOGY MATERIALS, INC.
ALCATEL-LUCENT
AMPLEX SUPERABRASIVES
APPLIED SCIENCES, INC.
BOEING COMPANY
CONTINENTAL INDUSTRIAL DIAMOND, INC.
CRYSTALLUME, INC.
DIAMOND INNOVATIONS, INC.
DIAMONEX, INC.
E.I. DUPONT DE NEMOURS & CO.
ELEMENT SIX, LTD.
FLOWSERVE CORP.
GLOBAL GILLETTE
GENERAL MOTORS CORP.
HARRIS INTERNATIONAL
IBM CORP.
I2A TECHNOLOGIES
IONBOND AG .
KENNAMETAL, INC.
LOVEJOY TOOL CO., INC.
NISU LABORATORIES
OERLIKON BALZERS COATING
QQC, INC.
RAYTHEON CO
SIEMENS AG
SURMET CORP.
TEXAS INSTRUMENTS, INC.
VEECO INSTRUMENTS, INC.
VERTEX DIAMOND TOOL CO.
XEROX CORP.
APPENDIX I: OTHER COMPANIES INVOLVED IN DIAMOND AND DIAMOND-LIKE FILMS AND COATINGS
AEA INDUSTRIAL TECHNOLOGY
BAE SYSTEMS
CANON, INC
CITIZEN WATCH CO., LTD.
DENKI KOGYO CO., LTD.
DAIMLERCHRYSLER AG
DAIMLERCHRYSLER AG
FUJITSU LABORATORIES, LTD
HITACHI, LTD
HOYA CORP.
IDEMITSU PETROCHEMICAL CO., LTD.
ISHIKAWAJIMA-HARIMA HEAVY INDUSTRIES, LTD.
JAPAN SYNTHETIC RUBBER CO., LTD.
KOBE STEEL, LTD.
KYOCERA CORP.
MATSUSHITA ELECTRIC INDUSTRIAL CO., LTD.
MITSUBISHI MATERIALS CORP.
MITSUI ENGINEERING & SHIPBUILDING CO., LTD.
MITSUI MINING CO., LTD.
MONSANTO JAPAN, LTD.
NATIONAL INSTITUTE FOR RESEARCH IN INORGANIC
MATERIALS (NIRIM) .
NATIONAL INSTITUTE OF AND TECHNOLOGY .
ADVANCED INDUSTRIAL SCIENCE .
NEC CORP.
NKK CORP. (NKK) .
NIKON CORP.
NORITAKE DIAMOND INDUSTRIES CO., LTD.
OKI ELECTRIC INDUSTRY CO., LTD.
REFMET CEAMICS LTD.
RICOH CO., LTD.
SANDVIK AB
SEIKO INSTRUMENTS, INC.
SHOWA DENKO K.K.
SONY CORP. . 129
SUMITOMO ELECTRIC INDUSTRY, LTD.
TDK CORP.
TEER COATINGS, LTD.
TOMEI DIAMOND CO., LTD.
TOSHIBA CORP. R&D CENTER
TOYOTA CRDL, INC.
ULVAC, INC.
VAKUUMTECHNIK GMBH
APPENDIX II: U.S. UNIVERSITIES AND INSTITUTIONS INVOLVED IN DIAMOND, CBN, AND DIAMOND-LIKE FILM RESEARCH
ARGONNE NATIONAL LABORATORY
AUBURN UNIVERSITY
CALIFORNIA INSTITUTE OF TECHNOLOGY
CASE WESTERN RESERVE UNIVERSITY
CITY UNIVERSITY
CLARKSON UNIVERSITY
CORNELL UNIVERSITY
DARPA TACTICAL TECHNOLOGY
DREXEL UNIVERSITY
ELECTRIC POWER RESEARCH INSTITUTE
GEORGIA INSTITUTE OF TECHNOLOGY
HARVARD UNIVERSITY
LAWRENCE BERKELEY LAB
LOS ALAMOS NATIONAL LABORATORY
MARSHALL UNIVERSITY
MASSACHUSETTS INSTITUTE OF TECHNOLOGY
MICHIGAN STATE UNIVERSITY
NASA LEWIS RESEARCH CENTER
NATIONAL INSTITUTE OF STANDARDS & TECHNOLOGY
NAVAL AIR DEVELOPMENT CENTER
NAVAL OCEAN SYSTEMS CENTER
NAVAL RESEARCH LABORATORY
NAVAL WEAPONS CENTER
NEW MEXICO INSTITUTE OF MINING & TECHNOLOGY
NORTH CAROLINA STATE UNIVERSITY
NORTHWESTERN UNIVERSITY
OAK RIDGE NATIONAL LABORATORY
OHIO STATE UNIVERSITY
OLIN COLLEGE OF ENGINEERING
PENNSYLVANIA STATE UNIVERSITY
RESEARCH TRIANGLE INSTITUTE
RICE UNIVERSITY
RUTGERS UNIVERSITY
SRI INTL.
SANDIA NATIONAL LABORATORIES
SANDIA NATIONAL LABORATORIES
STANFORD UNIVERSITY
UNIVERSITY OF ARKANSAS
UNIVERSITY OF CENTRAL FLORIDA
UNIVERSITY OF CINCINNATI
UNIVERSITY OF CINCINNATI
UNIVERSITY OF CALIFORNIA, BERKELEY
UNIVERSITY OF CALIFORNIA, LOS ANGELES
UNIVERSITY OF CONNECTICUT.
UNIVERSITY OF FLORIDA
UNIVERSITY OF LOUISVILLE
UNIVERSITY OF MICHIGAN
UNIVERSITY OF MINNESOTA
UNIVERSITY OF NEBRASKA
UNIVERSITY OF NORTH TEXAS
UNIVERSITY OF PITTSBURGH
UNIVERSITY OF TENNESSEE-KNOXVILLE
UNIVERSITY OF TEXAS AT ARLINGTON
UNIVERSITY OF TEXAS AT DALLAS
UNIVERSITY OF TULSA
UNIVERSITY OF UTAH
UNIVERSITY OF VIRGINIA
VANDERBILT UNIVERSITY
WASHINGTON STATE UNIVERSITY
WAYNE STATE UNIVERSITY
WRIGHT LABORATORY
APPENDIX III: FOREIGN UNIVERSITIES AND INSTITUTIONS INVOLVED IN DIAMOND, CBN, AND DIAMOND-LIKE FILM RESEARCH
AICHI UNIVERSITY OF EDUCATION
AOYAMA GAKUIN UNIVERSITY
BEIJING INSTITUTE OF TECHNOLOGY
BEIJING UNIVERSITY OF SCIENCE AND TECHNOLOGY
BYELORUSSIAN SSR ACADEMY OF SCIENCE
CAMBRIDGE UNIVERSITY
CENTRAL INSTITUTE FOR COMPUTER TECHNOLOGIES
CHENGDU UNIVERSITY OF SCIENCE AND TECHNOLOGY
CHIBA INSTITUTE OF TECHNOLOGY
CHIBA UNIVERSITY
CHINESE ACADEMY OF SCIENCES
CENTER OF SUPER-DIAMOND AND ADVANCED FILMS
(COSDAF)
COUNCIL OF SCIENTIFIC AND INDUSTRIAL RESEARCH ORG.
EAST CHINA NORMAL UNIVERSITY
EINDHOVEN UNIVERSITY TECHNOLOGY
FACHBEREICH PHYSIK
FRAUNHOFER INSTITUTE FOR SURFACE ENGINEERING AND
THIN FILMS
FRAUNHOFER INSTITUT FÜR ANGEWANDE
FESTKÖRPERPHYSIK
FRAUNHOFER INSTITUT FÜR WERKSTOFFPHYSIK UND
SCHICHTTECHNOLOGIE
GENERAL PHYSICS INSTITUTE
HERIOT-WATT UNIVERSITY
INDIAN INSTITUTE OF TECHNOLOGY -- MUMBAI
INSTITUTE FOR SUPERHARD MATERIALS
INSTITUTE OF MECHNICAL ENGINEERING
INSTITUTO NACIONAL DE PESQUISAS ESPACIAIS
KHARKOV STATE POLYTECHNICAL UNIVERSITY
JAPAN FINE CERAMICS CENTER
KING'S COLLEGE OF LONDON
KOREA ADVANCED INSTITUTE OF SCIENCE AND
TECHNOLOGY
KOREA INSTITUTE OF SCIENCE AND TECHNOLOGY
LABORATORY OF SOLID LUBRICATION OF CHEMICAL PHYSICS
LANZHUO UNIVERSITY
NAGOYA UNIVERSITY
NANJING UNIVERSITY
NATIONAL CHENG KUNG UNIVERSITY
NATIONAL INSTITUTE OF MATERIALS SCIENCE
NATIONAL SCIENCE CENTRE
NATIONAL TAIPEI UNIVERSITY
NETHERLANDS ENERGY RESEARCH FOUNDATION
NIPPON INSTITUTE OF TECHNOLOGY
OSAKA UNIVERSITY
ROYAL MELBOURNE INSTITUTE OF TECHNOLOGY
RUSSIAN ACADEMY OF SCIENCES
RYUKOKU UNIVERSITY
SAITAMA UNIVERSITY
SARDAR PATEL UNIVERSITY
SCIENCE AND TECHNOLOGY AGENCY
SEOUL NATIONAL UNIVERSITY
STATE ENGINEERING UNIVERSITY OF ARMENIA
TECHNICAL RESEARCH CENTER OF FINLAND
TECHNICAL UNIVERSITY OF LODZ
TOKAI UNIVERSITY
TOKYO DENKI UNIVERSITY
TOKYO INSTITUTE OF TECHNOLOGY
TOYO UNIVERSITY
UKRAINE ACADEMY OF SCIENCES
UNIVERSITY OF BRISTOL
UNIVERSITY OF ELECTROCOMMUNICATIONS
UNIVERSITY OF EXETER
UNIVERSITY OF GÖTTIGEN
UNIVERSITY OF HAMBURG
UNIVERSITY OF HEIDELBERG
UNIVERSITY OF HELSINKI
UNIVERSITY OF KASSEL
UNIVERSITY OF LONDON
UNIVERSITY OF MELBORNE
UNIVERSITY OF PRETORIA
UNIVERSITY OF READING
UNIVERSITY OF TOKYO
UNIVERSITY OF TSUKUBA
UNIVERSITY OF THE WITWATERSTRAND
UNIVERSITY OF ULM
VIENNA TECHNOLOGICAL UNIVERSITY
WARSAW UNIVERSITY OF TECHNOLOGY
WARSAW UNIVERSITY OF TECHNOLOGY
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